TITLE: Hydroponics- Nutrient Film Techniques
PUBLICATION DATE: September 1994
ENTRY DATE: April 1995
EXPIRATION DATE:
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ISSN: 1052-5378
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Hydroponics - Nutrient Film Techniques
January 1984 - March 1994
QB 94-55
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Hydroponics - Nutrient Film Techniques
January 1984 - March 1994
Quick Bibliography Series: QB 94-55
Updates QB 92-43
289 citations in English from AGRICOLA
Henry Gilbert
Reference and User Services Branch
September 1994
National Agricultural Library Cataloging Record:
Gilbert, Henry
Hydroponics : nutrient film techniques: 1984 - March 1994.
(Quick bibliography series ; 94-55)
1. Hydroponics--Bibliography. I. Title.
aZ5071.N3 no.94-55
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Citations in this bibliography were entered in the AGRICOLA
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Citations in this bibliography are from the National
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JOURNAL ARTICLE:
Citation # NAL Call No.
Article title.
Author. Place of publication: Publisher. Journal Title.
Date. Volume (Issue). Pages. (NAL Call Number).
Example:
1 NAL Call No.: DNAL 389.8.SCH6
Morrison, S.B. Denver, Colo.: American School Food Service
Association. School foodservice journal. Sept 1987. v. 41
(8). p.48-50. ill.
BOOK:
Citation # NAL Call Number
Title.
Author. Place of publication: Publisher, date. Information
on pagination, indices, or bibliographies.
Example:
1 NAL Call No.: DNAL RM218.K36 1987
Exploring careers in dietetics and nutrition.
Kane, June Kozak. New York: Rosen Pub. Group, 1987.
Includes index. xii, 133 p.: ill.; 22 cm. Bibliography:
p. 126.
AUDIOVISUAL:
Citation # NAL Call Number
Title.
Author. Place of publication: Publisher, date.
Supplemental information such as funding. Media format
(i.e., videocassette): Description (sound, color, size).
Example:
1 NAL Call No.: DNAL FNCTX364.A425 F&N AV
All aboard the nutri-train.
Mayo, Cynthia. Richmond, Va.: Richmond Public Schools,
1981. NET funded. Activity packet prepared by Cynthia
Mayo. 1 videocassette (30 min.): sd., col.; 3/4 in. +
activity packet.
Hydroponics - Nutrient Film Techniques
SEARCH STRATEGY
SET DESCRIPTION
S1 Hydroponic?/ti
S2 NFT/ti
S3 Nutrient()Film()Technique?/ti
S4 S1 or S@ or S3
S5 La=English
S6 S4 and S5
S7 PY=1984:py=1994
S8 S6 and S7
Hydroponics - Nutrient Film Techniques
1 NAL Call. No.: S589.A1A35
New method of regeneration of root inhabiting substrates
(Hydroponics) Ermakov, E.I.; Medvedeva, I.V.
Leningrad, Institut; 1973.
Biulleten' nauchno-tekhnicheskoi informatsii po
agronomicheskoi fizike.Agrofizicheskii nauchno-
issledovatel'skii institut (17/18): p. 28-31. ill; 1973. 7
ref.
Language: ENGLISH
2 NAL Call. No.: 106 P44
Adsorption of elements of plant nutrients by keramzit (A
substrate in hydroponics)
Tret'iakov, N.N.; Siliutna, IU.I.
Moskva, "Kolos"; July/Aug 1978.
Izvestiia. 110 20 Timiriazevskaia sel'skokhoziaistvennaia
akademiia (4): p. 212-217. ill; July/Aug 1978. 20 ref.
Language: RUSSIAN; ENGLISH
3 NAL Call. No.: 106 P44
Methods of magnesium ammonium phosphate application in the
hydroponic cultivation of tomatoes
Kuliukin, A.N.; Peterburgskii, A.V.
Moskva, "Kolos"; July/Aug 1978.
Izvestiia. 110 20 Timiriazevskaia sel'skokhoziaistvennaia
akademiia (4): p. 123-132. ill; July/Aug 1978. 10 ref.
Language: RUSSIAN; ENGLISH
4 NAL Call. No.: 20 ER4
Intensity and net productivity of plant photosynthesis under
conditions of open hydroponics (Pelargonim L'Herit, tobacco
and pepper) Davtian, G.S.; Mezhunts, B.Kh
Erevan, Akademiia nauk Armianskoi SSR; Aug 1978.
Biologicheskii zhurnal Armenii v. 31 (8): p. 785-791. ill; Aug
1978. 18 ref.
Language: RUSSIAN; ARMENIAN; ENGLISH
5 NAL Call. No.: 442.9 AK125
Microflora (of rhizosphere) of hydroponic culture of radish
Tirranen, L.S.
Novosibirsk, "Nauka"; Dec 1978.
Izvestiia. Seriia biologicheskikh nauk.Akademiia nauk SSSR.
Sibirskoe otdelenie (15): p. 47-52. ill; Dec 1978. 17 ref.
Language: RUSSIAN; ENGLISH
6 NAL Call. No.: 20 ER4
Cultivation of pear and apple rootstocks-seedlings in outdoor
hydroponics Apoian, L.A.; Shaverdian, A.N.
Erevan, Akademiia nauk Armianskoi SSR; Mar 1978.
Biologicheskii zhurnal Armenii v. 31 (3): p. 323-327. ill; Mar
1978.
Language: RUSSIAN; ARMENIAN; ENGLISH
Descriptors: USSR
7 NAL Call. No.: aSD11.U57
A 15-day hydroponic system for measuring root growth
potential. DeWald, L.E.; Feret, P.P.; Kreh, R.E.
New Orleans, La. : The Station; 1985 Apr.
Forest Service general technical report SO - United States,
Southern Forest Experiment Station (54): p. 4-10. ill; 1985
Apr. Paper presented at the "Third Biennial Southern
Silvicultural Research Conference," November 7/8, 1984,
Atlanta, Georgia. Includes references.
Language: English
Descriptors: Pinus taeda; Roots; Hydroponics; Growth rate
8 NAL Call. No.: SB126.5.H94
22 new ABC's of NFT.
Cooper, A.J.
Honolulu, Hawaii, USA : International Center for Special
Studies; 1985. Hydroponics worldwide : state of the art in
soilless crop production / Adam J. Savage, editor. p. 180-185.
ill; 1985.
Language: English
Descriptors: Hydroponics; Nutrient film techniques; Nutrient
solutions; Cultivation methods
9 NAL Call. No.: SB126.5.S48 1985
Advanced guide to hydroponics (soilless cultivation)., New ed.
Sholto Douglas, James,
London : Pelham,; 1985.
368 p. : ill., 1 map, 1 plan, 2 ports. ; 23 cm. Previous ed.:
New York : Drake ; London : Pelham, 1976. Includes index.
Bibliography: p. 362.
Language: English
Descriptors: Hydroponics
10 NAL Call. No.: 80 AC82
The advances of soilless culture in China.
Shijun, L.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 319-322; 1988 Sep. In
the series analytic: High Technology in Protected Cultivation
/ edited by T. Kozai. Paper presented at an International
Symposium, May 12-15, 1988, Hamamatsu, Japan. Includes
references.
Language: English
Descriptors: China; Vegetables; Flowers; Soilless culture;
Historical records; Acreage; Geographical distribution;
Facilities; Problem solving; Nutrient film techniques; Bags;
Water; Gases; Culture methods; Rockwool
11 NAL Call. No.: S900.A8
The allure of hydroponics (Lettuce).
MacFadyen, J.T.
New York, N.Y. : National Audubon Society; July 1984.
Audubon v. 86 (4): p. 12-15. ill; July 1984.
Language: English
12 NAL Call. No.: QK867.J67
Aluminium and ammonium ion effects on the depletion of
potassium from hydroponic solutions by Trifolium repens L. cv.
'Grasslands Huia'. Lee, J.; Pritchard, M.W.; Sedcole, J.R.;
Robertson, M.R.
New York, N.Y. : Marcel Dekker; 1984.
Journal of plant nutrition v. 7 (11): p. 1635-1650; 1984.
Includes 25 references.
Language: English
Descriptors: Trifolium repens; White clover; Aluminum;
Ammonia; Ions; Potassium; Depletion; Potassium; Hydroponics;
Plant nutrition; Uptake
13 NAL Call. No.: SB126.5.P5
Plastics and hydroponics - the new approach. Annotated
bibliography on the nutrient film technique, 1974-1978
(Vegetable and field crops). British Agricultural and
Horticultural Plastics Association London British Plastics
Federation East Malling, The Bureau; July 1978. Query
file.Commonwealth Bureau of Horticulture and Plantation Crops
(11/78): 75 p. in various pagings : ill., plans. 4 p.; July
1978. (British Plastics Federation. Publications No. 231/1).
Language: ENGLISH; ENGLISH
Descriptors: Hydroponics; Plastics in agriculture
14 NAL Call. No.: 100 C76S no.322
An apparatus for hydroponics research.
Emmert, Fred H.
Storrs, Conn. : Storrs Agricultural Experiment Station,; 1956.
7 p. : ill. ; 23 cm. (Bulletin / Storrs Agricultural
Experiment Station ; 322).
Language: English
Descriptors: Hydroponics; Equipment and supplies
15 NAL Call. No.: 1.9 P69P
Assessment of plant diseases in hydroponic culture.
Zinnen, T.M.
St. Paul, Minn. : American Phytopathological Society; 1988
Feb. Plant disease v. 72 (2): p. 96-99. ill; 1988 Feb.
Includes references.
Language: English
Descriptors: Hydroponics; Plant diseases; Growth; Plant
nutrition; Temperature; Light; Disease control
16 NAL Call. No.: SB126.5.S5 1984
Beginner's guide to hydroponics soilless gardening., New ed.
Sholto Douglas, James,
London : Pelham Books,; 1984.
140 p. : ill. ; 23 cm. Includes index.
Language: English
Descriptors: Hydroponics
17 NAL Call. No.: SB126.5.N5 1990
Beginning hydroponics soilless gardening : a beginner's guide
to growing vegetables, house plants, flowers, and herbs
without soil.. Hydroponics, Updated with new sources..
Nicholls, Richard,
Philadelphia, Pa. : Running Press,; 1990.
127 p. : ill. ; 26 cm. Includes bibliographical references
(p. 114-121) and index.
Language: English
Descriptors: Hydroponics; Plant growing media, Artificial
18 NAL Call. No.: 381 J8223
Boron isotope ratios in commercial produce and boron-10 foliar
and hydroponic enriched plants.
Vanderpool, R.A.; Johnson, P.E.
Washington, D.C. : American Chemical Society; 1992 Mar.
Journal of agricultural and food chemistry v. 40 (3): p.
462-466; 1992 Mar. Includes references.
Language: English
Descriptors: Boron; Isotope labeling; Nutrient solutions;
Nutritive value; Fruit; Flours; Vegetables; Wheat
Abstract: Boron isotope ratios (11B/10B) for commercial
produce ranged from a high of 4.162 +/- 0.003 for cabbage to a
low of 4.013 +/- 0.008 for whole wheat flour. The observed
isotope ratios for produce fall within the range reported for
boron-containing minerals. Cucumbers and flour are 10B
enriched; bananas, cabbage, celery, grapes, green peppers,
lettuce, oranges, potatoes, and tomatoes are 11B enriched by
at least 0.02; apples, broccoli, cantaloupe, and carrots are
equal to NIST SRM-951 boric acid isotopic standard. Boron
isotope ratios (11B/10B) were measured for broccoli and
cabbage grown in a soilless medium, 4.018 +/- 0.016 and 4.032
+/- 0.003, in a soilless medium with foliar-applied H3 1OBO3,
1.848 +/- 0.009 and 1.746+/- 0.004, and in a hydroponic
solution with H3 1OBO3 as the only boron source, 0.126 +/-
0.012 and 0.098 +/- 0.005.
19 NAL Call. No.: 80 AC82
Boron requirements of strawberry (Fragaria ananassa L. cv.
Douglas) grown in hydroponic culture.
Garate, A.; Manzanares, M.; Ramon, A.M.; Carpena-Ruiz, R.O.
Wageningen : International Society for Horticultural Science;
1991 May. Acta horticulturae (287): p. 207-210; 1991 May.
Paper presented at the "Second International Symposium on
Protected Cultivation of Vegetables in Mild Winter Climates,"
October 29-November 3, 1989, Crete, Greece. Includes
references.
Language: English
Descriptors: Fragaria ananassa; Hydroponics; Boron;
Requirements
Abstract: Knowledge of the micronutrient requirements of
strawberries is rather scarce. This plant species is
considered to have low sensitivity to boron deficiency. In our
work several aspects of B requirements of Fragaria ananassa L.
cv. Douglas have been studied. Strawberries were grown in an
automated greenhouse and in aerated nutrient solution with
(+B) and with (-B) boron supply. The experiment started when
fresh plants were transferred from the nursery to 4-litres
pots (5 plants per pot) following the cultivation steps of a
typical commercial production in Spain. Plant material (shoot
and root) was sampled every two weeks after a gap of one
month. Simulaneously, nutrient solutions were analyzed and
renewed. B concentration in the n utrient solutions of both +B
and -B increased during the 2-weeks period of culture. This
increase was initially high but became smaller in successive
periods. Boron content was higher in +B leaves than in -B
ones. Nevertheless neither visula symptoms of B deficiency,
nor reduction in growth in yield were observed in -B plants
during the 4 months of the experiment. The lower boron
concentration of young leaves in comparison with older ones
would suggest a continuous supply of B from the root and a
weak capacity of redistribution of the microelement via the
phloem. In conclusion it appears that the large amount of
boron stored mostly in the root at the beginning of the assay
would be sufficient to cover the low B requirements of the
strawberry plant studied.
20 NAL Call. No.: 58.8 AG83
A breakthrough: living plants to treat sewage.
St. Joseph, Mich. : American Society of Agricultural
Engineers; 1986 Sep. Agricultural engineering v. 67 (6): p.
25. ill; 1986 Sep.
Language: English
Descriptors: New York; Plants; Sewage; Waste water treatment;
Nutrient film techniques; Hydroponics; Pollutants; Water
purification
21 NAL Call. No.: SB317.5.H68
A capillary, noncirculating hydroponic method for leaf and
semi-head lettuce. Kratky, B.A.
Alexandria, VA : American Society for Horticultural Science,
c1991-; 1993 Apr. HortTechnology v. 3 (2): p. 206-207; 1993
Apr. Includes references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Capillary rise; Crop
production; Nutrient solutions; Crop yield; Electric power
22 NAL Call. No.: QK710.A37
Certain aspects of nourishment of tomatoes grown by the
nutrient film technique (NFT). I. The effect of various
nitrate levels in the nutrient solution on nitrate reductase
activity and tomato yield.
Rozek, S.; Sady, W.; Myczkowski, J.; Wojtaszek, T.
Warszawa : Polish Scientific Publishers; 1984.
Acta physiologiae plantarum v. 6 (4): p. 203-214, ii, iv;
1984. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient solutions;
Nitrate reductase; Enzyme activity; Nutrient film techniques
23 NAL Call. No.: QK710.A37
Certain aspects of nourishment of tomatoes grown by the
nutrient film technique (NFT). II. Some indices of plant
metabolism under selected conditions of nitrate fertilization.
Rozek, S.; Sady, W.; Myczkowski, J.; Wojtaszek, T.
Warszawa : Polish Scientific Publishers; 1985.
Acta physiologiae plantarum v. 7 (2): p. 71-84, ii, vi; 1985.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nitrate fertilizers;
Nutrient film techniques; Plant metabolism
24 NAL Call. No.: QH301.D42
Chemical control of Spongospora and Olpidium in hydroponic
systems and soil. Tomlinson, J.A.
Wellesbourne, Warwick, Great Britain : The Association of
Applied Biologists; 1988.
Developments in applied biology (2): p. 293-303; 1988. In the
series analytic: Viruses with fungal vectors / edited by J.I.
Cooper and M.J.C. Asher. Proceedings of a conference at the
University of St. Andrews, August 25-27, 1987. Includes
references.
Language: English
Descriptors: Nasturtium officinale; Plant viruses; Disease
vectors; Spongospora subterranea; Disease control; Potato mop
top furovirus; Olpidium brassicae; Melon necrotic spot virus;
Fungicides
25 NAL Call. No.: S589.7.N48
Commercial hydroponic vegetable growers in Massachusetts.
Marshall, N.
East Falmouth, Mass. : The New Alchemists for contributions of
the New Alchemy Institute; 1985.
New alchemy quarterly (19): p. 12. ill; 1985.
Language: English
Descriptors: Massachusetts; Vegetables; Crop production;
Hydroponics; Crop enterprises; Income
26 NAL Call. No.: SB126.5.M37
Commercial hydroponics.
Mason, John
Kenthurst, N.S.W. : Kangaroo Press,; 1990.
172 p. : ill. (some col.) ; 25 cm. "How to grow 86 different
plants in hydroponics."--Cover. Includes bibliographical
references (p. 170) and index.
Language: English
Descriptors: Hydroponics
27 NAL Call. No.: SB126.5.S64
Comparison of 24 lettuce cultivars in a controlled environment
with extra C02 in NFT and stagnant solution.
Toop, E.W.; Silva, G.H.; Botar, G.
Wageningen : International Society for Soilless Culture; 1988.
Soilless culture v. 4 (1): p. 51-64. ill; 1988. Includes
references.
Language: English
Descriptors: Lactuca sativa; Cultivars; Nutrient film
techniques; Nutrient solutions; Carbon dioxide enrichment
28 NAL Call. No.: 450 C16
Comparison of maize (Zea mays L.) growth and nitrogen
parameters under hydroponic and field conditions.
Weiland, R.T.; McClung, A.M.
Ottawa : Agricultural Institute of Canada; 1989 Jul.
Canadian journal of plant science; Revue canadienne de
phytotechnie v. 69 (3): p. 643-651; 1989 Jul. Includes
references.
Language: English
Descriptors: Zea mays; Inbred lines; Growth rate; Biomass
accumulation; Nitrogen content; Field tests; Hydroponics; Line
differences
29 NAL Call. No.: 104 N762M
A comparison of the fruit quality of tomatoes grown in soil
and in a nutrient solution (NFT).
Baevre, O.A.
As : Det Universitet; 1985.
Meldinger fra Norges landbrukshogskole; Scientific reports of
the Agricultural University of Norway v. 64 (12): 10 p.; 1985.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient film
techniques; Soil analysis; Fruit; Leaf analysis
30 NAL Call. No.: SB327.A1B5
Comparisons of cultivar differences in root growth measured
under field conditions, containers, and hydroponic culture.
White, J.W.; Montes R., C.; Llano R., G.A.
Fort Collins, Colo : Howard F. Schwartz, Colorado State
University; 1992. Annual report of the Bean Improvement
Cooperative v. 35: p. 31-32; 1992. Includes references.
Language: English
Descriptors: Phaseolus vulgaris; Cultivars; Roots; Growth;
Genetic variation; Hydroponics; Field tests
31 NAL Call. No.: 80 AC82
The conditions for raising seedlings for tomato production by
topping at the second truss stage.
Sasaki, K.; Tamazaki, Y.
Wageningen : International Society for Horticultural Science;
1992 Oct. Acta horticulturae v. 2 (319): p. 459-462; 1992 Oct.
Paper presented at the International Symposium on Transplant
Production Systems--Biological, Engineering and Socioeconomics
Aspects, July 21-26, 1992, Yokohama, Japan. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Developmental stages;
Topping; Seedlings; Production; Transplanting; Greenhouse
crops; Nutrient film techniques
32 NAL Call. No.: SB317.5.H68
Construction and use of an inexpensive in vitro ultrasonic
misting system. Tisserat, B.; Jones, D.; Galletta, P.D.
Alexandria, VA : American Society for Horticultural Science,
c1991-; 1993 Jan. HortTechnology v. 3 (1): p. 75-78; 1993 Jan.
Includes references.
Language: English
Descriptors: Daucus carota; Tissue culture; Cultural methods;
Micropropagation; Nutrient film techniques; Mist irrigation;
Ultrasonics
33 NAL Call. No.: SB126.5.C6
Continuous hydroponic wheat production using a recirculating
system. Mackowiak, C. L.
S.l. : National Aeronautics and Space Administration, John F.
Kennedy Space Center,; 1989, reprinted 1990.
vi, 49 p. : ill. ; 28 cm. (NASA technical memorandum ;
102784). Cover title. September 1989. Includes
bibliographical references (p. 47-49).
Language: English
Descriptors: Hydroponics; Wheat
34 NAL Call. No.: 105.1 G344
The control of red core caused by Phytophthora fragariae on
strawberries in N.F.T.
Jamart, G.; Kamoen, O.; Vaerenbergh, J. van
Gent, Belgium : Het Faculteit; 1985.
Mededelingen van de Faculteit Landbouwwetenschappen
Rijksuniversiteit v. 50 (3b): p. 1087-1096. ill; 1985.
Includes references.
Language: English
Descriptors: Fragaria; Phytophthora fragariae; Fungicide
application; Nutrient film techniques
35 NAL Call. No.: 1.9 P69P
Control of root rot of spinach caused by Pythium
aphanidermatum in a recirculating hydroponic system by
ultraviolet irradiation. Stanghellini, M.E.; Stowell, L.J.;
Bates, M.L.
St. Paul, Minn. : American Phytopathological Society; 1984
Dec. Plant disease v. 68 (12): p. 1075-1076. ill; 1984 Dec.
Includes 12 references.
Language: English
Descriptors: Spinach; Pythium aphanidermatum; Root rots;
Ultraviolet radiation; Hydroponics; Iron; Chlorosis
36 NAL Call. No.: 80 AC82
Control of the composition of the nutrient solution in an
automated NFT system: a simulation study.
Heinen, M.
Wageningen : International Society for Horticultural Science;
1992 Mar. Acta horticulturae (304): p. 281-289; 1992 Mar.
Paper presented at the "First International Workshop on
Sensors in Horticulture", January 29-31, 1991,
Noordwijkerhout, The Netherlands. Includes references.
Language: English
Descriptors: Crop production; Greenhouse culture; Nutrient
film techniques; Nutrient solutions; Chemical composition;
Sensors; Measurement; Mathematical models
37 NAL Call. No.: QK867.J67
Control of the ionic composition of the rhizosphere in the
transition to soil-based hydroponic systems.
Geraldson, C.M.
New York, N.Y. : Marcel Dekker; 1987.
Journal of plant nutrition v. 10 (9116): p. 1205-1211; 1987.
Paper presented at the "Tenth International Plant Nutrition
Colloquium," August 4-9, 1986, Beltsville, Maryland. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Rhizosphere; Nutrients;
Ions; Hydroponics; Nutrient solutions; Plastic mulches
38 NAL Call. No.: 80 AC82
Control of water and nutrient supply in greenhouse vegetable
production by means of hydroponic systems.
Gohler, F.; Heissner, A.; Schmeil, H.
Wageningen : International Society for Horticultural Science;
1989 Sep. Acta horticulturae (260): p. 237-253; 1989 Sep.
Paper presented at the "International Symposium on Growth and
Yield Control in Vegetable Production," / edited by G. Vogel,
May 22-25, 1989, Berlin, German Democratic Republic.
Language: English
Descriptors: Lycopersicon esculentum; Greenhouse crops;
Hydroponics; Control programs; Models; Water use; Nutrient
solutions; Equipment; Algorithms; Closed systems
39 NAL Call. No.: 80 AC82
Crop nutrition in hydroponics.
Adams, P.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 289-305; 1993 Feb.
Paper presented at the "Symposium on Soil and Soilless Media
Under Protected Cultivation in Mild Winter Climates," March
1-6, 1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Cucumis sativus;
Hydroponics; Nutrient uptake; Nutrient solutions; Recycling;
Nutrient content; Plant nutrition
40 NAL Call. No.: TD420.A1P7
Crop production and sewage treatment using gravel bed
hydroponic irrigation. Butler, J.E.; Loveridge, R.F.; Bone,
D.A.
Oxford : Pergamon Press; 1989.
Water science and technology : a journal of the International
Association on Water Pollution Research and Control v. 21
(12): p. 1669-1672; 1989. Paper presented at the "Fourteenth
Biennial Conference of the International Association on Water
Pollution Research and Control," July 18-21, 1988, Brighton,
United Kingdom. Includes references.
Language: English
Descriptors: Sewage; Biological treatment; Phragmites
australis; Grasses; Beta vulgaris var. saccharifera;
Fertigation; Hydroponics
41 NAL Call. No.: 309.9 N216
Design of capillary, sub-irrigation hydroponic lettuce
cultivation system for a remote area.
Kratky, B.A.
Peoria, Ill. : National Agricultural Plastics Association;
1990. Proceedings of the ... National Agricultural Plastics
Congress (22nd): p. 141-146. ill; 1990. Paper presented at
the "22nd Congress of National Agricultural Plastics
Association," May 21-25, 1990, Montreal, Quebec. Includes
references.
Language: English
Descriptors: Hawaii; Hydroponics; Irrigation systems;
Polyethylene film
42 NAL Call. No.: 309.9 N216
Developement of a soil-based hydroponic system using the
gradient-mulch concept.
Geraldson, C.M.
Peoria, Ill. : National Agricultural Plastics Association;
1987. Proceedings of the ... National Agricultural Plastics
Congress v. 20: p. 96-102; 1987. Includes references.
Language: English
Descriptors: Hydroponics; Plant nutrition; Soil water
relations; Plastic mulches
43 NAL Call. No.: S19.P4
Development of an NFT system of soilless culture for the
tropics. Lim, E.S.
Serdang, Malaysia : Universiti Pertanian Malaysia; 1985 Apr.
Pertanika v. 8 (1): p. 135-144. ill; 1985 Apr. Includes
references.
Language: English
Descriptors: Nutrient film techniques; Tropical climate;
Cucumis melo; Vegetables; Ornamental plants
44 NAL Call. No.: S539.5.R473
The development of hydroponic culture in Scotland.
Hall, D.A.; Wilson, G.C.S.
Harlow, Essex : Longman; 1986.
Research and development in agriculture v. 3 (2): p. 61-69.
ill; 1986. Literature review. Includes references.
Language: English
Descriptors: Scotland; Lycopersicon esculentum; Hydroponics;
Nutrient film techniques; Nutrient solutions; Perlite;
Rockwool
45 NAL Call. No.: 80 AC82
Development of hydroponic system and adaptation of
microcomputers for a commercial size vegetable factory.
Okano, T.; Hoshi, T.; Terazoe, H.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 343-348. ill; 1988 Sep.
In the series analytic: High Technology in Protected
Cultivation / edited by T. Kozai. Paper presented at an
International Symposium, May 12-15, 1988, Hamamatsu, Japan.
Includes references.
Language: English
Descriptors: Japan; Vegetables; Hydroponics; Industrial
methods; Nutrient solutions; Environmental control;
Instruments; Management; Systems; Remote control; Information
services; On line; Microcomputers
46 NAL Call. No.: SB126.5.D57
Directory of suppliers of nutrient, seed, systems, equipment
and services for hydroponic growers, commercial and hobby plus
list of books offered for sale at discount to members.
Hydroponic Society of America
Concord, Calif. : The Society,; 19??-9999.
v. : ill. ; 28 cm. Description based on: 1993; title from
cover.
Language: English
Descriptors: Hydroponics
47 NAL Call. No.: 80 AC82
Diurnal fluctuations in nitrate accumulation and reductase
activity in lettuce (Lactuca sativa L.) grown using nutrient
film technique.
Carrasco, G.A.; Burrage, S.W.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 51-59; 1993 Feb. Paper
presented at the "Symposium on Soil and Soilless Media Under
Protected Cultivation in Mild Winter Climates," March 1-6,
1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Lactuca sativa; Nutrient film techniques; Plant
composition; Nitrates; Nitrate reductase; Enzyme activity;
Food contamination
48 NAL Call. No.: QK867.J67
Diurnal uptake of nitrate and potassium during the vegetative
growth of tomato plants.
Le Bot, J.; Kirby, E.A.
New York, N.Y. : Marcel Dekker; 1992.
Journal of plant nutrition v. 15 (2): p. 247-264; 1992.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nitrate; Potassium;
Nutrient uptake; Ion uptake; Water uptake; Diurnal variation;
Nutrient film techniques; Vegetative period
Abstract: Tomato plants (Lycopersicon esculentum Mill.) of
the F1 hybrid variety Turbo were grown in a NFT system for 22
days. On days 16 and 20-22 inclusive of the experiment, the
diurnal variation in nitrate (NO3), potassium (K), and water
uptake rates were measured. Nitrate and K uptake rates were
subject to large diurnal variation with maximum uptake rates
occurring during the day period. Two peaks of diurnal uptake
rates were identified, one large peak during the day period
and a second much smaller one during the first 2-4 hours of
the night. Under the conditions of the experiment, night
nutrition made up 35 to 40% of the total daily uptake of K and
NO3. Water uptake rates followed a diurnal oscillation with a
single peak pattern. Highest rates occurred at the middle of
the photoperiod and lowest rates were measured at night. Over
the entire day and night cycle there was no correlation
between the rates of water and nutrient uptake. This may be of
importance in the fertilization of hydroponically grown plants
since in horticultural practice nutrients and water are
supplied together in quantities large enough to meet plant
water demand but not nutrient requirements.
49 NAL Call. No.: SB599.C8
Drainwater filtration for the control of nematodes in
hydroponic-type systems. Moens, M.; Hendrickx, G.
Oxford : Butterworths-Heinemann Ltd; 1992 Feb.
Crop protection v. 11 (1): p. 69-73; 1992 Feb. Includes
references.
Language: English
Descriptors: Ornamental plants; Hydroponics; Container grown
plants; Plant parasitic nematodes; Nematode control;
Filtration; Physical control; Nutrient solutions; Globodera
rostochiensis
50 NAL Call. No.: SB1.H6
Easily constructed, inexpensive, hydroponic propagation
system. Hershey, D.R.
Alexandria, Va. : American Society for Horticultural Science;
1989 Aug. HortScience v. 24 (4): p. 706. ill; 1989 Aug.
Includes references.
Language: English
Descriptors: Plant propagation; Hydroponics; Design; Mist
propagation; Cuttings; Innovations; Apparatus
51 NAL Call. No.: FICHE S-72
Economically optimum day temperatures for greenhouse
hydroponic lettuce production.
Marsh, L.S.; Albright, L.D.; Langhans, R.W.; McCulloch, C.E.
St. Joseph, Mich. : The Society; 1987.
American Society of Agricultural Engineers (Microfiche
collection) (fiche no. 87-4023): 37 p.; 1987. Paper presented
at the 1987 Summer Meeting of the American Society of
Agricultural Engineers. Available for purchase from: The
American Society of Agricultural Engineers, Order Dept., 2950
Niles Road, St. Joseph, Michigan 49085. Telephone the Order
Dept. at (616) 429-0300 for information and prices. Includes
references.
Language: English
Descriptors: Greenhouses; Hydroponics; Lactuca sativa; Plant
production; Optimization; Air temperature; Economic
evaluation; Heating costs
52 NAL Call. No.: 290.9 AM32T
Economically optimum day temperatures for greenhouse
hydroponic lettuce production. I. A computer model.
Marsh, L.S.; Albright, L.D.
St. Joseph, Mich. : American Society of Agricultural
Engineers; 1991 Mar. Transactions of the ASAE v. 34 (2): p.
550-556; 1991 Mar. Includes references.
Language: English
Descriptors: Lactuca sativa; Greenhouse culture; Growth;
Hydroponics; Heating costs; Mathematical models; Temperature
Abstract: An algorithm was developed to select a economically
optimum temperature trajectory for greenhouse hydroponic
lettuce production. Daily air temperature was selected to
maximize he difference beween crop worth and cost to heat. To
select an optimum temperature, crop worth was determined for a
range of possible inside temperatures by projecting crop
growth forward to harvest using expected values of weather
variables based on historical weather data. After an optimum
temperature for the day in question was selected, the status
of the lettuce crop was updated based upon the selected
temperature and the day's actual weather data.
53 NAL Call. No.: 290.9 AM32T
Economically optimum day temperatures for greenhouse
hydroponic lettuce production. II. Results and simulations.
Marsh, L.S.; Albright, L.D.
St. Joseph, Mich. : American Society of Agricultural
Engineers; 1991 Mar. Transactions of the ASAE v. 34 (2): p.
557-562; 1991 Mar. Includes references.
Language: English
Descriptors: New York; Lactuca sativa; Crop production;
Economic analysis; Greenhouse culture; Heating costs;
Hydroponics; Simulation models; Temperature
Abstract: Results of simulations from a computer model
developed to determine economically optimum day temperature
for greenhouse hydroponic lettuce production are presented.
Selected optimum air temperature is a function of many factors
including available insolation, stage of growth of the crop,
length of the growing period, lettuce worth, and fuel costs.
Potential savings due to production at optimum day
temperatures compared to standard temperatures were estimated
based on simulation of five years of operation. Potential
savings vary depending on fuel cost and whether the greenhouse
is operated such that only plants of the same age are present
or such that many age groups are present simultaneously.
Savings varied form 10 to 30% of the heating costs.
54 NAL Call. No.: 80 AC82
Effect of a mixture of organic subtances and iron on the
growth and nutrient uptake of chrysantemum in NFT.
Takano, T.
Wageningen : International Society for Horticultural Science;
1990 Jul. Acta horticulturae (272): p. 223-227; 1990 Jul.
Paper presented at the "Symposium on Bedding and Pot Plant
Culture," April 29-May 4, 1989, East Lansing, Michigan.
Includes references.
Language: English
Descriptors: Dendranthema morifolium; Nutrient uptake; Organic
compounds; Iron; Growth
Abstract: In addition to essential inorganic nutrients,
plants may need other organic substances as they have grown in
soil. The capacity of microorganisms to synthesize biotic
substances in a soil has been for a long time. Of these
substances, a B-group of vitamins (Thiamine, Nicotinic acid,
and Pyridoxine) and amino acid (cysteine) were selected as
good source of nutrition for the plants. Present paper shows
the effect of the addition of a mixture of these organic
substances and iron to the nutrient solution on the growth and
nutrient uptake in cut-flower chrysanthemum in the nutrient
film technique system. A mixture of these substances added to
the basal nutrient solution had a marked effect upon the
growth and uptake of inorganic nutrients in chrysanthemum
plant. Leaf green color was intensified by the treatment of
liquid fertilizer containing thiamine, iron, and cysteine. As
a side effect, these substances gave resistance of plants to
unfavorable conditions.
55 NAL Call. No.: TD172.J61
The effect of aldicarb on nematode population and its
persistence in carrots, soil and hydroponic solution
(Pesticides, residues, Meloidogyne incognita, Meloidegyne
hapla).
Lue, L.P.; Lewis, C.C.; Melchor, V.E.
New York, N.Y. : Marcel Dekker; 1984.
Journal of environmental science and health. Part B.
Pesticides, food contaminants, and agricultural wastes v. 19
(3): p. 343-354; 1984. Includes references.
Language: English
56 NAL Call. No.: 470 C16C
Effect of Azospirillum spp. inoculation on root development
and NO3- uptake in wheat (Triticum aestivum cv. Miriam) in
hydroponic systems. Kapulnik, Y.; Gafny, R.; Okon, Y.
Ottawa, Ont. : National Research Council of Canada; 1985 Mar.
Canadian journal of botany; Journal canadien de botanique v.
63 (3): p. 627-631. ill; 1985 Mar. Includes references.
Language: English
Descriptors: Triticum aestivum; Azospirillum; Nitrogen
fixation; Nitrates; Roots; Uptake; Hydroponics; Growth
57 NAL Call. No.: 80 AC82
Effect of calcium stress on the calcium status of tomatoes
grown in NFT. Adams, P.; El-Gizawy, A.M.
Wageningen : International Society for Horticultural Science;
1988 Jul. Acta horticulturae (222): p. 15-22; 1988 Jul. In
the series analytic: Fertilization of vegetables under
protected cultivation / edited by A. van Diest. Proceedings of
the Symposium, April 6-10, 1987, Naaldwijk, Netherlands. AGL.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Mineral nutrition;
Calcium deficiency; Duration; Nutrient solutions; Fruits;
Blossom end rot; Nutrient contents; Crop quality; Nutrient
removal by plants
58 NAL Call. No.: 80 AC82
Effect of climatic conditions and time of harvest on growth
and tissue nitrate content of lettuce in nutrient film
culture.
Kanaan, S.S.; Economakis, C.D.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 75-80; 1993 Feb. Paper
presented at the "Symposium on Soil and Soilless Media Under
Protected Cultivation in Mild Winter Climates," March 1-6,
1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Lactuca sativa; Nutrient film techniques;
Greenhouse culture; Light; Temperature; Crop yield; Plant
tissues; Plant composition; Nitrates; Food contamination
59 NAL Call. No.: 80 AC82
Effect of conductivity and temperature of nutrient solution on
the mineral nutrition of horticultural crops in water culture.
Takano, T.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 299-305; 1988 Sep. In
the series analytic: High Technology in Protected Cultivation
/ edited by T. Kozai. Paper presented at an International
Symposium, May 12-15, 1988, Hamamatsu, Japan. Includes
references.
Language: English
Descriptors: Rosa; Lycopersicon esculentum; Cucumis melo;
Fragaria ananassa; Nutrient film techniques; Rockwool;
Nutrient solutions; Electrical conductivity; Root zone
temperature; Growth; Mineral nutrition; Dry matter
accumulation; Greenhouses; Nutrient uptake; Potassium nitrate;
Application; Photosynthesis
60 NAL Call. No.: SB126.5.S64
Effect of intermittent flow on seasonal production of NFT
lettuce. Bedasie, S.; Stewart, K.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (1): p. 11-19. ill; 1987. Includes
references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Nutrient film
techniques; Nutrient solutions; Flow; Crop production;
Seasonality
61 NAL Call. No.: QK867.J67
Effect of lowering nutrient solution concentration at night on
leaf calcium levels and the incidence of tipburn in lettuce
(var. Gloria). Cresswell, G.C.
New York, N.Y. : Marcel Dekker; 1991.
Journal of plant nutrition v. 14 (9): p. 913-924; 1991.
Includes references.
Language: English
Descriptors: Lactuca sativa; Tipburn; Mineral deficiencies;
Calcium ions; Nutrient solutions; Calcium nitrate; Nutrient
film techniques; Hydroponics; Nutrient availability; Diurnal
variation; Mineral content; Leaves
Abstract: Butterhead lettuce (var. Gloria) were grown in an
evaporatively cooled glasshouse using the nutrient film
technique (NFT). During the day all plants received a complete
nutrient solution (EC 2 dS/m). Treatments were imposed at
night and included: complete nutrient solution (control); tap
water (EC 0.19 dS/m); and calcium nitrate solutions containing
either 100 mg Ca/L (EC 0.80 dS/m), or 200 mg Ca/L (EC 1.45
dS/m). Tipburn occurred in the control and its incidence was
reduced by the other treatments. This effect was associated
with an increase in the concentration of calcium in new
leaves, except in the water treatment. The night treatments
did not affect the fresh weight of mature lettuce. Circulation
of either water or calcium nitrate (100 mg Ca/L) at night may,
therefore, be a commercially acceptable means of reducing
tipburn losses in lettuce crops grown using hydroponics.
62 NAL Call. No.: 80 AC82
Effect of NaCl salinity on growth of cucumber Cucumuis sativus
L. grown in NFT.
Al-Harbi, A.R.; Burrage, S.W.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 39-50; 1993 Feb. Paper
presented at the "Symposium on Soil and Soilless Media Under
Protected Cultivation in Mild Winter Climates," March 1-6,
1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Cucumis sativus; Nutrient film techniques; Sodium
chloride; Salinity; Nutrient solutions; Stress conditions;
Stress response
63 NAL Call. No.: SB126.5.S64
The effect of oxygen supply and calcium levels in hydroponic
culture on the occurrence of carrot cavity spot.
Wagenvoort, W.A.; Babik, I.; Findenegg, G.R.
Wageningen : International Society for Soilless Culture; 1985.
Soilless culture v. 1 (1): p. 67-72; 1985. Includes
references.
Language: English
Descriptors: Daucus carota; Hydroponics; Plant disorders;
Calcium deficiency; Oxygen requirement; Anaerobiosis
64 NAL Call. No.: 80 AC82
Effect of solution conductivity on growth and yield of lettuce
in nutrient film culture.
Economakis, C.D.
Wageningen : International Society for Horticultural Science;
1991 May. Acta horticulturae (287): p. 309-316; 1991 May.
Paper presented at the "Second International Symposium on
Protected Cultivation of Vegetables in mild winter climates"
October 29-November 13, 1989, Crete, Greece. Includes
references.
Language: English
Descriptors: Lactuca sativa; Nutrient film techniques;
Nutrient solutions; Electrical conductivity; Yield response
functions
Abstract: Butterhead and cos type lettuce (Lactuca sativa L.)
.cv. "Bellona" and "Paris cos island" respectively, were grown
in nutrient film culture, under various electrical
conductivity levels (1.5-2.0-2.5-3.0-4.0-5.0 mS). Fresh and
dry weights of shoots and roots were measured for their
seasonal growth, over a period from October to May, under an
unheated glasshouse. For both cultivars the overall effect of
solution conductivity on shoot fresh weight, was minor.
Increases in conductivity resulted in increased root dry
weight.
65 NAL Call. No.: 44.8 J824
Effect of the normal microflora on survival of Salmonella
typhimurium inoculated into a hydroponic nutrient solution.
Riser, E.C.; Grabowski, J.; Glen, E.P.
Ames, Iowa : International Association of Milk, Food, and
Environmental Sanitarians; 1985 Oct.
Journal of food protection v. 48 (10): p. 879-882, 886; 1985
Oct. Includes 12 references.
Language: English
Descriptors: Lettuces; Nutrient solutions; Salmonella
typhimurium; Microflora; Culture media; Nutrient solutions
66 NAL Call. No.: SB126.5.S64
The effect of warming the nutrient solution on the early
growth of tomatoes in NFT in a heated and unheated
environment.
Devonald, V.G.; Tapp, A.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (1): p. 31-38. ill; 1987. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Nutrient
film techniques; Greenhouse culture; Heating; Plastic tunnels;
Spring; Nutrient solutions; Growth; Responses; Cold stress
67 NAL Call. No.: SB126.5.S64
Effect of watering regime on the growth and development of NFT
lettuce. Bedasie, S.; Stewart, K.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (2): p. 3-7. ill; 1987. Includes
references.
Language: English
Descriptors: Nutrient film techniques; Lycopersicon
esculentum; Fruits; Firmness; Chemical analysis; Ascorbic acid
68 NAL Call. No.: SB126.5.S64
Effect of watering regime on the growth and development of NFT
lettuce. Bedasie, S.; Stewart, K.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (1): p. 3-9. ill; 1987. Includes
references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Nutrient film
techniques; Water supplies; Growth; Development; Flow; Crop
yield; Irrigation
69 NAL Call. No.: 80 J825
Effects of constant and fluctuating salinity on the yield,
quality and calcium status of tomatoes.
Adams, P.; Ho, L.C.
Ashford : Headley Brothers Ltd; 1989 Nov.
The Journal of horticultural science v. 64 (6): p. 725-732;
1989 Nov. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient film
techniques; Salinity; Yield response functions; Fruit juices;
Chemical composition; Sugars; Acids
70 NAL Call. No.: 81 SO12
Effects of dissolved oxygen concentrations in aero-hydroponics
on the formation and growth of adventitious roots.
Soffer, H.; Burger, D.W.
Alexandria, Va. : The Society; 1988 Mar.
Journal of the American Society for Horticultural Science v.
113 (2): p. 218-221. ill; 1988 Mar. Includes references.
Language: English
Descriptors: Ficus benjamina; Chrysanthemum; Hydroponics;
Dissolved oxygen; Cuttings; Rooting capacity; Root systems;
Woody plants
71 NAL Call. No.: 450 N42
Effects of ectomycorrhiza on host growth and carbon balance in
a semi-hydroponic cultivation system.
Nylund, J.E.; Wallander, H.
New York, N.Y. : Cambridge University Press; 1989 Jul.
The New phytologist v. 112 (3): p. 389-398; 1989 Jul.
Includes references.
Language: English
Descriptors: Pinus sylvestris; Seedlings; Inoculation;
Mycorrhizal fungi; Responses; Growth rate; Symbiosis;
Photosynthesis; Translocation; Respiration; Auxins;
Hydroponics
72 NAL Call. No.: 80 J825
The effects of root-zone warming on the yield and quality of
roses grown in a hydroponic system.
Moss, G.I.
Ashford : Headley Brothers Ltd; 1984 Oct.
The Journal of horticultural science v. 59 (4): p. 549-558;
1984 Oct. Includes references.
Language: English
Descriptors: Roses; Hydroponics; Nutrient film techniques;
Root zone temperature; Heat; Quality; Yields
73 NAL Call. No.: 80 J825
The effects of salinity on dry matter partitioning and fruit
growth in tomatoes grown in nutrient film culture.
Ehret, D.L.; Ho, L.C.
Ashford : Headley Brothers Ltd; 1986 Jul.
The Journal of horticultural science v. 61 (3): p. 361-367;
1986 Jul. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient film
techniques; Salinity; Dry matter accumulation; Fruit; Plant
development; Plant organs; Growth
74 NAL Call. No.: 80 AC82
Effects of salinity, vapour pressure deficit and root
temperature on growth and yield of NFT-grown tomatoes.
Ismail, M.R.; Burrage, S.W.
Wageningen : International Society for Horticultural Science;
1992 Jun. Acta horticulturae (292): p. 143-148; 1992 Jun. In
the series analytic: Recent advances in horticultural science
in the tropics / edited by W.M.W. Othman, R. Mohamad, S.H.
Ahmad, K.K. Chong. Meeting held on August 7-9, 1990,
Universiti Pertanian Malaysia. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient film
techniques; Growth; Crop yield; Responses; Soil salinity;
Vapor pressure; Deficiency; Roots; Temperature
75 NAL Call. No.: 450 C16
Effects of supplemental lighting and root-zone temperature on
growth of Chrysanthemums in nutrient film.
Hicklenton, P.R.
Ottawa : Agricultural Institute of Canada; 1989 Apr.
Canadian journal of plant science; Revue canadienne de
phytotechnie v. 69 (2): p. 585-590; 1989 Apr. Includes
references.
Language: English
Descriptors: Chrysanthemum; Growth rate; Nutrient film
techniques; Light relations; Root zone temperature; Leaf area;
Dry matter accumulation
76 NAL Call. No.: S539.5.A77
Effects of supplementary light, solution heating, and
increased solution Ca levels on lettuce production in the
nutrient film technique. Schlagnhaufer, B.E.; Holcomb, E.J.;
Orzolek, M.D.
New York : Springer; 1987.
Applied agricultural research v. 2 (2): p. 124-129; 1987.
Includes references.
Language: English
Descriptors: Lactuca sativa; Calcium; Nutrient film
techniques; Supplementary light; Nutrient solutions;
Temperatures
77 NAL Call. No.: 464.8 P56
Effects of temperature and hydrogen ion concentration on
attachment of macroconidia of Fusarium solani f. sp. phaseoli
to mung bean roots in hydroponic nutrient solution.
Schuerger, A.C.; Mitchell, D.J.
St. Paul, Minn. : American Phytopathological Society; 1992
Nov. Phytopathology v. 82 (11): p. 1311-1319; 1992 Nov.
Includes references.
Language: English
Descriptors: Vigna radiata; Fusarium solani f.sp. phaseoli;
Roots; Infectivity; Regulation; Temperature; Hydrogen; Ion
balance; Conidia; Spore germination; Inoculum density;
Pathogenicity; Hydroponics; Growth
Abstract: Hydroponically grown mung bean seedlings were
inoculated with macroconidia of Fusarium solani f. sp.
phaseoli to evaluate the effects of temperature (15, 20, 25,
30, and 35 C) and hydrogen ion concentration (pH 3, 4, 5, 6,
and 7) on spore attachment to roots of Vigna radiata.
Macroconidia of F. s. phaseoli attached to second-order roots
with root hairs in greater numbers than to those without root
hairs or to roots of other orders. Attachment of macroconidia
to second-order roots was greatest at 20-30 C and pH 4 but
decreased by up to two orders of magnitude when the
temperature of the nutrient solution was increased to 35 C or
the pH elevated to 7. The binding reaction of macroconidia to
roots was observed to be reversible when plants inoculated at
25 C and pH 5 were transferred to nutrient solutions
maintained at 35 C or pH 7. Plant fresh weights of V. radiata
decreased with increasing inoculum density when plants were
inoculated and maintained at 20 or 25 C but not at 30 C.
Differences in plant fresh weights of V. radiata between
inoculated and uninoculated plants were greatest at 20 C,
decreased at 25 C, and were not observed at 30 C. In a
separate experiment, plant roots were exposed to inoculum for
24 h at 24 C and pH 4, 5, 6, or 7. The nutrient solutions of
each treatment were then adjusted to and maintained at pH 6
for an additional 13 days. Disease was greatest when roots
were inoculated at pH 4 as compared to pH 5 or 6. Plants
inoculated at pH 7 were not different from uninoculated
plants. Differences in disease among plants inoculated at
different hydrogen ion concentrations are explicable when
based on the effects of hydrogen ion concentration on the
attachment of macroconidia to root surfaces. Differences in
disease among plants inoculated at different temperatures
between 20 and 30 C are not explicable when based on the
effects of temperature on spore attachment to roots or on
growth of the pathogen. We propose that differences in disease
among plant
78 NAL Call. No.: 464.8 P56
Effects of temperature on Pythium root rot of spinach grown
under hydroponic conditions.
Gold, S.E.; Stanghellini, M.E.
St. Paul, Minn. : American Phytopathological Society; 1985
Mar. Phytopathology v. 75 (3): p. 333-337. ill; 1985 Mar.
Includes 15 references.
Language: English
Descriptors: Spinacia oleracea; Pythium aphanidermatum; Plant
pathogens; Temperatures; Root rots
79 NAL Call. No.: 105.1 G344
Epidemiology of Corynebacterium michiganense in NFT tomato.
Vaerenbergh, J. van; Jamart, G.; Kamoen, O.
Gent, Belgium : Het Faculteit; 1985.
Mededelingen van de Faculteit Landbouwwetenschappen
Rijksuniversiteit v. 50 (3a): p. 997-1013; 1985. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient film
techniques; Corynebacterium michiganense; Epidemiology
80 NAL Call. No.: 64.8 C883
Evaluation of sweet potato genotypes for adaptability to
hydroponic systems. Mortley, D.G.; Bonst, C.K.; Loretan, P.A.;
Morris, C.E.; Hill, W.A.; Ogbuehi, C.R.
Madison, Wis. : Crop Science Society of America; 1991 May.
Crop science v. 31 (3): p. 845-847; 1991 May. Includes
references.
Language: English
Descriptors: Ipomoea batatas; Genotypes; Screening;
Adaptability; Hydroponics; Nutrient film techniques;
Cultivars; Varietal reactions; Crop yield; Roots; Biomass
production
Abstract: Sweet potato [Ipomoea batatas (L.) Lam.] is among
eight crops selected by NASA for its Controlled Ecological
Life Support Systems (CELSS) program. This research evaluated
sweet potato genotypes for adaptability to hydroponic systems.
Fourteen sweet potato genotypes were grown hydroponically
using nutrient film technique (NFT) systems. Four vine
cuttings from each genotype were spaced at 25 cm and grown for
120 d using 14 NFT channels (0.15 by 0.15 by 1.2 m) supplied
with a modified half-Hoagland nutrient solution. Genotypes
responded differently to growth in NFT. 'Jewel' produced the
highest mean total storage-root yield of 470 g per plant.
Individual plant yields ranged from 767 g for 'Centennial' to
36 g for 'Bunch'. Inverse relationships between foliage weight
and storage-root yield were obtained with 11 genotypes. Edible
biomass indices were comparable to those of potato (Solanum
tuberosum L.) and lettuce (Lactuca sativa L.), and higher than
those of wheat (Triticum aestivum L.) and soybean [Glycine max
(L.) Merr.]. Based on their performance, Jewel, 'Carver',
TU-52, and Centennial sweet potato appear well adapted to
growing in NFT.
81 NAL Call. No.: 80 AC82
Evaluation of the performance of ion-selective electrodes in
an automatead NFT system.
Heinen, M.; Harmanny, K.
Wageningen : International Society for Horticultural Science;
1992 Mar. Acta horticulturae (304): p. 273-280; 1992 Mar.
Paper presented at the "First International Workshop on
Sensors in Horticulture", January 29-31, 1991,
Noordwijkerhout, The Netherlands. Includes references.
Language: English
Descriptors: Crop production; Greenhouse culture; Nutrient
film techniques; Nutrient solutions; Temperature; Hysteresis;
Monitoring; Sensors; Electrodes
82 NAL Call. No.: FICHE S-72
An experimental chamber for hydroponic culture of Belgian
endive. Whitney, L.F.; Corey, K.A.
St. Joseph, Mich. : The Society; 1988.
American Society of Agricultural Engineers (Microfiche
collection) (fiche no. 88-6061): 11 p. ill; 1988. Paper
presented at the 1988 Summer Meeting of the American Society
of Agricultural Engineers. Available for purchase from: The
American Society of Agricultural Engineers, Order Dept., 2950
Niles Road, St. Joseph, Michigan 49085. Telephone the Order
Dept. at (616) 429-0300 for information and prices. Includes
references.
Language: English
Descriptors: Cichorium endivia; Hydroponics; Growth chambers;
Yield response functions
83 NAL Call. No.: QH545.A1E58
Fate of the explosive hexahydro-1,3,5-trinitro-1,3,5-triazine
(RDX) in soil and bioaccumulation in bush bean hydroponic
plants.
Harvey, S.D.; Fellows, R.J.; Cataldo, D.A.; Bean, R.M.
Elmsford, N.Y. : Pergamon Press; 1991.
Environmental toxicology and chemistry v. 10 (7): p. 845-855;
1991. Includes references.
Language: English
Descriptors: Explosives; Metabolites; Uptake; Phaseolus
vulgaris
84 NAL Call. No.: 381 J8223
Fate of the fungicide furalaxyl in the nutrient solution of
tomato crops by the nutrient film technique.
Rouchaud, J.; Metsue, M.; Benoit, F.; Ceustermans, N.;
Vanachter, A. Washington, D.C. : American Chemical Society;
1989 Mar.
Journal of agricultural and food chemistry 37 (2): p. 492-495;
1989 Mar. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Tomatoes; Furalaxyl;
Nutrient solutions; Nutrient film techniques; Metabolism
85 NAL Call. No.: 80 AC82
Financial results of hydroponic farmings of vegetables in the
central Japan. Kobayashi, K.; Monma, Y.; Keino, S.; Yamada, M.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 337-341; 1988 Sep. In
the series analytic: High Technology in Protected Cultivation
/ edited by T. Kozai. Paper presented at an International
Symposium, May 12-15, 1988, Hamamatsu, Japan. Includes
references.
Language: English
Descriptors: Japan; Vegetables; Hydroponics; Commercial
farming; Greenhouse crops; Farm income; Returns; Capital;
Investment; Farm size; Fixed costs
86 NAL Call. No.: QK867.J67
A flow-through hydroponic system for the study of root
restriction. Peterson, T.A.; Krizek, D.T.
New York, N.Y. : Marcel Dekker; 1992.
Journal of plant nutrition v. 15 (6/7): p. 893-911; 1992.
Paper presented at the "Workshop on Root Distribution, and
Chemistry and Biology of the Root-Soil Interface", January
9-11, 1990, Ithaca, New York. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Roots; Root
systems; Containers; Volume; Growth; Stress; Biomass; Dry
matter accumulation; Growth rate
Abstract: We have developed a flow-through system (FTS) to
study the effects of root restriction stress on plants grown
in hydroponic culture. The system was designed to permit the
use of varied culture container volumes (from 25 to 1500 cm3)
and dimensions (2.5 to 10 cm. dia. and 5 to 20 cm h.). The
modular FTS design is divided into two nutrient delivery
systems, one for large-volume containers and the other for
small-volume containers. Each plant was grown in a modified
Hoagland solution in a separate container. Nutrient solutions
were aerated and the pH was automatically controlled at 6.0 +/-
0.2. This report describes the FTS and presents growth data
for tomato plants (Lycopersicon esculentum Mill., cv. 'Better
Bush') grown for a 57 day period. Our observations, when
compared to the findings of a root restriction study made by
Ruff, et al. 1987 (J. Amer. Soc. Hort. Sci. 112: 763-769),
indicate that that similar characteristics result for the same
tomato cultivar grown in either pot culture (soil) or
hydroponics (FTS). The result of this test of the FTS supports
the continued use of the system to study various physiological
and hormonal parameters in relation to root restriction.
87 NAL Call. No.: SB126.5.S64
Forty years study on Wroclaw hydroponic culture.
Guminska, Z.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (2): p. 33-46. ill; 1987. Literature
review. Includes references.
Language: English
Descriptors: Poland; Hydroponics; Growing media; Techniques;
Nutrient solutions
88 NAL Call. No.: TP360.S68 1985
Gravel bed hydroponics for wastewater renovation and biomass
production. Handley, L.L.; Casey, L.S.; Lopez, J.L.; Sutija,
J.M.; Abdel-Shafy, H.I.; Colley, S.B.
New York : Plenum Press; 1986.
Biomass energy development / edited by Wayne H. Smith. p.
287-302; 1986. Paper presented at the "Third Southern Biomass
Energy Research Conference," March 12-14, 1985, Gainsville,
Florida. Literature review. Includes references.
Language: English
Descriptors: Florida; Brachiaria mutica; Pennisetum purpureum;
Biomass; Waste waters; Hydroponics; Crop production
89 NAL Call. No.: S1.S68
Greenhouse installation for studying plant root systems.
Ermakov, E.I.; Zheltov, Yu.I.
New York, N.Y. : Allerton Press; 1988.
Soviet agricultural sciences (8): p. 52-56. ill; 1988.
Translated from: Vsesoiuznaia akademiia
sel'skokhoziaistvennykh nauk, Doklady, (8), 1988, p. 33-35.
(20 AK1). Includes references.
Language: English
Descriptors: Cucumis sativus; Hybrids; Greenhouses; Nutrient
film techniques; Hydroponics; Protected cultivation;
Temperatures; Ash content; Dry matter; Leaves; Stems; Root
systems
90 NAL Call. No.: 80 P382
Growing geraniums hydroponically.
Holcomb, E.J.; Arteca, R.
Bloomsburg, Pa. : Pennsylvania Flower Growers; 1985.
Pennsylvania flower growers bulletin (361): p. 1-3; 1985.
Language: English
Descriptors: England; Geranium; Hydroponics; Nutrient film
techniques; Greenhouse culture; Ga; Growth rate
91 NAL Call. No.: 80 AC82
Growing lamb's lettuce (Valerianella olitoria L.) on recycled
polyurethane (PUR) hydroponic mats.
Benoit, F.; Ceustermans, N.
Wageningen : International Society for Horticultural Science;
1989 Jun. Acta horticulturae (242): p. 297-304. ill; 1989 Jun.
Paper presented at the "First International Symposium on
Diversification of Vegetable Crops," September 26-30, 1988,
Angers, France. Includes references.
Language: English
Descriptors: Valerianella locusta; Hydroponics; Mats;
Recycling; Polyurethanes; Cultivation; Techniques
92 NAL Call. No.: 80 AC82
Growth analysis of monostem tomato genotype in N.F.T.
Pardossi, A.; Togononi, F.; Frangi, P.; Soressi, G.P.
Wageningen : International Society for Horticultural Science;
1988 Dec. Acta horticulturae (229): p. 361-369. ill; 1988 Dec.
In the series analytic: Biological Aspects of Energy Saving in
Protected Cultivation / edited by F. Tognoni and G. Serra.
Paper presented at a Symposium, September 8-11, 1987, Pisa,
Italy. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient film
techniques; Plant density; Greenhouse cropping; Growth rate;
Plant height; Yield response functions
93 NAL Call. No.: 80 AC82
Growth and development, water absorption and mineral
composition of tomato plants grown with the nutrient film
technique in the East Mediterranean Coast region of Spain.
Noguera, V.; Abad, M.; Pastor, J.J.; Garcia-Codoner, A.C.;
Mora, J.; Armengol, F.
Wageningen : International Society for Horticultural Science;
1988 Apr. Acta horticulturae (221): p. 203-211; 1988 Apr. In
the series analytic: Horticultural substrates and their
analysis / edited by J. Willumsen. Paper presented at the
Symposium, September 5-11, 1987, Gl. Avernaes, Funen, Denmark.
Includes references.
Language: English
Descriptors: Spain; Lycopersicon esculentum; Nutrient film
techniques; Greenhouse experimentation; Growth; Plant
development; Water uptake; Leaf analysis; Nutrients; Dry
matter accumulation
94 NAL Call. No.: SB126.5.S64
Growth control of tomatoes and cucumbers in NFT by means of
rockwool and poly-urethane blocks.
Benoit, F.; Ceustermans, N.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (2): p. 3-9. ill; 1986. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Cucumis sativus;
Nutrient film techniques; Growth; Control; Rockwool;
Polyurethanes; Pots; Drought; Stress conditions; Earliness;
Yields
95 NAL Call. No.: 450 P696
Growth, nitrogen fixation and relative efficiency of
nitrogenase in Alnus incana grown in different cultivation
systems (Hydroponics compared with gravel systems).
Sellstedt, A.; Huss-Danell, K.
The Hague : Martinus Nijhoff; 1984.
Plant and soil v. 78 (1/2): p. 147-158. ill; 1984. Presented
at the "Workshop on Frankia Symbioses," held in Noordwijkhout
and Wageningen, Netherlands, September 1983. Includes
references.
Language: English
96 NAL Call. No.: SB126.5.S64
The growth of greenhouse tomatoes in nutrient film at various
nutriet solution temperatures.
Giacomelli, G.A.; Janes, H.W.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (2): p. 11-20. ill; 1986. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Greenhouse culture;
Nutrient film techniques; Nutrient solutions; Temperatures;
Yields
97 NAL Call. No.: 309.9 N216
The growth of hydroponic lettuce under tomatoes with
supplemental lighting. Grasgreen, I.; Janes, H.; Giacomelli,
G.
Peoria, Ill. : National Agricultural Plastics Association;
1986. Proceedings of the ... National Agricultural Plastics
Congress (19th): p. 193-202. ill; 1986. Includes references.
Language: English
Descriptors: Lettuces; Intercropping; Lycopersicon esculentum;
Illumination; Supplementary light; Crop yield; Hydroponics;
Greenhouses
98 NAL Call. No.: 80 J825
The growth of young tomato fruit. II. Environmental influences
on glasshouse crops grown in rockwool or nutrient film.
Pearce, B.D.; Grange, R.I.; Hardwick, K.
Ashford : Headley Brothers Ltd; 1993 Jan.
The Journal of horticultural science v. 68 (1): p. 13-23; 1993
Jan. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Fruits; Growth rate;
Measurement; Greenhouse crops; Environmental factors; Diurnal
variation; Rockwool; Nutrient film techniques; Transpiration;
Temperature; Salinity
99 NAL Call. No.: 80 H7892
Growth performance of micropropagated plantlets of sweet
potato (Ipomoea batatas (L.) Lam.) established in a nutrient
film technique system. Nelson, R.; Mantell, S.H.
Edinburgh : Scottish Academic Press; 1988 Nov.
Crop research v. 28 (2): p. 145-156. ill; 1988 Nov. Includes
references.
Language: English
Descriptors: Ipomoea batatas; Micropropagation; Plant
establishment; Nutrient film techniques; Cuttings; In vitro;
Culture techniques; Culture media
100 NAL Call. No.: 80 AC82
Growth regulation of plant seedling by ion concentration
management in hydroponic culture.
Nonami, H.; Mohri, K.; Fukuyama, T.; Hashimoto, Y.
Wageningen : International Society for Horticultural Science;
1992 Oct. Acta horticulturae v. 2 (319): p. 477-482; 1992 Oct.
Paper presented at the International Symposium on Transplant
Production Systems--Biological, Engineering and Socioeconomics
Aspects, July 21-26, 1992, Yokohama, Japan. Includes
references.
Language: English
Descriptors: Phaseolus vulgaris; Seedlings; Growth;
Regulation; Hydroponics; Nutrient solutions; Ions;
Concentration
101 NAL Call. No.: 475 J824
High-performance liquid chromatography analysis of carbofuran
residues in tomatoes grown in hydroponics.
Ling, C.F.; Melian, G.P.; Jiminez-Conde, F.; Revilla, E.
Amsterdam : Elsevier Science Publishers; 1993 Jul23.
Journal of chromatography v. 643 (1/2): p. 351-355; 1993
Jul23. Includes references.
Language: English
Descriptors: Tomatoes; Carbofuran; Insecticide residues;
Analysis; Hplc; Hydroponics
102 NAL Call. No.: SB126.5.S64
High-technology glasshouse vegetable growing in Belgium.
Benoit, F.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (1): p. 21-29. ill; 1987. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Lactuca sativa; Cucumis
sativus; Fragaria ananassa; Hydroponics; Nutrient film
techniques; Greenhouse crops; Varieties; Nutrient solutions;
Rockwool; Polyurethane foams; Substrates
103 NAL Call. No.: SB126.5.J66 1990
Home hydroponics ... and how to do it!., Rev. and updated..
Jones, J. L.; Beardsley, Paul; Beardsley, Cay
New York : Crown Publishers,; 1990.
xiii, 142 p. : ill. ; 23 cm. Includes bibliographical
references.
Language: English
Descriptors: Hydroponics
104 NAL Call. No.: SB52.S65S5 No.3
The hydroponic cultivation of vegetables and ornamentals.
Chua, S. E.
Singapore Director of Primary Production, Ministry of National
Development; 1975.
16 p. : ill. (some col., 2 fold in pocket). (Singapore. Dept.
of Primary Production. Agriculture handbook ; no. 3).
Bibliography: p. 14.
Language: ENGLISH
105 NAL Call. No.: SB1.H6
Hydroponic culture, grafting, and growth regulators to
increase flowering in sweet potato.
Lardizabal, R.D.; Thompson, P.G.
Alexandria, Va. : American Society for Horticultural Science;
1988 Dec. HortScience v. 23 (6): p. 993-995; 1988 Dec.
Includes references.
Language: English
Descriptors: Ipomoea batatas; Cultivars; Hydroponics; Growing
media; Grafting; Growth regulators; Flowering
106 NAL Call. No.: 64.8 C883
Hydroponic culture of grass plants for physiological
experiments (Poa pratensis).
Howard, H.F.; Watchke, T.L.
Madison, Wis. : Crop Science Society of America; Sept/Oct
1984. Crop science v. 24 (5): p. 991-992. ill; Sept/Oct 1984.
Includes 1 references.
Language: English
107 NAL Call. No.: 80 AC82
Hydroponic culture of strawberries in plastic greenhouse in a
vertical system. Linardakis, D.K.; Manios, V.I.
Wageningen : International Society for Horticultural Science;
1991 May. Acta horticulturae (287): p. 317-326; 1991 May.
Paper presented at the "Second International Symposium on
Protected Cultivation of Vegetables in Mild Winter Climates,"
October 29-November 13, 1989, Crete, Greece. Includes
references.
Language: English
Descriptors: Greece; Fragaria ananassa; Hydroponics;
Greenhouse culture; Substrates
Abstract: During the 1987-1988 and 1988-89 growing season an
experiment was conducted in a cold plastic greenhouse of our
Institute aiming to evaluate five substrates in two vertical
systems with respect to their suitability for growing
strawberries. The following substrates were evaluated: a.
perlite 100%, b. perlite 90% + peat 10%, c. perlite 80% + peat
20%, d. pumice-stone 80% + peat 20%, e. pumice-stone 80% +
perlite 20%. They were placed either in polyethylene tubes,
1.70 m height and 0.15 m diameter in a vartical position, or
in pots of polystyrene placed one above the other in a column
1.70 m in height. In both cases, 36 plants of the strawberry
cultivar Brighton were planted in each column in August. A
system for recycling the nutrient solution was applied. Yield
was collected from December until June. About 65% of the yield
was taken until the end of April. Data obtained indicate that
strawberries grown on substrate composed of perlite 80% + peat
20% produced higher yield (250 gr/plant) than those gorwn on
the other substrates. There was no difference between
polystyrene pots and polyethylene tubes with respect to yield.
108 NAL Call. No.: 450 C16
Hydroponic culture of wild rice (Zizania palustris L.) and its
application to studies of silicon nutrition and fungal brown
spot disease. Malvick, D.K.; Percich, J.A.
Ottawa : Agricultural Institute of Canada, 1957-; 1993 Oct.
Canadian journal of plant science v. 73 (4): p. 969-975; 1993
Oct. Includes references.
Language: English
Descriptors: Minnesota; Cabt; Zizania palustris; Crop
production; Hydroponics; Plant nutrition; Silicon; Nutrient
requirements; Growth; Plant pathogenic fungi; Bipolaris;
Pathogenicity; Disease resistance; Environmental factors;
Nutrient solutions
109 NAL Call. No.: SB126.5.R47
Hydroponic food production.
Resh, Howard M.
Santa Barbara Woodbridge Press; 1978.
287 p. : ill. Bibliography: p. 262-276.
Language: ENGLISH
Descriptors: Hydroponics; Food crops
110 NAL Call. No.: SB126.5.R47 1988
Hydroponic food production a definitive guidebook of soilless
food growing methods., 4th ed..
Resh, Howard M.
Santa Barbara, Calif. : Woodbridge Press Pub. Co.,; 1988. 462
p. : ill. ; 24 cm. For the professional and commercial grower
and the advanced home hydroponics gardener. Includes
bibliographical references.
Language: English
Descriptors: Hydroponics; Food crops
111 NAL Call. No.: SB126.5.R47 1985
Hydroponic food production a definitive guidebook of soilless
food growing methods : for the professional and commercial
grower and the advanced home hydroponics gardener., 3rd ed.
Resh, Howard M.
Santa Barbara, Calif. : Woodbridge Press,; 1985.
384 p. : ill. ; 24 cm. Includes index. Bibliography: p.
361-375.
Language: English
Descriptors: Hydroponics; Food crops
112 NAL Call. No.: SB126.57.A8C37 1993
Hydroponic gardening.
Carruthers, Steven
Port Melbourne, Vic. : Lothian,; 1993.
64 p., [8] p. of plates : ill. (some col.) ; 28 cm. (Lothian
Australian garden series). Includes bibliographical
references (p. 63) and index.
Language: English
Descriptors: Hydroponics; Gardening
113 NAL Call. No.: SB126.5.B74 1989
Hydroponic gardening the "magic" of modern hydroponics for the
home gardener., New ed..
Bridwell, Raymond
Santa Barbara, Calif. : Woodbridge Press Pub. Co.,; 1989. 216
p. : ill. ; 23 cm. Cover subtitle: How to grow vital,
healthful food without soil and insect problems, in
nutritionally balanced solutions.
Language: English
Descriptors: Hydroponics
114 NAL Call. No.: 451 B78
Hydroponic growing in bromeliads.
Sasse, K.
Orlando, Fla. : The Society; 1986 Mar.
Journal of the Bromeliad Society v. 36 (2): p. 62-65, 84-86
(continued); 1986 Mar.
Language: English
Descriptors: Bromeliaceae; Hydroponics; Methodology
115 NAL Call. No.: 451 B78
Hydroponic growing of bromeliads.
Sasse, K.
Orlando, Fla. : The Society; 1986 May.
Journal of the Bromeliad Society v. 36 (3): p. 124-135; 1986
May. Includes references.
Language: English
Descriptors: Bromeliaceae; Hydroponics; Propagation; Seed
production; Plant pests; Plant diseases
116 NAL Call. No.: SB403.P53
Hydroponic growing (Soiless gardening).
Creaser, G.
Wallingford, Conn., Hobby Greenhouse Association; Mar/Apr
1978. The Planter v. 3 (5): p. 13. ill; Mar/Apr 1978.
Language: ENGLISH
117 NAL Call. No.: 309.9 N216
Hydroponic growing systems.
Schippers, P.A.
Peoria, Ill. : National Agricultural Plastics Association;
1986. Proceedings of the ... National Agricultural Plastics
Congress (19th): p. 121-133; 1986. Includes references.
Language: English
Descriptors: Hydroponics; Greenhouses; Plastic film; Nutrient
solutions
118 NAL Call. No.: SB126.5.R48 1990
Hydroponic home food gardens.
Resh, Howard M.
Santa Barbara, CA : Woodbridge Press,; 1990.
159 p. : ill. ; 23 cm. Includes bibliographical references
(p. 158-159).
Language: English
Descriptors: Hydroponics; Food crops
119 NAL Call. No.: SB352.D43 1992
The hydroponic hot house low-cost, high-yield greenhouse
gardening. DeKorne, James B.,; DeKorne, James B.,
Port Townsend, Wash. : Loompanics Unlimited,; 1992.
178 p. : ill. ; 22 cm. Rev. ed. of: The survival greenhouse.
c1975. Includes bibliographical references and index.
Language: English
Descriptors: Vegetable gardening; Greenhouse gardening;
Greenhouses; Hydroponics; Fish-culture
120 NAL Call. No.: S183.V5V54
Hydroponic lettuce production in a recirculating fish culture
system. Rakocy, J.E.
St. Croix, U.S. Virgin Islands : Univ. of the Virgin Islands,
Agric. Exp. Stn; 1988-1989.
Island perspectives v. 3: p. 4-10; 1988-1989.
Language: English
Descriptors: United states virgin Islands; Lactuca sativa;
Tilapia; Hydroponics; Fish culture; Integrated systems
121 NAL Call. No.: SB1.H6
Hydroponic production of cut chrysanthemums: a commercial
trial. Hicklenton, P.R.; Blatt, C.R.; O'Regan, R.J.
Alexandria, Va. : American Society for Horticultural Science;
1987 Apr. HortScience v. 22 (2): p. 287-289; 1987 Apr.
Includes references.
Language: English
Descriptors: Chrysanthemum; Hydroponics; Greenhouses;
Commercial farming; Cut flowers; Production economics
122 NAL Call. No.: S395.T42 no.158
The hydroponic production of gerberas for cut flowers.
Hanger, Brian C.
Melbourne, Vic.? : Dept. of Agriculture and Rural Affairs,;
1988. 21 leaves ; 30 cm. (Technical report series / Department
of Agriculture and Rural Affairs, no. 158). October, 1988.
Agdex 280/028. Cover title.
Language: English
123 NAL Call. No.: 80 AC82
Hydroponic production of glasshouse tomatoes in Sardinian
plaster-grade perlite.
Hitchon, G.M.; Hall, D.A.; Szmidt, R.A.K.
Wageningen : International Society for Horticultural Science;
1991 May. Acta horticulturae (287): p. 261-266; 1991 May.
Paper presented at the "Second International Symposium on
Protected Cultivation of Vegetables in mild winter climates"
October 29-November 13, 1989, Crete, Greece. Includes
references.
Language: English
Descriptors: Scotland; Lycopersicon esculentum; Hydroponics;
Perlite
Abstract: The development of the hydroponic perlite culture
system of protected crop production at the West of Scotland
College has been based, hitherto, or coarse, 'horticultural-
grade' expanded perlite which has 90% by volume in the range
1-5 mm. Recent work has compared crop performance of
glasshouse tomatoes in horticultural-grade perlite with that
in two Sardinian plaster-grades which have much finer
particle-size distributions, one with 90% by volume in the
range 0.6-1.4 mm, the other 90% volume <1 mm. Cumulative
yields of fruit were similar in each of the three grades of
perlite to the end of Ausust in 1987 and to the end of
September in 1988. Hence, although the air-filled porosity of
the Sardinian plaster-grade perlite was lower than either the
medium or horticultural-grade material, oxygen availability at
the root surface did not limit root function.
124 NAL Call. No.: SB126.5.S64
Hydroponic production of vegetables in Malaysia using the
nutrient film technique.
Lim, E.S.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (2): p. 29-39. ill; 1986. Includes
references.
Language: English
Descriptors: Malaysia; Vegetables; Hydroponics; Nutrient film
techniques; Troughs; Yields; Costs
125 NAL Call. No.: SB321.G85
Hydroponic strawberry systems.
Gauthier, N.L.
Storrs, Conn. : Coop. Ext. Serv., USDA, College of Agriculture
& Natural Resources, Univ. of Conn; 1993 Jan.
The Grower : vegetable and small fruit newsletter v. 93 (1):
p. 6; 1993 Jan.
Language: English
Descriptors: Fragaria; Hydroponics
126 NAL Call. No.: 290.9 AM32T
A hydroponic system for microgravity plant experiments.
Wright, B.D.; Bausch, W.C.; Knott, W.M.
St. Joseph, Mich. : American Society of Agricultural
Engineers; 1988 Mar. Transactions of the ASAE v. 31 (2): p.
440-446. ill; 1988 Mar. Includes references.
Language: English
Descriptors: Hydroponics; Weightlessness; Space flight;
Experiments; Plant physiology
127 NAL Call. No.: 80 AC82
A hydroponic system for raisinig spinach seedlings.
Narimatsu, J.; Fujishito, T.; Kawata, T.; Tsuchiya, K.
Wageningen : International Society for Horticultural Science;
1992 Oct. Acta horticulturae v. 2 (319): p. 493-498; 1992 Oct.
Paper presented at the International Symposium on Transplant
Production Systems--Biological, Engineering and Socioeconomics
Aspects, July 21-26, 1992, Yokohama, Japan. Includes
references.
Language: English
Descriptors: Spinacia oleracea; Seedlings; Hydroponics;
Technology
128 NAL Call. No.: 80 AC82
Hydroponic systems for winter vegetables.
Adams, P.
Wageningen : International Society for Horticultural Science;
1991 May. Acta horticulturae (287): p. 181-189; 1991 May.
Paper presented at the "Second International Symposium on
Protected Cultivation of Vegetables in Mild Winter Climates,"
October 29-November 3, 1989, Crete, Greece. Includes
references.
Language: English
Descriptors: Cucumis sativus; Capsicum annuum; Solanum
melongena; Lactuca sativa; Hydroponics
Abstract: Three hydroponic systems, namely rockwool, perlite
and NFT, are described. Factors affecting growth such as root
temperature, water quality and aeration are discussed,
together with management problems including sterilization
between crops. Current sensitivity about environmental
pollution is likely to cause some reduction in the use of
systems that discharge nutrient solutions containing
appreciable amounts of nitrate-nitrogen to waste.
129 NAL Call. No.: 81 SO12
Hydroponic tomato yield affected by chlormequat chloride,
seeding time, and transplant maturity.
Adler, P.R.; Wilcox, G.E.
Alexandria, Va. : The Society; 1987 Mar.
Journal of the American Society for Horticultural Science v.
112 (3): p. 198-201; 1987 Mar. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Transplants;
Hydroponics; Early maturation; Growth; Yield increases;
Chlormequat
130 NAL Call. No.: SB349.R35 1993
Hydroponic tomatoes for the home gardener.
Resh, Howard M.
Santa Barbara, Calif. : Woodbridge Press,; 1993.
142 p. : ill. ; 23 cm. Includes bibliographical references
(p. 141-142).
Language: English
Descriptors: Tomatoes; Hydroponics
131 NAL Call. No.: SB317.5.H6
Hydroponic vegetable production.
Jensen, M.H.; Collins, W.L.
Westport, Conn. : Avi; 1985.
Horticultural reviews v. 7: p. 483-558. ill; 1985. Literature
review. Includes references.
Language: English
Descriptors: Vegetables; Hydroponics; Systems; Disease
control; Insect control; Structures
132 NAL Call. No.: aZ5073.A37
Hydroponics.
Kopolow, C.
Beltsville, Md. : NAL; 1991 Jul.
Agri-topics - National Agricultural Library (91-02): 8 p.;
1991 Jul. Bibliography. Includes references.
Language: English
Descriptors: Hydroponics; Bibliographies
133 NAL Call. No.: S1.A375
Hydroponics.
Mohyuddin, M.
Ottawa : Agrican Publishers, Inc; 1987.
Agrologist v. 16 (1): p. 10-11. ill; 1987.
Language: English
Descriptors: Canada; Hydroponics; Surveys; Cultural methods;
Trends; Greenhouse culture
134 NAL Call. No.: Videocassette no.1216
Hydroponics an introduction to soilless agriculture.
American Association for Vocational Instructional Materials
Athens, GA : American Association for Vocational Instructional
Materials,; 1990.
1 videocassette (30 min.) : sd., col. ; 1/2 in.
Language: English
Descriptors: Hydroponics; Plants
Abstract: Provides a general overview of today's booming
growth and current status of hydroponics. Also discusses
starting hydroponics ventures, types of crops currently being
produced, and future growing methods.
135 NAL Call. No.: TP963.A1F4
Hydroponics and nutrient film culture.
Richardson, S.
New York, N.Y. : Marcel Dekker; 1991.
Fertilizer science and technology series v. 7: p. 353-374;
1991. In the series analytic: Fluid fertilizer science and
technology / edited by D.A. Palgrave. Includes references.
Language: English
Descriptors: Nutrient film techniques; Hydroponics; Nutrient
solutions; Nutrient excesses; Nutrient deficiencies;
Phytotoxicity; Crop quality; Crop damage; Crop yield; Water
quality; Nutrient content; Monitoring; Ph; Electrical
conductivity; Iron; Phosphates; Potassium; Calcium; Magnesium;
Zinc; Manganese; Copper; Boron; Molybdenum
136 NAL Call. No.: 275.29 Il62c no.844
Hydroponics as a hobby growing plants without soil.. Growing
plants without soil
Butler, J. D.; Oebker, N. F.
University of Illinois, Extension Service in Agriculture and
Home Economics Urbana, Ill. : University of Illinois, College
of Agriculture, Extension Service in Agriculture and Home
Economics,; 1962.
16 p. : ill. ; 23 cm. (Circular / University of Illinois,
College of Agriculture, Extension Service in Agriculture and
Home Economics ; 844). Cover title. Prepared by J.D. Butler,
and N.F. Oebker. February, 1962. Bibliography: p. 16.
Language: English
Descriptors: Hydroponics
137 NAL Call. No.: 275.29 M58B
Hydroponics at home.
Philipsen, D.J.; Taylor, J.L.; Widders, I.E.
East Lansing, Mich. : The Service; 1985 Sep.
Extension bulletin E - Cooperative Extension Service, Michigan
State University (1853): 7 p. ill; 1985 Sep. Includes
references.
Language: English
Descriptors: Hydroponics; Vegetables
138 NAL Call. No.: S1.A375
Hydroponics at work.
Fox, J.P.
Ottawa : Agrican Publishers, Inc; 1987.
Agrologist v. 16 (1): p. 12-14. ill; 1987.
Language: English
Descriptors: Ontario; Hydroponics; Greenhouse culture;
Technical progress; Rockwool; Cultural methods; Computer
applications
139 NAL Call. No.: SB126.5.S97
Hydroponics for everyone a practical guide to gardening in the
21st century. Sutherland, Struan K.
South Yarra, Melbourne, Victoria : Hyland House,; 1986.
xvi, 104 p., 20 p. of plates : ill. (some col.) ; 26 cm.
Includes index. Bibliography: p. [101].
Language: English; English
Descriptors: Hydroponics
140 NAL Call. No.: SB126.5.K35 1992
Hydroponics for the home gardener., Completely rev. &
updated.. Kenyon, Stewart,
Toronto : Key Porter Books,; 1992.
xi, 146 p. : ill. ; 23 cm. Includes bibliographical
references and index.
Language: English
Descriptors: Hydroponics
141 NAL Call. No.: 275.8 AG8
Hydroponics on a budget.
Carpentier, D.R.
Henry, Ill. : The Magazine; 1991 Jan.
The Agricultural education magazine v. 63 (7): p. 15-16, 23.
ill; 1991 Jan. Includes references.
Language: English
Descriptors: Agricultural education; Hydroponics
142 NAL Call. No.: SB126.5.H37 1988
Hydroponics the complete guide to gardening without soil : a
practical handbook for beginners, hobbyists and commercial
growers. Harris, Dudley
London : New Holland Publishers,; 1988.
232 p. : ill. (some col.) ; 23 cm. Includes index.
Bibliography: p. 224-227.
Language: English
Descriptors: Hydroponics
143 NAL Call. No.: SB126.5.H94
Hydroponics worldwide state of the art in soilless crop
production. Savage, Adam J.
International Center for Special Studies
Conference on Hydroponics Worldwide 1985 : Honolulu, Hawaii.
Honolulu, Hawaii, USA : International Center for Special
Studies,; 1985. 194 p. : ill. ; 28 cm. "Conference on
Hydroponics Worldwide ... Honolulu, February 18 to 22, 1985."-
-P.2. Includes bibliographies.
Language: English
Descriptors: Hydroponics; Congresses
144 NAL Call. No.: aZ5071.N3
Hydroponics--nutrient film technique, 1981-1986.
Gilbert, H.
Beltsville, Md. : The Library; 1987 Apr.
Quick bibliography series - National Agricultural Library
(U.S.). (87-36).: 19 p.; 1987 Apr. Updates QB 86-22. AGL.
Bibliography.
Language: English
Descriptors: Hydroponics; Nutrient film techniques
145 NAL Call. No.: aZ5071.N3
Hydroponics--nutrient film technique--January 1983-December
1991. Gilbert, H.
Beltsville, Md. : The Library; 1992 Apr.
Quick bibliography series - U.S. Department of Agriculture,
National Agricultural Library (U.S.). (92-43): 56 p.; 1992
Apr. Updates QB 90-77. Bibliography.
Language: English
Descriptors: Hydroponics; Nutrient film techniques; Nutrient
solutions; Bibliographies
146 NAL Call. No.: 275.8 AG8
Hydroponics--spaceage agriculture.
Handwerker, T.S.; Neufville, M.
Henry, Ill. : The Magazine; 1989 Mar.
The Agricultural education magazine v. 61 (9): p. 12-13. ill;
1989 Mar.
Language: English
Descriptors: Maryland; Agricultural education; Vocational
training; Hydroponics; Teaching materials; Teaching methods
147 NAL Call. No.: 80 AC82
Identification and control of hydroponic system ion sensors.
Hashimoto, Y.; Morimoto, T.; Fukuyama, T.; Watake, H.;
Yamaguchi, S.; Kikuchi, H.
Wageningen : International Society for Horticultural Science;
1989. Acta horticulturae v. 245: p. 490-497. ill; 1989. Paper
presented at the "Symposium on Engineering and Economic
Aspects of Energy Saving in Protected Cultivation," September
4-8, 1988, Cambridge, United Kingdom. Includes references.
Language: English
Descriptors: Greenhouses; Hydroponics; Nutrient solutions;
Nutrient uptake; Diurnal variation; Developmental stages;
Cucumis melo; Ion uptake; Sensors; Computers; Control;
Algorithms
148 NAL Call. No.: 450 P5622
Immunodetection of artemisinin in Artemisia annua cultivated
in hydroponic conditions.
Jaziri, M.; Diallo, B.; Vanhaelen, M.; Homes, J.; Yoshimatsu,
K.; Shimomura, K.
Oxford ; New York : Pergamon Press, 1961-; 1993 Jul.
Phytochemistry v. 33 (4): p. 821-826; 1993 Jul. Includes
references.
Language: English
Descriptors: Artemisia annua; Medicinal plants; Plant
composition; Molecular conformation; Sesquiterpenes; Lactones;
Biosynthesis; Biochemical pathways; Immunoassay; Hydroponics
Abstract: A highly specific and sensitive ELISA method was
developed for the detection and semi-quantitative
determination of artemisinin and its structurally related
compounds in crude extracts of Artemisia annua. The antibodies
were raised in rabbits using a 10-succinyldihydroartemisinin-
BSA conjugate as immunogen. The peroxide linkage in the
artemisinin molecule was critical in determining the antibody
specificity. The working range of the assay was from 0.02 to
10 ng per assay. The cross-reacting material in crude plant
extracts was evaluated by chromatographic methods combined
with the immunoassay method. The distribution of artemisinin
equivalents in five-week-old A. annua plants cultivated in
hydroponic conditions was investigated. The highest
artemisinin equivalent content (1.12% dry wt) was found in the
leaves of the upper parts of the plant.
149 NAL Call. No.: 450 J8224
An improved method involving hydroponic culture for the
production of sexual hybrids between dihaploid Solanum
tuberosum and diploid S. microdontum. Ward, A.C.W.; Davey,
M.R.; Power, J.B.; Cooper-Bland, S.; Powell, W. Oxford :
Oxford University Press; 1992 Oct.
Journal of experimental botany v. 43 (255): p. 1333-1338; 1992
Oct. Includes references.
Language: English
Descriptors: Solanum tuberosum; Solanum microdontum;
Interspecific hybridization; Hybrids; Tissue culture;
Diploidy; Haploidy; Hydroponics; Stems; Leaves; Explants;
Regenerative ability; Ploidy; Hybridization
Abstract: Dihaploid Solanum tuberosum and diploid S.
microdontum plants were grown in soil and hydroponics under
glasshouse and growth room conditions. A high light intensity,
was necessary for flower induction in both species and the
dihaploid flowered only when grown in hydroponics. Premature
berry abscission was retarded by tuber removal and prevented
by the addition of indole acetic acid to the nutrient
solution. Seeds from prematurely abscised berries germinated
poorly in soil, but germinated almost as well as those seeds
from indole acetic acid-treated plants when placed on
Murashige and Skoog (1962) based culture medium. The hybrid
plants were intermediate in morphology, compared to the
parents, possessed heterotic vigour and were male fertile.
Germinating hybrid seeds on a colchicine-containing medium led
to poorly growing plants with ploidy chimeras. Hybrid plant
ploidy levels were doubled by regenerating plants from
stem/leaf explants on the tuber disc regeneration medium of
Jarret et al. (1980).
150 NAL Call. No.: 81 SO12
Increasing returns from roses with root-zone warming.
Moss, G.I.; Dalgleish, R.
Alexandria, Va. : The Society; 1984 Nov.
Journal of the American Society for Horticultural Science v.
109 (6): p. 893-898; 1984 Nov. Includes 11 references.
Language: English
Descriptors: New South Wales; Rosa multiflora; Root zone
temperature; Heat; Nutrient film techniques; Cut flowers;
Yields; Greenhouses; Energy requirements; Stem elongation
151 NAL Call. No.: SB599.C35
Indications of cross-protection against fusarium crown and
root rot of tomato. Louter, J.H.; Edgington, L.V.
Guelph, Ont. : Canadian Phytopathological Society; 1990 Sep.
Canadian journal of plant pathology; Revue Canadienne de
phytopathologie v. 12 (3): p. 283-288; 1990 Sep. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Root rots; Crown;
Fusarium oxysporum f.sp. lycopersici; Plant disease control;
Biological control; Strains; Fusarium oxysporum; Fusarium
solani; Fusarium solani f.sp. phaseoli; Fusarium oxysporum
f.sp. pisi; Rhizoctonia; Biological control agents; Virulence;
Inoculum; Plant protection; Air temperature; Infections;
Incidence; Hydroponics; Nutrient film techniques; Seedlings;
Crop yield; Fruits
152 NAL Call. No.: S1.S68
Influence of ammonium polyphosphate on phosphorus metabolism
in barley leaves in hydroponic culture.
Surgucheva, M.P.; Popazova, A.D.; Kaptsynel, YU.M.
New York, Allerton Press; 1978.
Soviet agriculture sciences (6): p. 18-20. ill; 1978. 9 ref.
Language: ENGLISH; RUSSIAN
153 NAL Call. No.: SB126.5.S64
The influence of bicarbonate enrichment and aeration on
dissolved carbon dioxide and oxygen in NFT nutrient solutions
used for lettuce production. Wees, D.; Stewart, K.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (1): p. 51-62. ill; 1987. Includes
references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Nutrient film
techniques; Nutrient solutions; Bicarbonates; Enrichment;
Aeration; Growth; Temperature; Carbon dioxide; Oxygen;
Concentration
154 NAL Call. No.: SB126.5.S64
Influence of electric conductivity and intermittent flow of
the nutrient solution on growth and yield of greenhouse tomato
in NFT. Charbonneau, J.; Gosselin, A.; Trudel, M.J.
Wageningen : International Society for Soilless Culture; 1988.
Soilless culture v. 4 (1): p. 19-30. ill; 1988. Includes
references.
Language: English
Descriptors: Nutrient film techniques; Nutrient solutions;
Electrical conductivity; Transient flow; Lycopersicon
esculentum; Growth; Crop yield
155 NAL Call. No.: SB1.H6
Influence of four cultural systems upon geranium stock plant
productivity. Vetanovetz, R.P.; Peterson, J.C.
Alexandria, Va. : American Society for Horticultural Science;
1985 Aug. HortScience v. 20 (4): p. 703-705; 1985 Aug.
Includes 15 references.
Language: English
Descriptors: Pelargonium; Supplementary light; Nutrient film
techniques; Plant propagation
156 NAL Call. No.: QK475.T74
Influence of hydroponic culture method on morphology and
hydraulic conductivity of roots of honey locust.
Graves, W.R.
Victoria, B.C. : Heron Publishing; 1992 Sep.
Tree physiology v. 11 (2): p. 205-211; 1992 Sep. Includes
references.
Language: English
Descriptors: Gleditsia triacanthos; Roots; Plant morphology;
Root hydraulic conductivity; Hydroponics; Root systems; Length
Abstract: The morphology and hydraulic conductivity of root
systems of Gleditsia triacanthos L. var. inermis Willd. (honey
locust) grown hydroponically in sand and solution cultures
were compared. Total root system length was similar in the two
cultures. However, root systems grown in solution had longer
primary roots, fewer lateral roots and root hairs, and a
greater distance between the tip of the primary root and the
junction of the youngest secondary root and the primary root
than root systems grown in sand. Hydraulic conductivities of
root systems grown hydroponically for 21 or 35 days in sand or
solution culture were similar. These findings show that
different methods of hydroponic culture can affect root
morphology without altering root resistance to water
transport.
157 NAL Call. No.: QH540.I56
Influence of leaf leachate from Eucalyptus globulus Labill and
Aesculus indica Colebr. on the growth of Vigna radiata (beans)
(L) Wilczek and Lolium perenne L. (hydroponics).
Saxena (Nee' Sinha), S.; Singh, J.S.
Ludhiana, Indian Ecological Society; July 1978.
Indian journal of ecology v. 5 (2): p. 148-158. ill; July
1978. 12 ref.
Language: ENGLISH
158 NAL Call. No.: 81 SO12
Influence of light- and dark-period air temperatures and root
temperature on growth of lettuce in nutrient flow systems.
Hicklenton, P.R.; Wolynetz, M.S.
Alexandria, Va. : The Society; 1987 Nov.
Journal of the American Society for Horticultural Science v.
112 (6): p. 932-935; 1987 Nov. Includes references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Growth; Nutrient
film techniques; Growth chambers; Air temperature
159 NAL Call. No.: SB13.A27
The influence of nutrient solution concentration on growth,
mineral uptake and yield of tomato plants grown in N.F.T.
Pardossi, A.; Tognoni, F.; Bertero, G.
Firenze, Italy : Department of Horticulture, University of
Florence; 1987. Advances in horticultural science v. 1 (2): p.
55-60; 1987. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Blossom end rot;
Nutrient film techniques; Nutrient solutions; Salinity;
Nutrient removal by plants; Growth rate; Fruit; Set; Crop
quality; Air temperature; Relative humidity; Roots; Mortality
160 NAL Call. No.: QK867.J67
Influence of nutrient solution pH on the uptake of plant
nutrients and growth of Chrysanthemum morifolium 'Bright
Golden Anne' in hydroponic culture. Siraj-Ali, M.S.; Peterson,
J.C.; Tayama, H.K.
New York, N.Y. : Marcel Dekker; 1987.
Journal of plant nutrition v. 10 (9/16): p. 2161-2168; 1987.
Paper presented at the "Tenth International Plant Nutrition
Colloquium," August 4-9, 1986, Beltsville, Maryland. Includes
references.
Language: English
Descriptors: Chrysanthemum; Plant nutrition; Hydroponics;
Nutrient solutions; Ph; Nutrient uptake; Growth; Crop quality
161 NAL Call. No.: 80 AC82
Influence of propagation medium on the growth of spray
chrysanthemum in hydroponics.
Morgan, J.V.; Moustafa, A.T.
Wageningen : International Society for Horticultural Science;
1989 Sep. Acta horticulturae (238): p. 99-107; 1989 Sep.
Paper presented at the "Symposium on Substrates in
Horticulture other than Soils in Situ," September 12-16, 1988,
Dublin, Ireland. Includes references.
Language: English
Descriptors: Chrysanthemum; Cuttings; Rooting; Hydroponics;
Growing media; Nutrient film techniques; Growth; Responses
162 NAL Call. No.: 80 AC82
The influence of solution heating and intermittent solution
circulation on tomatoes in nutrient film culture.
Economakis, C.D.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 81-87; 1993 Feb. Paper
presented at the "Symposium on Soil and Soilless Media Under
Protected Cultivation in Mild Winter Climates," March 1-6,
1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Greece; Lycopersicon esculentum; Nutrient film
techniques; Greenhouse culture; Nutrient solutions; Heating;
Growth; Earliness; Crop yield; Solutions; Circulation
163 NAL Call. No.: 80 AM371
Innovations in greenhouse growing challenge conventional
methods (Hydroponics, aeroponics, nutrient film technique,
ornamental plants, growing more and better plants in less
space and at lower costs).
Buley, N.
Chicago : American Nurseryman Publishing Co; Jan 1, 1984.
American nurseryman v. 159 (1): p. 95-99. ill; Jan 1, 1984.
Includes references.
Language: English
164 NAL Call. No.: S183.V5V54
Integrating fish culture and vegetable hydroponics: problems
and prospects. Rakocy, J.E.; Nair, A.
St. Croix, U.S. Virgin Islands : Univ. of the Virgin Islands,
Agric. Exp. Stn; 1987.
Virgin Islands perspective v. 2 (1): p. 19-23; 1987.
Language: English
Descriptors: United states virgin Islands; Fish culture;
Hydroponics; Nutrient solutions
165 NAL Call. No.: QK600.B72
Interaction of host stress and pathogen ecology on
Phytophthora infection and symptom expression in nutrient
film-grown tomatoes.
Holderness, M.; Pegg, G.F.
Cambridge : Cambridge University Press; 1986.
Symposium series - British Mycological Society (11): p.
189-205; 1986. Paper presented at the "Symposium on Water,
Fungi and Plants," April, 1985, Lancaster, England.
Literature review. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Phytophthora;
Infectivity; Pathogenesis; Symptoms; Nutrient film techniques;
Literature reviews
166 NAL Call. No.: QK710.P55
Interactions of Cd with Zn, Cu, Mn and Fe for lettuce,
(Lactuca sativa L.) in hydroponic culture.
Thys, C.; Vanthomme, P.; Schrevens, E.; Proft, M. De
Oxford : Blackwell Scientific Publications; 1991 Sep.
Plant, cell and environment v. 14 (7): p. 713-717; 1991 Sep.
Includes references.
Language: English
Descriptors: Lactuca sativa; Cadmium; Ion uptake; Ion
transport; Interactions; Nutrient uptake; Nutrient transport;
Zinc; Copper; Manganese; Iron; Mineral content; Leaves;
Hydroponics
167 NAL Call. No.: 80 AC82
Intermittent circulation for earlier tomato yield under
nutrient film technique (NFT).
El-Behairy, U.A.; Abou-Hadid, A.F.; El-Beltagy, A.S.; Burrage,
S.W. Wageningen : International Society for Horticultural
Science; 1991 May. Acta horticulturae (287): p. 267-272; 1991
May. Paper presented at the "Second International Symposium
on Protected Cultivation of Vegetables in mild winter
climates" October 29-November 13, 1989, Crete, Greece.
Includes references.
Language: English
Descriptors: England; Lycopersicon esculentum; Nutrient film
techniques; Yield response functions
Abstract: It is possible to restrict the vegetative growth of
early protected tomato crops, growing in the nutrient film
technique (NFT) water culture, by supplying the nutrient
solution intermittently instead of continuous flow.
Intermittent flow regime given up to anthesis of the fourth
truss, increased early yield but did not increase the final
total yield. There was a highly significant decrease in root
fresh weight. Also, a reduction in all intermittent treatment
of water consumption 22%, was noticed under the intermittent
flow. The water use efficiency calculated on the basis of
fresh and dry weights increased under intermittent treatments.
168 NAL Call. No.: 64.8 C883
Irradiance and nitrogen to potassium ratio influences
sweetpotato yield in nutrient film technique.
Mortley, D.G.; Bonsi, C.K.; Hill, W.A.; Loretan, P.A.; Morris,
C.E. Madison, Wis. : Crop Science Society of America, 1961-;
1993 Jul. Crop science v. 33 (4): p. 782-784; 1993 Jul.
Includes references.
Language: English
Descriptors: Ipomoea batatas; Nutrient film techniques; Light
relations; Photosynthesis; Light intensity; Light regime;
Nitrogen fertilizers; Potassium fertilizers; Ratios;
Application rates; Crop yield; Roots
Abstract: Sweetpotato [Ipomoea batatas (L.) Lam] is being
grown with the nutrient film technique as part of the National
Aeronautics and Space Administration's Controlled Ecological
Life Support System (CELSS) program for long-termed manned
space missions. Our objective was to evaluate the effects of
two levels of photosynthetic photon flux (480 and 960
micromoles m(-2)s(-1) PPF) and three N/K ratios (1:1.1, 1:2.4,
and 1:3.6) on yield of sweetpotato when grown using this
technique. Vine cuttings (15-cm length) of 'Georgia Jet' and
T1-155 were grown in each treatment for 90 or 120 d,
respectively, in controlled-environment growth chambers.
Storage root growth for Georgia Jet and T1-155 increased with
light intensity, while foliage growth decreased with high K
levels. The number of storage roots produced by each plant
increased with intensity only for Georgia Jet but was not
significantly influenced by higher K levels for either
cultivar. Light by N/K interactions were not significant. The
level of PPF exerted a greater effect in enhancing sweetpotato
storage root yield in nutrient film than did N/K ratio.
169 NAL Call. No.: 80 C733
Is hydroponics the answer? (Vegetables, greenhouse culture,
costs). Willoughby, Oh. Meister Publishing Co; Nov 1978.
American vegetable grower and greenhouse grower v. 26 (11): p.
11-12, 14, 16. ill; Nov 1978.
Language: ENGLISH
Descriptors: USA
170 NAL Call. No.: S544.3.N7A4
Laboratory instruction on hydroponics: the basics.
Marrison, D.L.; Frick, M.
Middletown, N.Y. : Cornell Cooperative Ext.--Orange County
Agriculture Program, Education Center; 1992 Apr.
Agfocus : publication of Cornell Cooperative Extension--Orange
County. p. 5-8; 1992 Apr. Includes references.
Language: English
Descriptors: Agricultural education; Hydroponics; Practical
education
171 NAL Call. No.: S9.R58
La lattuga in idroponica e la concimazione potassica [Lettuce
in hydroponics and its potassium fertilization].
Tafuri, F.; Scarponi, L.
Bologna, Edagricole; July/Sept 1978.
Rivista di agronomia v. 12 (3): p. 123-128. ill; July/Sept
1978. Bibliography p. 127-128.
Language: ITALIAN; ENGLISH
172 NAL Call. No.: SB126.5.S64
Lettuce and tomato intercropping system with supplemental
lighting. Giacomelli, G.; Grasgreen, I.; Janes, H.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (1): p. 39-50. ill; 1987. Includes
references.
Language: English
Descriptors: Lactuca sativa; Lycopersicon esculentum;
Greenhouse culture; Hydroponics; Intercropping; Nutrient film
techniques; Supplementary light; Crop yield; Economic analysis
173 NAL Call. No.: SB126.5.S64
Lettuce growth in a nutrient film with carbon dioxide
enrichment within a controlled-environment system.
Silva, G.H.; Toop, E.W.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (2): p. 41-47. ill; 1986. Includes
references.
Language: English
Descriptors: Lactuca sativa; Cultivars; Nutrient film
techniques; Environmental control; Carbon dioxide enrichment;
Growth; Yields
174 NAL Call. No.: SB126.5.S64
Lettuce in vertical and sloped hydroponic bags with a textile
waste. Marfa, O.; Serrano, L.; Save, R.
Wageningen : International Society for Soilless Culture; 1987.
Soilless culture v. 3 (2): p. 57-70. ill; 1987. Includes
references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Bags; Substrates;
Soil conditioners; Textiles; Wastes; Felt; Water uptake;
Yields; Water; Ratios
175 NAL Call. No.: 80 AC82
A low-technology hydroponic crop production system based on
expanded perlite. Hitchon, G.M.; Szmidt, R.A.K.; Hall, D.A.
Wageningen : International Society for Horticultural Science;
1991 May. Acta horticulturae (287): p. 431-433; 1991 May.
Paper presented at the "Second International Symposium on
Protected Cultivation of Vegetables in Mild Winter Climates,"
October 29-November 13, 1989, Crete, Greece. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Perlite
Abstract: Development of the use of perlite in horticulture
has been carried out at the West of Scotland College over a
period of more than ten years. Recent work in collaboration
with The Perlite Institute, Inc. has led to the development of
commercially applicable techniques. The outstanding features
of the system include ease of water management and optimum
air:water balance, because perlite substrate is initially
sterile, chemically inert and physically stable. Simple
irrigation design of one inlet per row of plants makes the
system suitable for low-technology conditions which exist in
many parts of the world.
176 NAL Call. No.: QK867.J67
Maintenance of iron and other micronutrients in hydroponic
nutrient solutions (Tomatoes, cucumbers).
Wallace, G.A.; Wallace, A.
New York, N.Y. : Marcel Dekker; 1984.
Journal of plant nutrition v. 7 (1/5): p. 575-585; 1984.
Presented at the "Second International Symposium on Iron
Nutrition and Interactions in Plants," August 2-5, 1983, Utah
State University, Logan. Includes references.
Language: English
177 NAL Call. No.: SB387.V572
Maintenance of seedling muscadine grapes in a hydroponic
system. Harley, W.; Onokpise, O.U.
Tallahassee, Fla. : Florida A&M University, Center for
Viticultural Sciences; 1988.
Proceedings of the Viticultural Science Symposium. p. 172-177;
1988. Includes references.
Language: English
Descriptors: Vitis rotundifolia; Seedlings; Hydroponics;
Techniques; Fertilizer application; Nutrient solutions;
Chemical composition; Shoots; Roots; Growth
178 NAL Call. No.: SB295.C35M3
Marijuana hydroponics high-tech water culture.
Storm, Daniel
Berkeley, Calif. : And/Or Books,; 1987.
vii, 118 p. : ill. ; 24 cm. Includes bibliographies.
Language: English
Descriptors: Marihuana; Hydroponics
179 NAL Call. No.: SB126.5.S38 1989
Master guide to planning profitable hydroponic greenhouse (S-
CEA) operations., Rev. May 1989..
Savage, Adam J.
International Center for Special Studies
Honolulu, Hawaii : International Center for Special Studies,;
1989. 240 p. : ill. ; 28 cm. Cover title. Includes
bibliographical references (p. 181-212).
Language: English
Descriptors: Hydroponics; Greenhouse management; Greenhouses
180 NAL Call. No.: 4 AM34P
Methods for controlling pH in hydroponic culture of winter
wheat forage. Miyasaka, S.C.; Checkai, R.T.; Grunes, D.L.;
Norvell, W.A. Madison, Wis. : American Society of Agronomy;
1988 Mar.
Agronomy journal v. 80 (2): p. 213-220. ill; 1988 Mar.
Includes references.
Language: English
Descriptors: Triticum aestivum; Hydroponics; Ph; Magnesium;
Zinc; Resins; Forage crops; Winter wheat
181 NAL Call. No.: QK867.I52 1984
Mineral composition of tomato fruits in optimized and
oligoelementally alterated hydroponic culture.
Lopez-Andreu, F.J.; Esteban, R.M.; Carpena, O.; Lopez, G.J.
Montpellier, France : Martin-Prevel, AIONP/GERDAT; 1984.
ACTES; proceedings ; Montpellier, 2-8 Sept. 1984. v. 2, p.
351-355; 1984. Paper presented at the 6th International
Colloquium for the Optimization of Plant Nutrition,
Montpellier, September 2-8, 1984. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Tomatoes; Hydroponics;
Nutrient solutions; Mineral nutrition; Mineral content; Fruits
182 NAL Call. No.: 450 AN7
Mixed nitrogen nutrition and productivity of wheat grown in
hydroponics. Heberer, J.A.; Below, F.E.
London : Academic Press; 1989 Jun.
Annals of botany v. 63 (6): p. 643-649. ill; 1989 Jun.
Includes references.
Language: English
Descriptors: Triticum aestivum; Triticum durum; Plant
nutrition; Nitrogen assimilation; Growth rate; Crop yield;
Yield components
183 NAL Call. No.: 80 AC82
Mobile hydroponic for energy saving (Nutrient film
techniques). Massantini, F.; Magnani, G.
The Hague : International Society for Horticultural Science;
June 1984. Acta horticulturea (148): v. 1, p. 81-88. ill; June
1984. Paper presented at the "Third International Symposium
on Energy in Protected Cultivation," August 21-26, 1983,
Columbia, Ohio. Includes references.
Language: English
184 NAL Call. No.: 80 AC82
Modified soil culture and hydroponic techniques in a
Mediterranean climate. Martinez, P.F.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 129-138; 1993 Feb.
Paper presented at the "Symposium on Soil and Soilless Media
Under Protected Cultivation in Mild Winter Climates," March
1-6, 1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Spain; Vegetables; Ornamental plants; Protected
cultivation; Soilless culture; Sand; Growing media
185 NAL Call. No.: 58.8 J82
Monitoring nutrient film solutions using ion-selective
electrodes. Bailey, B.J.; Haggett, B.G.D.; Hunter, A.; Albery,
W.J.; Svanberg, L.R. London : Academic Press; 1988 Jun.
Journal of agricultural engineering research v. 40 (2): p.
129-142. ill; 1988 Jun. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Greenhouse culture;
Nutrient film techniques; Ion exchange; Electrodes; Nutrient
concentration; Hydroponics; Plant nutrition
186 NAL Call. No.: S1.N32
Nature's 'hydroponic' harvest.
McCoy, D.
Emmaus, Pa. : Regenerative Agriculture Association; 1987 Jul.
The New farm v. 9 (5): p. 38-40. ill; 1987 Jul.
Language: English
Descriptors: Ohio; Nasturtium officinale; Non-traditional
crops; Marketing; Organic farming
187 NAL Call. No.: SB126.5.Y33 1992
New hydroponic technology for growing plants the technology of
hydroponic plant growth in space and down to earth
applications : a step-by-step instructional guide with
complete information on this unique hydroponic technique of
growing plants in "phenalic foam medium" : vegetables,
flowers, ornamentals, herbs.. Technology of hydroponic plant
growth in space and down to earth applications Hydroponic
technology for growing plants Yagil, I.
Northridge, Calif.? : Yagil Hydroponic Research?, 1992?; 1992.
19 leaves, [9] leaves of plates : ill. ; 28 cm. Cover title.
Language: English
Descriptors: Hydroponics; Horticulture
188 NAL Call. No.: SB126.5.H94
New NFT breakthroughs and future directions.
Edwards, K.
Honolulu, Hawaii, USA : International Center for Special
Studies; 1985. Hydroponics worldwide : state of the art in
soilless crop production / Adam J. Savage, editor. p. 186-192.
ill; 1985.
Language: English
Descriptors: Hydroponics; Nutrient film techniques; Nutrient
uptake; Cultivation methods; Plant nutrition
189 NAL Call. No.: 80 AC82
New perlite system for tomatotes and cucumbers.
Wilson, G.C.S.
Wageningen : International Society for Horticultural Science;
1985 Jun. Acta horticulturae (172): p. 151-156. ill; 1985 Jun.
Presented at the International Symposium on the use of
Composts as Horticultural Substrates, Ghent/Melle, Belgium,
August 27-31, 1984.
Language: English
Descriptors: Scotland; Lycopersicon esculentum; Cucumis
sativus; Soilless culture; Perlite; Nutrient film techniques;
Greenhouse culture
190 NAL Call. No.: HD1775.I6I5
NFT and principles of hydroponics.
Wilcox, G.E.
West Lafayette, Indiana : The Station; 1987.
Station bulletin - Purdue University, Agricultural Experiment
Station (530): p. 96-103. ill; 1987. Paper presented at the
Second National Herb Growing and Marketing Conference, July
19-22, 1987, Indianapolis, Indiana.
Language: English
Descriptors: Plant production; Nutrient film techniques;
Hydroponics
191 NAL Call. No.: 309.9 N216
NFT cropping from the beginning to the present day.
Cooper, A.
Peoria, Ill. : National Agricultural Plastics Association;
1986. Proceedings of the ... National Agricultural Plastics
Congress (19th): p. 105-120; 1986.
Language: English
Descriptors: Nutrient film techniques; Greenhouses;
Autoradiography; Lycopersicon esculentum
192 NAL Call. No.: 80 AC82
NFT (nutrient film technique) greenhouse tomatoes grown with
heated nutrient solution.
Giacomelli, G.A.; Janes, H.W.
The Hague : International Society for Horticultural Science;
June 1984. Acta horticulturea (148): v. 2, p. 827-834. ill;
June 1984. Paper presented at the "Third International
Symposium on Energy in Protected Cultivation", August 21-26,
1983, Columbia, Ohio. Includes references.
Language: English
193 NAL Call. No.: 80 AC82
Nitrogen nutrition and susceptibility to fire blight (E.
amylovora) of Pyracantha cv. Mohave : a preliminary study
using an hydroponic system. Cadic, A.; Lemaire, F.; Paulin,
J.P.
Wageningen : International Society for Horticultural Science;
1987 Nov. Acta horticulturae (217): p. 149-155; 1987 Nov. In
the series analytic: Fire blight / edited by S.V. Beer.
Proceedings of an International Workshop, June 22-26, 1986,
Ithaca, New York. Includes references.
Language: English
Descriptors: Pyracantha; Blights; Erwinia amylovora; Varietal
susceptibility; Disease resistance; Mineral nutrition;
Nitrogen; Hydroponics; Nutrient solutions
194 NAL Call. No.: 309.9 N216
Non-circulating hydroponic systems for vegetable production.
Kratky, B.A.; Imai, H.; Tsay, J.S.
Peoria, Ill. : National Agricultural Plastics Association;
1989. Proceedings of the ... National Agricultural Plastics
Congress (21st): p. 22-27. ill; 1989. Includes references.
Language: English
Descriptors: Nutrient solutions; Hydroponics; Aeration;
Horticultural crops
195 NAL Call. No.: 450 P692
Nonrecirculating hydroponic system suitable for uptake studies
at very low nutrient concentrations.
Gutschick, V.P.; Kay, L.E.
Rockville, Md. : American Society of Plant Physiologists; 1991
Apr. Plant physiology v. 95 (4): p. 1125-1130; 1991 Apr.
Includes references.
Language: English
Descriptors: Plant nutrition; Laboratory equipment;
Hydroponics; Nutrient uptake; Nutrient solutions
Abstract: We describe the mechanical, electronic, hydraulic,
and structural design of a nonrecirculating hydroponic system.
The system is particularly suited to studies at very low
nutrient concentrations, for which on-line concentration
monitoring methods either do not exist or are costly and
limited to monitoring relatively few individual plants.
Solutions are mixed automatically to chosen concentrations,
which can be set differently for every pump fed from a master
supply of deionized water and nutrient concentrates. Pumping
rates can be varied over a 50-fold range, up to 400 liters per
day, which suffices to maintain a number of large, post-
seedling plants in rapid growth at (sub)micromolar levels of N
and P. The outflow of each pump is divided among as many as 12
separate root chambers. In each chamber one may monitor uptake
by individual plant roots or segments thereof, by measuring
nutrient depletion in batch samples of solution. The system is
constructed from nontoxic materials that do not adsorb
nutrient ions; no transient shifts of nitrate and phosphate
concentrations are observable at the submicromolar level.
Nonrecirculation of solutions limits problems of pH shifts,
microbial contamination, and cumulative imbalances in
unmonitored nutrients. We note several disadvantages,
principally related to high consumption of deionized water and
solutes. The reciprocating pumps can be constructed
inexpensively, particularly by the researcher. We also report
previously unattainable control of passive temperature rise of
chambers exposed to full sunlight, by use of white epoxy
paint.
196 NAL Call. No.: aQK604.N6 1984
The nutrient film technique for inoculum production.
Warner, A.; Mosse, B.; Dingemann, L.
Corvallis, Or. : Oregon State University : Forest Research
Laboratory; 1985 Feb.
Proceedings of the 6th North American Conference on
Mycorrhizae : June 25-29, 1984, Bend, Oregon / compiled and
edited by Randy Molina ; sponsoring institutions, Oregon State
University, College of Forestry, and USDA. p. 85-86; 1985 Feb.
Includes references.
Language: English
Descriptors: Mycorrhizal fungi; Inoculum; Production; Lactuca
sativa; Peat; Nutrient film techniques; Inoculant carriers
197 NAL Call. No.: 80 AC82
Nutrient film technique in protected cultivation.
Burrage, S.W.
Wageningen : International Society for Horticultural Science;
1993 Feb. Acta horticulturae (323): p. 23-38; 1993 Feb. Paper
presented at the "Symposium on Soil and Soilless Media Under
Protected Cultivation in Mild Winter Climates," March 1-6,
1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: Horticultural crops; Protected cultivation;
Nutrient film techniques
198 NAL Call. No.: 10 OU8
Nutrient film technique--crop culture in flowing nutrient
solution (Vegetables, fruits, ornamental plants).
Spensley, K.; Winsor, G.W.
London, Imperial Chemical Industries; 1978.
Outlook on agriculture v. 9 (6): p. 299-305. ill; 1978. 24
ref.
Language: ENGLISH
199 NAL Call. No.: 80 AC82
Nutrient uptake by tomatoes in nutrient film technique
hydroponics. Wilcox, G.E.
Wageningen : International Society for Horticultural Science;
1984 Mar. Acta horticulturea (145): p. 173-180. ill; 1984 Mar.
Language: English
Descriptors: Indiana; Lycopersicon esculentum; Nutrient
uptake; Nutrient film techniques; Hydroponics; Nutrient
solutions
200 NAL Call. No.: SB1.H6
Observations on a noncirculating hydroponic system for tomato
production. Kratky, B.A.; Imai, H.
Alexandria, Va. : American Society for Horticultural Science;
1988 Oct. HortScience v. 23 (5): p. 906-907. ill; 1988 Oct.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Systems;
Design; Crop yield
201 NAL Call. No.: 80 AC82
Optimal control of water content, nutrient concentration and
bacteria in tomato hydroponics.
Wakoh, H.; Fujiwara, S.; Sasaki, K.
Wageningen : International Society for Horticultural Science;
1992 Oct. Acta horticulturae v. 2 (319): p. 499-503; 1992 Oct.
Paper presented at the International Symposium on Transplant
Production Systems--Biological, Engineering and Socioeconomics
Aspects, July 21-26, 1992, Yokohama, Japan. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Water
content; Nutrient content; Control; Plant pathogenic bacteria;
Disinfection; Ozone; Ultraviolet radiation
202 NAL Call. No.: TD478.D4
Optimum conditions for a solar still and its use for a
greenhouse using the nutrient film technique.
El-Haggar, S.M.; Awn, A.A.
Amsterdam, Elsevier Scientific Publishing Co; 1993 Sep.
Desalination v. 94 (1): p. 55-68; 1993 Sep. Includes
references.
Language: English
Descriptors: Egypt; Cabt; Greenhouses; Saline water; Brackish
water; Purification; Distillation; Solar energy; Operation;
Improvement
203 NAL Call. No.: SB1.H6
Paclobutrazol in hydroponic solution advances inflorescence
development of Hydrangea 'Merritt's Supreme'.
Wilkinson, R.I.; Hanger, B.
Alexandria, Va. : The American Society for Horticultural
Science; 1992 Nov. HortScience : a publication of the American
Society for Horticultural Science v. 27 (11): p. 1195-1196;
1992 Nov. Includes references.
Language: English
Descriptors: Hydrangea macrophylla; Miniature cultivars;
Hydroponics; Nutrient film techniques; Pot plants;
Paclobutrazol; Treatment; Nutrient solutions; Inflorescences;
Plant development
Abstract: Miniature flowering potted Hydrangea macrophylla
Thunb. cv. Merritt's Supreme plants (multistem, 15 to 20 cm
tall) were grown in a modified hydroponic system. High-quality
plants were produced by pulsing plants with paclobutrazol (0.2
mg.liter-1) for 4 weeks. Flower initiation was advanced in the
terminal buds of treated plants by 12 days, and this earlier
flower development was maintained through to flower maturity,
without loss of inflorescence diameter.
204 NAL Call. No.: 309.9 N216
Phenolic foam--an unique plastic, its characteristics and use
in hydroponics. Boodley, J.W.
Peoria, Ill. : National Agricultural Plastics Association;
1986. Proceedings of the ... National Agricultural Plastics
Congress (19th): p. 203-209. ill; 1986. Includes references.
Language: English
Descriptors: Phenolic compounds; Plastic foams; Hydroponics;
Seed germination; Spinacia oleracea
205 NAL Call. No.: QK867.J67
Phosphorus deficiency enhances molybdenum uptake by tomato
plants. Heuwinkel, H.; Kirkby, E.A.; Le Bot, J.; Marschner, H.
New York, N.Y. : Marcel Dekker; 1992.
Journal of plant nutrition v. 15 (5): p. 549-568; 1992.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Molybdenum; Nutrient
uptake; Ion uptake; Nutrient nutrient interactions;
Phosphorus; Mineral deficiencies; Nutrient film techniques;
Ph; Nutrient transport; Plasma; Membranes; Roots;
Radionuclides; Dry matter accumulation; Mineral content;
Shoots
Abstract: Water culture experiments are described which
provide conclusive evidence that Mo uptake by tomato plants is
markedly enhanced by P deficiency. In a longterm experiment,
which ran for 11 days, in marked contrast to the uptake of
other nutrients, a three fold higher Mo uptake rate was
observed after only four days of withdrawal of P from the
nutrient medium. In contrast to the gradual increase in pH of
the nutrient medium of the plants supplied with P, the pH in
the medium of the -P plants fell. Throughout the growth of
these plants net H+ efflux could be accounted for by excess
cation over anion uptake, indicating that organic acid
extrusion plays no major role in the observed fall in pH.
Further evidence that Mo uptake is enhanced in P deficient
tomato plants is provided in short-term nutrient solution
experiments (1h and 4h) using radioactive molybdenum (99Mo).
Compared with P sufficient plants, the uptake rates of 99Mo by
P deficient plants were three to five times higher after 1h
and nine to twelve times higher after 4h. Resupplying P during
the uptake periods to deficient plants reduced the uptake rate
of 99Mo to values similar to those of P sufficient plants. It
is concluded that the uptake of molybdate occurs via phosphate
binding/ transporting sites at the plasma membrane of root
cells. Further support for this conclusion comes from exchange
experiments with non-labelled molybdenum, which show a much
larger amount of 99Mo exchangeable from the roots of P
deficient plants.
206 NAL Call. No.: QH301.A76
Plant growth in NFT and other soilless substrates.
Adams, P.
Wellesbourne, Warwick : The Association of Applied Biologists;
1989. Aspects of applied biology (22): p. 341-348. ill; 1989.
In the series analytic: Roots and the soil environment.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Roots; Dry matter
accumulation; Growth; Nutrient uptake; Oxygen; Hydroponics;
Nutrient film techniques; Peat; Rockwool; Substrates
207 NAL Call. No.: 448.8 C162
Plant growth responses to bacterization with selected
Pseudomonas spp. strains and rhizosphere microbial development
in hydroponic cultures. Peer, R. van; Schippers, B.
Ottawa : National Research Council of Canada; 1989 Apr.
Canadian journal of microbiology v. 35 (4): p. 456-463. ill;
1989 Apr. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Cucumis sativus; Lactuca
sativa; Solanum tuberosum; Pseudomonas; Hydroponics; Growth;
Plant nutrition
208 NAL Call. No.: SB1.H6
Plant propagation using an aero-hydroponics system.
Soffer, H.; Burger, D.W.
Alexandria, Va. : American Society for Horticultural Science;
1989 Feb. HortScience v. 24 (1): p. 154. ill; 1989 Feb.
Includes references.
Language: English
Descriptors: Ficus benjamina; Chrysanthemum; Propagation
materials; Cuttings; Cultivation methods; Hydroponics;
Rooting; Mists
209 NAL Call. No.: 80 AC82
Plant protection in hydroponics.
Assche, C. van; Vangheel, M.
Wageningen : International Society for Horticultural Science;
1989 Sep. Acta horticulturae (260): p. 363-375; 1989 Sep.
Paper presented at the "International Symposium on Growth and
Yield Control in Vegetable Production," / edited by G. Vogel,
May 22-25, 1989, Berlin, German Democratic Republic. Includes
references.
Language: English
Descriptors: Belgium; Vegetables; Hydroponics; Fungal
diseases; Bacterial diseases; Greenhouse crops; Disease
control
210 NAL Call. No.: QK867.J67
Plant species response to ammonium-nitrate concentration
ratios. Errebhi, M.; Wilcox, G.E.
New York, N.Y. : Marcel Dekker; 1990.
Journal of plant nutrition v. 13 (8): p. 1017-1029; 1990.
Includes references.
Language: English
Descriptors: Brassica oleracea var. capitata; Phaseolus
vulgaris; Zea mays; Cucumis melo; Ammonium nitrogen; Nitrate
nitrogen; Ratios; Nutrient nutrient interactions; Nutrient
availability; Nutrient solutions; Nutrient film techniques;
Nitrogen content; Mineral content; Calcium; Magnesium;
Phosphorus; Potassium; Shoots; Dry matter accumulation
211 NAL Call. No.: SB126.5.P5
Plastics and hydroponics - the new approach. Annotated
bibliography on the nutrient film technique, 1974-1978
(Vegetable and field crops). British Agricultural and
Horticultural Plastics Association London British Plastics
Federation East Malling, The Bureau; July 1978. Query
file.Commonwealth Bureau of Horticulture and Plantation Crops
(11/78): 75 p. in various pagings : ill., plans. 4 p.; July
1978. (British Plastics Federation. Publications No. 231/1).
Language: ENGLISH; ENGLISH
Descriptors: Hydroponics; Plastics in agriculture
212 NAL Call. No.: 80 AC82
Polymeric gel for arid land amendment and hydroponics.
Azzam, R.
Wageningen : International Society for Horticultural Science;
1986 Sep. Acta horticulturae (190): p. 299-304. ill; 1986 Sep.
In the series analytic: Tomato production on arid land /
edited by A.S. E1-Beltagy and A.R. Persson. Proceedings of an
International symposium, December 9-15, 1984, Cairo, Egypt.
Includes references.
Language: English
Descriptors: Soil amendments; Arid soils; Rockwool;
Hydroponics; Gels; Polymers; Soil moisture; Microbial
activities
213 NAL Call. No.: 80 J825
Poor aeration in NFT (Nutrient film technique) and a means for
its improvement (Tomatoes).
Jackson, M.B.; Blackwell, P.S.; Chrimes, J.R.; Sims, T.V.
Ashford : Headley Brothers Ltd; July 1984.
The Journal of horticultural science v. 59 (3): p. 439-448.
ill; July 1984. Includes 30 references.
Language: English
214 NAL Call. No.: S322.S55S55
The possible use of sodium hypochloride for (Pseudomonas sp.)
bacterial wilt control in the hydroponic cultivation of sweet
pepper.
Teoh, T.S.; Chuo, S.K.
Singapore, Primary Production Department; July 1978.
Singapore journal of primary industries v. 6 (2): p. 102-112.
ill; July 1978. 8 ref.
Language: ENGLISH
215 NAL Call. No.: QK867.J67
Potassium concentration effect on growth, gas exchange and
mineral accumulation in potatoes.
Cao, W.; Tibbitts, T.W.
New York, N.Y. : Marcel Dekker; 1991.
Journal of plant nutrition v. 14 (6): p. 525-537; 1991.
Includes references.
Language: English
Descriptors: Solanum tuberosum; Potassium; Nutrient
availability; Dry matter accumulation; Tubers; Leaf area; Gas
exchange; Photosynthesis; Carbon dioxide; Nutrient uptake;
Nutrient content; Mineral content; Calcium ions; Magnesium;
Sulfur; Leaves; Nutrient nutrient interactions; Nutrient film
techniques
Abstract: This study was conducted to evaluate the responses
of potatoes to six K solution concentrations maintained with a
flow-through nutrient film system. Potato plants were grown
for 42 days in sloping shallow trays containing a 1 cm layer
of quartz gravel with a continuous flow of 4 ml min(-1) of
nutrient solutions having K concentrations of 0.10, 0.55,
1.59, 3.16, 6.44, 9.77 meq L(-1). Plant leaf area, total and
tuber dry weights were reduced over 25% at 0.10 meq L(-1) of K
and over 17% at 9.77 meq L(-1) of K compared to concentrations
of 0.55, 1.59, 3.16 and 6.44 meq L(-1) of K. Gas exchange
measurements on leaflets in situ after 39 days of growth
demonstrated no significant differences among different K
treatments in CO2 assimilation rate, stomatal conductance,
intercellular CO2 concentration, and transpiration. Further
measurements made only on plants grown at 0.10, 1.59, 6.44 meq
L(-1) of K showed similar responses of CO2 assimilation rate
to different intercellular CO2 concentrations. This suggested
that the photosynthetic systems were not affected by different
K nutrition. The leaves of plants accumulated about 60% less K
at 0.10 meq L(-1) of K than at higher K concentrations.
However, Ca and Mg levels in the leaves were higher at 0.10
meq L(-1) of K than at higher K concentrations. This indicates
that low K nutrition not only reduced plant growth, but also
affected nutrient balance between major cations.
216 NAL Call. No.: 75.8 P842
Potato growth and yield using nutrient film technique (NFT).
Wheeler, R.M.; Mackowiak, C.L.; Sager, J.C.; Knott, W.M.;
Hinkle, C.R. Orono, Me. : Potato Association of America; 1990
Mar.
American potato journal v. 67 (3): p. 177-187. ill; 1990 Mar.
Includes references.
Language: English
Descriptors: Solanum tuberosum; Cultivars; Nutrient film
techniques; Nutrient solutions; Crop density; Crop yield;
Tubers; Plant damage; Periderm; Salts; Crop quality
217 NAL Call. No.: QL750.O3
A potential influence of rhizobium activity on the
availability of nitrogen to legume herbivores (Hydroponic
experiments, Soybean plants). Wilson, K.G.; Stinner, R.E.
Berlin, W. Ger. : Springer International; 1984.
Oecologia v. 61 (3): p. 337-341; 1984. Includes 20
references.
Language: English
218 NAL Call. No.: SB126.5.S64
The potential of NFT for the production of six herb species.
Wees, D.; Stewart, K.A.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (2): p. 61-70. ill; 1986. Includes
references.
Language: English
Descriptors: Nutrient film techniques; Herbs; Nutrient
solutions; Concentration; Aeration; Yields
219 NAL Call. No.: 80 AC82
The potential use of fluorescent pseudomonads in the
protection of carnations against fusarium wilt in hydroponics.
Xu, T.; Peer, R. van; Rattink, H.; Schippers, B.
Wageningen : International Society for Horticultural Science;
1987 Dec. Acta horticulturae (216): p. 93-100; 1987 Dec. In
the series analytic: Carnation culture / edited by Leo
Sparnaaij. Proceedings of an International Symposium, May
17-23, 1987, Noordwijkerhout, The Netherlands. Includes
references.
Language: English
Descriptors: Dianthus caryophyllus; Fungal diseases; Wilts;
Fusarium oxysporum; Plant disease control; Biological control
organisms; Pseudomonas; Strains; Hydroponics; Antagonism
220 NAL Call. No.: 450 F58AE
Practical applications: aerohydroponics.
Lebedev, G.V.; Abramenkova, N.A.; Sabinina, E.D.;
Mtskhvetaridze, N.E.; Rozdin, I.A.
New York, N.Y. : Consultants Bureau; 1991 Feb.
Soviet plant physiology v. 37 (4,pt.2): p. 615-618; 1991 Feb.
Translated from: Fiziologiya rastenii, v. 37 (4,pt.2), 1990,
p. 808-812. (450 F58). Includes references.
Language: English; Russian
Descriptors: Crop production; Hydroponics; Nutrient film
techniques; Growing media; Greenhouse culture; Design
221 NAL Call. No.: 80 AC82
The present situation and prospect of soilless cultivation in
China. Wang, R.H.; Wang, S.S.; Xu, Z.X.; Guan, L.M.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 291-298; 1988 Sep. In
the series analytic: High Technology in Protected Cultivation
/ edited by T. Kozai. Paper presented at an International
Symposium, May 12-15, 1988, Hamamatsu, Japan. Includes
references.
Language: English
Descriptors: China; Soilless culture; Protected cultivation;
Research projects; Nutrient film techniques; Aquaculture;
Industrial methods
222 NAL Call. No.: 95.8 C122
Producing grapes by hydroponics.
Logan, S.H.; Brewer, H.L.
San Francisco, Calif. : The Journal; 1964 Oct.
Wines & vines v. 45 (10): p. 29-30. ill; 1964 Oct.
Language: English
Descriptors: California; Vitis; Cultivation; Techniques;
Hydroponics; Production costs
223 NAL Call. No.: TRANSL 24708
Raising plants by a method of hydroponics.
Bozhko, A.
Arlington, Va. Joint Publications Research Service; 1975. 15
pages. Translated from Russian, JPRS 63860. Translated from:
Nauka i zhizn', no. 11: 68-75, 1973.
Language: ENGLISH; RUSSIAN
224 NAL Call. No.: 80 AC82
A recirculating hydroponic system with perlite and basaltic
tuff. Munsuz, N.; Celebi, G.; Ataman, Y.; Usta, S.; Unver, I.
Wageningen : International Society for Horticultural Science;
1989 Sep. Acta horticulturae (238): p. 149-156; 1989 Sep.
Paper presented at the "Symposium on Substrates in
Horticulture other than Soils in Situ," September 12-16, 1988,
Dublin, Ireland. Includes references.
Language: English
Descriptors: Hydroponics; Growing media; Perlite; Basalt; Tuff
soils; Nutrient solutions; Greenhouse culture; Lycopersicon
esculentum; Cucumis sativus; Geranium; Chrysanthemum; Yield
response functions; Crop quality
225 NAL Call. No.: QK867.J67
A recirculating resin-buffered hydroponic system for
controlling nutrient ion activities.
Checkai, R.T.; Norvell, W.A.
New York, N.Y. : Marcel Dekker; 1992.
Journal of plant nutrition v. 15 (6/7): p. 871-892; 1992.
Paper presented at the "Workshop on Root Distribution, and
Chemistry and Biology of the Root-Soil Interface", January
9-11, 1990, Ithaca, New York. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Nutrient solutions;
Hydroponics; Nutrient availability; Cation exchange resins;
Cation exchange; Metal ions; Nickel; Chelation
Abstract: A recirculating resin-buffered hydroponic system
was developed to control the activities of nutrient ions in
solution at concentrations similar to those found in soil
solution. The recirculating hydroponic system was designed to
supply adequate buffering and timely replenishment of
nutrients during the course of long-term experiments. Nutrient
solution was recharged by circulating it through columns of
ion exchange and chelating resins before its return to plant
culture vessels. The recirculating resin-buffered system
consisted of four different types of ion exchange and
chelating resins housed in separate columns: strong-acid resin
to buffer Ca, Mg, K and Mn in solution; weak-acid resin to
buffer pH; partially-neutralized Al on strong-acid resin to
buffer P in solution; and chelating resin to buffer Zn, Cu,
Mn, and Ni and to supply Fe to EDDHA in solution. Control of
nutrients and pH was begun at the time of seed germination.
The recirculating resin-buffered system was especially
designed to limit Ni contamination in studies of the
essentiality of Ni in higher plants. Concentrations of Ni2+ is
solution were successfully maintained at treatment levels that
differed by four orders of magnitude, with the lowest level <
10(-14) M. The exchange resins maintained the supply and
activities of other nutrients at levels sufficient for the
growth of plants. Tomato plants (Lycopersicon esculentum
Mill., cv. Wisconsin 55) were successfully grown for six weeks
without discarding the nutrient solution in which the plants
grew. The pH of recirculating nutrient solutions was well
maintained throughout the study. Guard columns protected the
primary resin columns from plugging and were replaced during
the course of this study to restore flow rates of the nutrient
solutions. Maintenance of flow rates, in conjunction with
successful reloading of resins with nutrients, assures the
feasibility of even longer term plant culture experiments.
226 NAL Call. No.: 80 AC82
Regulating growth of witloof chicory during hydroponic
forcing. Corey, K.A.; Tan, Z.Y.
Wageningen : International Society for Horticultural Science;
1992 Nov. Acta horticulturae (318): p. 161-167; 1992 Nov. In
the series analytic: Specialty and exotic vegetable crops / by
D. N. Maynard. Proceedings of the Second International
Symposium, March 15-19, 1992, Miami, Florida. Includes
references.
Language: English
Descriptors: Massachusetts; Cichorium intybus; Hydroponics;
Forcing; Growth rate; Crop yield; Pressure treatment; Crop
quality; Ethylene production
227 NAL Call. No.: 80 AC82
Relation between water use efficiency of sweet pepper grown
under nutrient film technique and rockwool under protected
cultivation.
Abou-Hadid, A.F.; El-Shinawy, M.Z.; El-Beltagy, A.S.; Burrage,
S.W. Wageningen : International Society for Horticultural
Science; 1993 Feb. Acta horticulturae (323): p. 89-95; 1993
Feb. Paper presented at the "Symposium on Soil and Soilless
Media Under Protected Cultivation in Mild Winter Climates,"
March 1-6, 1992, Cairo, Egypt. Includes references.
Language: English
Descriptors: England; Capsicum annuum; Nutrient film
techniques; Rockwool; Trickle irrigation; Water use
efficiency; Greenhouse crops; Crop yield; Leaf area index
228 NAL Call. No.: TD475.C65 1986
Removal of copper and lead using a thin-film technique.
Dierberg, F.E.; DeBusk, T.A.; Goulet, N.A. Jr
Orlando, Fla. : Magnolia Publishing Inc; 1987.
Aquatic plants for water treatment and resource recovery /
edited by K.R. Reddy and W.H. Smith. p. 497-504; 1987. Paper
presented at the "Conference on Research and Application of
Aquatic Plants for Water Treatment and Resource Recovery,"
July 20-24, 1986, Orlando, Florida. Includes references.
Language: English
Descriptors: Aquatic plants; Hydrocotyle; Uptake; Copper;
Lead; Pollutants; Waste water treatment; Nutrient film
techniques
229 NAL Call. No.: QH540.J6
Removal of two chlorinated compounds from secondary domestic
effluent by a thin film technique.
Dierberg, F.E.; Goulet, N.A. Jr; DeBusk, T.A.
Madison, Wis. : American Society of Agronomy; 1987 Oct.
Journal of environmental quality v. 16 (4): p. 321-324. ill;
1987 Oct. Includes references.
Language: English
Descriptors: Florida; Sewage effluent; Waste water treatment;
Hydrocotyle; Nutrient film techniques; 2,4-dichlorophenol;
Chlorine
230 NAL Call. No.: S604.5.B43
Report on a tour overseas to California, England, France and
Israel with particular reference to soil management in
vineyards and orchards, frost control measures, XXII
International Horticultural Congress, pistachio growing,
walnut growing, hydroponics, and, drip irrigation in Israel :
2nd August - 8th September, 1986.
Beckingham, Clarrie
New South Wales, Dept. of Agriculture
Maitland : N.S.W. Dept. of Agriculture? 1986?; 1986.
152 p. : ill., maps ; 30 cm. Cover title.
Language: English
Descriptors: Vineyards; Orchards; Trickle irrigation; Israel
231 NAL Call. No.: 80 AC82
The response of peach plants grown in hydroponic system to
gibberellin biosynthesis inhibitors (GBIs).
Avidan, B.; Erez, A.
Wageningen : International Society for Horticultural Science;
1993 Jan. Acta horticulturae (329): p. 54-57; 1993 Jan. Paper
presented at the Seventh International Symposium on Plant
growth regulators in fruit production, June 14-19, 1992,
Jerusalem, Israel. Includes references.
Language: English
Descriptors: Prunus persica; Hydroponics; Growth; Treatment;
Gibberellins; Biosynthesis; Inhibitors; Paclobutrazol
232 NAL Call. No.: aSB205.S7S6
Response of soybean strains to DPX-F6025 in hydroponics.
Pomeranke, G.J.; Nickell, C.D.; Wax, L.
Ames, Iowa : The Service; 1987 Apr.
Soybean genetics newsletter - United States, Agricultural
Research Service v. 14: p. 240-243; 1987 Apr. Includes
references.
Language: English
Descriptors: Glycine max; Varieties; Lines; Hydroponics;
Greenhouse experimentation; Herbicide application;
Phytotoxicity; Crop sensitivity
233 NAL Call. No.: 464.8 P56
Responses of bean to root colonization with Pseudomonas putida
in a hydroponic system.
Anderson, A.J.; Guerra, D.
St. Paul, Minn. : American Phytopathological Society; 1985
Sep. Phytopathology v. 75 (9): p. 992-995; 1985 Sep. Includes
18 references.
Language: English
Descriptors: Phaseolus vulgaris; Roots; Pseudomonas putida;
Plant colonization; Fusarium solani; Fungal diseases;
Hydroponics
234 NAL Call. No.: SB419.U52
Results of a PBS Hydroponic Demonstration Project.
United States General Services Administration Design Action
Center; United States, General Services Administration, Public
Buildings Service Washington GSA, Design Action Center; 1978.
(13) p. : ill.
Language: ENGLISH
Descriptors: Hydroponics; House plants in office decoration
235 NAL Call. No.: 64.8 C883
Root growth of wheat genotypes in hydroponic culture and in
the greenhouse under different soil moisture regimes.
Mian, M.A.R.; Nafziger, E.D.; Kolb, F.L.; Teyker, R.H.
Madison, Wis. : Crop Science Society of America, 1961-; 1993
Mar. Crop science v. 33 (2): p. 283-286; 1993 Mar. Includes
references.
Language: English
Descriptors: Triticum aestivum; Genotypes; Hydroponics;
Greenhouse culture; Soil water content; Soil water regimes;
Root systems; Shoots; Growth rate; Drought resistance;
Flooding tolerance; Varietal reactions
Abstract: Root characteristics of wheat (Triticum aestivum
L.) genotypes are believed to be important in tolerance to
drought and flooding, yet neither the extent of differences in
root size among modern soft red wheat cultivars nor the degree
of association between root size and drought or flooding
tolerance is known. This study was conducted to see whether
genotypes differ in root size, and to see if root size is
associated with tolerance to flooded soil and to drought
during early vegetative growth. We found differences in root
fresh weight (RFW), shoot fresh weight (SFW), number of roots
longer than 40 cm (NR), longest root length (LRL) and total
root length (TRL) of 40 winter wheat genotypes grown in
hydroponic culture for 4 wk. Each of these parameters was
positively correlated with all others. Twelve genotypes with
different root sizes selected from these 40 were grown in a
greenhouse soil experiment for 3 wk, after which soil moisture
treatments of control, flooding, and drought were imposed for
a period of 21 d. Flooding did not affect SFW and number of
tillers (NT), but decreased RFW. Drought drastically decreased
all three parameters. The genotype X moisture treatment
interactions for SFW, RFW, and NT were significant. Root and
shoot growth of these genotypes in hydroponic culture were
correlated to their root and shoot growth under both control
and flooded conditions, but not under drought. Thus, it
appears that the expression of genotypic root growth potential
may be influenced by the availability of soil moisture, and
that selection of wheat seedlings for vigorous growth in
hydroponic culture will select for vigorous early growth in
soil with adequate or excess moisture, but not under severe
drought.
236 NAL Call. No.: aSD11.U57
Root growth potential and carbohydrate shifts in previously
cold stored loblolly pine seedlings grown in hydroponic
culture.
Rose, R.W.; Whiles, R.P.
New Orleans, La. : The Station; 1985 Apr.
Forest Service general technical report SO - United States,
Southern Forest Experiment Station (54): p. 25-33. ill; 1985
Apr. Paper presented at the "Third Biennial Southern
Silvicultural Research Conference," November 7/8, 1984,
Atlanta, Georgia. Includes references.
Language: English
Descriptors: Pinus taeda; Seedlings; Cold storage;
Hydroponics; Roots; Growth rate; Starch
237 NAL Call. No.: 80 AC82
Root in the moist air method with the slightly sloped bed for
the hydroponic culture.
Kuwano, S.; Fujita, T.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 329-335. ill; 1988 Sep.
In the series analytic: High Technology in Protected
Cultivation / edited by T. Kozai. Paper presented at an
International Symposium, May 12-15, 1988, Hamamatsu, Japan.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Systems;
Roots; Air moisture; Nutrient solutions
238 NAL Call. No.: 80 AC82
Root zone warming in tomato plants in soil and NFT (nutrient
film technique, energy consumption).
Pardossi, A.; Tognoni, F.; Tesi, R.; Bertolacci, M.; Grossi,
P. The Hague : International Society for Horticultural
Science; June 1984. Acta horticulturea (148): v. 2, p.
865-870. ill; June 1984. Paper presented at the "Third
International Symposium on Energy in Protected Cultivation",
August 21-26, 1983, Columbia, Ohio. Includes references.
Language: English
239 NAL Call. No.: SB1.A1F5
Rooting cuttings in aero-hydroponics.
Soffer, H.; Burger, D.W.
Berkeley, Calif. : The Service; 1989.
Flower and nursery report for commercial growers - California
University, Berkeley, Agricultural Extension Service. p. 1-2.
ill; 1989.
Language: English
Descriptors: Chrysanthemum; Ficus; Ornamental plants;
Cuttings; Vegetative propagation; Mist propagation; Rooting
240 NAL Call. No.: SB1.A1F5
Rooting cuttings in aero-hydroponics.
Soffer, H.; Burger, D.W.
Berkeley, Calif. : The Service; 1989.
Flower and nursery report for commercial growers - California
University, Berkeley, Agricultural Extension Service. p. 1-2.
ill; 1989.
Language: English
Descriptors: Rooting; Cutting method; Hydroponics
241 NAL Call. No.: QK867.J67
Salinity effect on root and shoot characteristics of common
and tepary beans evaluated under hydroponic solution and sand
culture.
Zaiter, H.Z.; Mahfouz, B.
New York, N.Y. : Marcel Dekker; 1993.
Journal of plant nutrition v. 16 (8): p. 1569-1592; 1993.
Includes references.
Language: English
Descriptors: Phaseolus vulgaris; Phaseolus acutifolius;
Salinity; Stress; Sodium chloride; Calcium chloride; Salt
tolerance; Cultivars; Line differences; Genotype environment
interaction; Phytotoxicity; Roots; Shoots; Growth; Plant
height; Screening; Hydroponics; Sand; Growing media
Abstract: The effects of increased salinity [NaCl + CaCl2] on
seedling of three tepary and four common bean cultivars/lines,
of known resistance and susceptibility at germination stage,
grown for thirty-eight-days in salinized hydroponic and sand
cultures were assessed at electrical conductivity (EC) of 1.89
(control), 4.00, 8.00, and 12.00 dS/m of half strength
Hoagland solution inside a glasshouse at 30/25 +/- 2 degrees C
day/night temperature. The hydroponic culture screening method
was more severe than the sand culture method. Common bean
cultivars/lines expressed genetic variability to salinity
stress at thirty-eight-days old seedlings. 'Badrieh' was
tolerant to salinity as the tolerant tepary bean T#1 line
under sand culture. However, this was not evident under
hydroponic culture. T#1 showed salinity injury symptoms at EC
= 4 dS/m, while 'Badrieh' showed no salinity injury symptoms
at EC = 4 dS/m. These results indicate that the mechanisms
involved for tolerating salinity in the tepary could be
different from that involved in common beans. Inverse and
significant correlations between salinity injury symptoms and
several root and shoot characters were evident from the data,
indicating that variation in whole-plant foliar injury
symptoms to salinity would thus seem to provide the best means
of initial selection of salinity tolerant genotypes by plant
breeders.
242 NAL Call. No.: SB327.A1B5
Salinity effect on root and shoot characteristics of common
and tepary beans evaluated under hydroponic solution and sand
culture.
Zaiter, H.Z.; Mahfouz, B.
Fort Collins, Colo : Howard F. Schwartz, Colorado State
University; 1993. Annual report of the Bean Improvement
Cooperative v. 36: p. 80; 1993. In the series analytic:
Annual report of the bean improvement cooperative.
Language: English
Descriptors: Phaseolus vulgaris; Salinity; Roots; Shoots;
Hydroponics; Sand; Cultivars
243 NAL Call. No.: 81 SO12
Salt stress, mechanical stress, or chlormequat chloride
effects on morphology and growth recovery of hydroponic tomato
transplants.
Adler, P.R.; Wilcox, G.E.
Alexandria, Va. : The Society; 1987 Jan.
Journal of the American Society for Horticultural Science v.
112 (1): p. 22-25; 1987 Jan. Includes 14 references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Stress;
Transplanting; Growth retardants; Cropping systems
244 NAL Call. No.: 80 AC82
Selection in strawberry with resistance to Phytophthora root
rot for hydroponics.
Amimoto, K.
Wageningen : International Society for Horticultural Science;
1992 Oct. Acta horticulturae v. 1 (319): p. 273-278; 1992 Oct.
Paper presented at the "International Symposium on Transplant
Production Systems: Biological, Engineering and Socioeconomic
Aspects," July 21-26, 1992, Yokohama, Japan. Includes
references.
Language: English
Descriptors: Fragaria ananassa; In vitro culture; Selection
criteria; Disease resistance; Phytophthora nicotianae var.
parasitica
245 NAL Call. No.: 80 AC82
Sensor for ion-control--an approach to control of nutrient
solution in hydroponics.
Morimoto, T.; Nishina, H.; Watake, H.
Wageningen : International Society for Horticultural Science;
1992 Mar. Acta horticulturae (304): p. 301-308; 1992 Mar.
Paper presented at the "First International Workshop on
Sensors in Horticulture", January 29-31, 1991,
Noordwijkerhout, The Netherlands. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Crop production;
Greenhouse culture; Hydroponics; Nutrient solutions; Chemical
composition; Sensors; Ion uptake; Calcium; Nitrates; Nutrient
film techniques; Potassium
246 NAL Call. No.: 81 SO12
Short-term salt-shock effects on tomato fruit quality, yield,
and vegetative prediction of subsequent fruit quality.
Niedziela, C.E. Jr; Nelson, P.V.; Willits, D.H.; Peet, M.M.
Alexandria, Va. : The Society; 1993 Jan.
Journal of the American Society for Horticultural Science v.
118 (1): p. 12-16; 1993 Jan. Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Crop quality; Crop
yield; Greenhouse culture; Hydroponics; Malic acid; Plant
water relations; Salt tolerance
Abstract: Commercial recommendations exist for using short-
term salt-shocks on tomato (Lycopersicon esculentum Mill.) to
improve fruit quality. Six experiments were conducted to 1)
assess the influence of nutrient concentration and short-term
salt-shocks on fruit quality and yield and 2) identify a
vegetative predictor of subsequent fruit quality. The first
objective was addressed in three nutrient film technique (NFT)
experiments (Expts. 1-3). Four treatments were applied: two
maintained constant at two baseline concentrations (0.25X and
1X-commercial level) and two provided salt-shock periods of 30
min, twice daily. There were no effects of baseline
concentration or salt-shocks on total number and weight of
marketable fruit. Fruit quality was better at the 1X baseline
concentration as observed by higher titratable acidity (Expt.
2), higher percent dry matter (Expts. 2 and 3), higher soluble
solids concentration (Expt. 2), and lower pH (Expts. 2 and 3),
however, weight per marketable fruit was lower (Expt. 2).
Salt-shocks had little effect on fruit quality, refuting its
commercial potential. Salt-shocks decreased fruit pH (Expts. 1
and 3). However, titratable acidity increased at the 0.25X
level and decreased at the 1X level (Expt. 3). In Expt. 2, but
not in Expt. 3, citrate concentration in the fifth leaf from
the apex of young vegetative plants was correlated with
subsequent fruit quality. Three additional experiments in
static hydroponics with vegetative plants showed no
significant differences in leaf citrate levels due to a
single, short-term salt-shock. Thus, citrate is not a good
predictor of fruit quality.
247 NAL Call. No.: 80 C733
Soilless growing in Europe (Vegetables, hydroponics, England,
Poland). Schippers, P.A.
Willoughby, Oh. Meister Publishing Co; Dec 1978.
American vegetable grower and greenhouse grower v. 26 (12): p.
17-18. ill; Dec 1978.
Language: ENGLISH
Descriptors: England
248 NAL Call. No.: SB126.5.S64
Soilless (hydroponic) culture - the past - present - and
future. An Australian viewpoint.
Maxwell, K.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (1): p. 27-34; 1986. Includes
references.
Language: English
Descriptors: Australia; Hydroponics; Research projects;
Research organization; History
249 NAL Call. No.: TD201.W92
Solar pilot plant feeds hydroponics.
London, Eng. : T. Telford Ltd; 1987 Sep.
World water v. 10 (8): p. 42-43. ill; 1987 Sep.
Language: English
Descriptors: Japan; Hydroponics; Solar energy; Greenhouse
cropping; Biotechnology
250 NAL Call. No.: GB611.A3
A solar powered NFT system for desert development.
Assabghy, F.; El-Bagouri, I.; Seif, S.A.; El-Kheshen, K.
Chur, Switzerland : Harwood Academic Publishers; 1991.
Advances in desert and arid land technology and development v.
5: p. 307-334; 1991. In series analytic: Desert development:
proceedings of the Second International Desert Development
Conference held on January 25-31, 1987, in Cairo, Egypt /
edited by A. Bishay and H. Dregne. Includes references.
Language: English
Descriptors: Egypt; Agricultural development; Deserts; Solar
energy
251 NAL Call. No.: 81 SO12
Solution depth affects root morphology and growth of cucumber
plants grown in circulating nutrient solution.
Chung, G.C.; Rowe, R.N.; Field, R.J.
Alexandria, Va. : The Society; 1989 Nov.
Journal of the American Society for Horticultural Science v.
114 (6): p. 890-893. ill; 1989 Nov. Includes references.
Language: English
Descriptors: Cucumis sativus; Hydroponics; Circulation;
Nutrient solutions; Depth; Growth rate; Roots; Shoots;
Morphology
Abstract: Defruited cucumber (Cucumis sativus L.) plants were
grown hydroponically for 28 days in containers with 4.5 liters
of capacity, in which constant solution depths of 1, 5, 50,
and 170 mm were maintained. The plants grown in the 1- and 5-
mm-deep solutions grew more slowly than those in the deeper
solutions. Both root and shoot growth were reduced at the
shallow depths, but shoot growth was affected more than root
growth. Thus, the shoot : root ratios were considerably
smaller in the shallower than in the deeper solutions. The
root systems in the shallower solutions, initially, were
relatively more branched than in the deeper solutions. The
shallow solutions caused the plants to allocate a higher
proportion of their photosynthetic resources to the root at
the expense of leaf growth. In the shallow solutions, a
progressively higher proportion of this root growth became
exposed above the solution, and, therefore, could not
contribute to the absorption of water and nutrients. Control
of solution depth may be a useful tool for controlling the
vigor of the shoots of cucumber and the data presented may
explain why growth problems have been experienced with this
crop, particularly where a very thin film of nutrient is used,
as in nutrient film technique.
252 NAL Call. No.: QK710.A37
Some indices of nitrate metabolism in lettuce grown by the
nutrient film technique on varying nutrient solutions.
Myczkowski, J.; Rozek, S.; Sady, W.; Wojtaszek, T.
Warszawa : Polish Scientific Publishers; 1986.
Acta physiologiae plantarum v. 8 (1): p. 43-52; 1986.
Includes references.
Language: English
Descriptors: Lactuca sativa; Cultivars; Nitrate fertilizers;
Nutrient film techniques; Nutrient solutions; Yields
253 NAL Call. No.: 450 C16
Source-sink limitations of maize growing in an outdoor
hydroponic system. Walker, G.K.; Miller, M.H.; Tollenaar, M.
Ottawa : Agricultural Institute of Canada; 1988 Oct.
Canadian journal of plant science; Revue canadienne de
phytotechnie v. 68 (4): p. 947-955; 1988 Oct. Includes
references.
Language: English
Descriptors: Zea mays; Kernels; Dry matter accumulation;
Growth rate; Net assimilation rate; Source sink relations;
Hydroponics; Plant density
254 NAL Call. No.: SB610.W39
Soybean (Glycine max) cultivar tolerance to chlorimuron and
imazaquin with varying hydroponic solution pH.
Newsom, L.J.; Shaw, D.R.
Champaign, Ill. : The Society; 1992 Apr.
Weed technology : a journal of the Weed Science Society of
America v. 6 (2): p. 382-388; 1992 Apr. Includes references.
Language: English
Descriptors: Glycine max; Cultivars; Varietal susceptibility;
Herbicide resistance; Chlorimuron; Imazaquin; Crop damage;
Phytotoxicity; Ph; Nutrient solutions; Hydroponics
255 NAL Call. No.: 450 R11
Starch accumulation during hydroponic growth of spinach and
basil plants under carbon dioxide enrichment.
Holbrook, G.P.; Hansen, J.; Wallick, K.; Zinnen, T.M.
Oxford : Pergamon Press; 1993 Apr.
Environmental and experimental botany v. 33 (2): p. 313-321;
1993 Apr. Includes references.
Language: English
Descriptors: Spinacia oleracea; Ocimum basilicum; Carbon
dioxide enrichment; Hydroponics; Starch; Leaves; Carbohydrate
metabolism; Photoperiod; Phosphorus; Nutrient availability;
Biomass production; Horticulture
256 NAL Call. No.: SB1.H6
Stimulating productivity of hydroponic lettuce in controlled
environments with triacontanol.
Knight, S.L.; Mitchell, C.A.
Alexandria, Va. : American Society for Horticultural Science;
1987 Dec. HortScience v. 22 (6): p. 1307-1309; 1987 Dec.
Includes references.
Language: English
Descriptors: Lactuca sativa; Hydroponics; Environmental
control; Yield increases; Alcohols; Application; Carbon
dioxide enrichment; Artificial light
257 NAL Call. No.: 64.8 C883
Stress tolerance in soybeans. I. Evaluation of three screening
techniques for heat and drought tolerance (Seed germination,
hydroponic seedling test, hardiness).
Bouslama, M.; Schapaugh, W.T. Jr
Madison, Wis. : Crop Science Society of America; Sept/Oct
1984. Crop science v. 24 (5): p. 933-937. ill; Sept/Oct 1984.
Includes 19 references.
Language: English
258 NAL Call. No.: 80 AC82
Studies on plant propagation using the aero-hydroponic method.
Soffer, H.; Burger, D.W.
Wageningen : International Society for Horticultural Science;
1988 Sep. Acta horticulturae (230): p. 261-269. ill; 1988 Sep.
In the series analytic: High Technology in Protected
Cultivation / edited by T. Kozai. Paper presented at an
International Symposium, May 12-15, 1988, Hamamatsu, Japan.
Includes references.
Language: English
Descriptors: Ficus benjamina; Chrysanthemum; Propagation
materials; Cuttings; Rooting; Hydroponics; Mists; Dissolved
oxygen; Ethylene production
259 NAL Call. No.: 23 AU783
Studies on the behaviour of furalaxyl on pythiaceous fungi and
cucumbers in recirculating hydroponic systems.
Price, T.V.; Fox, P.
Melbourne : Commonwealth Scientific and Industrial Research
Organization; 1986.
Australian journal of agricultural research v. 37 (1): p.
65-77; 1986. Includes references.
Language: English
Descriptors: Cucumis sativus; Pythium irregulare; Phytophthora
cryptogea; Disease control; Furalaxyl; Etridiazole;
Hydroponics; Nutrient film techniques; Crop yield
260 NAL Call. No.: 290.9 AG8
Studies on the hydroponics system flooding and circulating
solution in cultural vat. II. Hydraulic equation for growing
vat.
Murakami, Y.; Kurome, N.
Tokyo, The Society; Mar 1978.
Nogyo Doboku Gakkai ronbunshu. Transactions of the Japanese
Society of Irrigation, Drainage and Reclamation
Engineering.Nogyo Doboku Gakkai (75): p. 54-61. ill; Mar 1978.
2 ref.
Language: ENGLISH
261 NAL Call. No.: S1.S68
Study of dry substance balance of hydroponic fodder under
different methods of cultivation.
Obraztsov, A.S.; Piutkin, S.N.; Georgiadi, N.I.
New York, N.Y. : Allerton Press; 1986.
Soviet agricultural sciences (1): p. 28-31; 1986. Translated
from: Vsesoiuznaia akademiia sel'skokhozia stvennykh nauk,
Doklady, (1), 1986, p. 19-21. (20 AK1). Includes 8
references.
Language: English; Russian
Descriptors: Hordeum vulgare; Hydroponics; Nutrient solutions;
Dry matter
262 NAL Call. No.: 80 AC82
"Study of the effect of some mineral deficiencies on
greenhouse carnations (Diantahus caryophyllus) in hydroponic
culture".
Medina T, L.A.
Wageningen : International Society for Horticultural Science;
1992 Aug. Acta horticulturae (307): p. 203-212; 1992 Aug.
Paper presented at the "Fourth International Symposium on
Carnation Culture," September 8-14, 1991, Santa Fe de Bogota,
Colombia. Includes references.
Language: English
Descriptors: Dianthus caryophyllus; Greenhouse crops; Nutrient
deficiencies; Hydroponics; Deficiency; Symptoms
263 NAL Call. No.: SB126.5.S64
Survey of a decade of research (1974-1984) with nutrient film
technique (NFT) on glasshouse vegetables.
Benoit, F.; Ceustermans, N.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (1): p. 5-17; 1986. Includes
references.
Language: English
Descriptors: Belgium; Horticultural crops; Greenhouse
cropping; Nutrient film techniques; Soilless culture; Research
projects; Surveys
264 NAL Call. No.: S31.T84
Sweet potato on center stage.
Loretan, M.
Tuskegee, Ala. : Sch. of Agric. & Home Econ., Tuskegee Univ.,
George Wash. Carver Agric. Exp. Stn; 1990.
Tuskegee horizons v. 1 (1): p. 6-9; 1990.
Language: English
Descriptors: Alabama; Ipomoea batatas; Space science;
Hydroponics; Nutrient film techniques
265 NAL Call. No.: 464.8 P56
A system for conditiuous production of root-knot nematode
juveniles in hydroponic culture.
Lambert, K.N.; Tedford, E.C.; Caswell, E.P.; Williamson, V.M.
St. Paul, Minn. : American Phytopathological Society; 1992
May. Phytopathology v. 82 (5): p. 512-515; 1992 May. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Plant parasitic
nematodes; Laboratory rearing; Meloidogyne javanica; Nematode
juveniles; Hydroponics; Nutrient solutions; Culture
techniques; Host range; Pathogenicity
Abstract: A hydroponic culture system that enables ready
production and retrieval of freshly hatched, infective root-
knot nematode juveniles was developed. Meloidogyne javanica-
infected tomato plants produced at least 100,000 juveniles per
day for as long as 3 mo. Juveniles reinfected roots within the
culture system, which possibly accounts for the extended
period of production. The hydroponically grown nematodes
retained characteristic infectivity and host range. This
culture system is useful when a cohort of uniform-age
juveniles is required or for analyses in which high numbers of
nematodes are needed.
266 NAL Call. No.: S590.C63
Tailoring polymeric gels for soil reclamation and hydroponics.
Azzam, R.A.I.
New York, N.Y. : Marcel Dekker; 1985.
Communications in soil science and plant analysis v. 16 (10):
p. 1123-1138; 1985. Includes 12 references.
Language: English
Descriptors: Soil reclamation; Hydroponics; Sand
stabilization; Polymers; Gel coatings
267 NAL Call. No.: SB1.H6
A technique for accurately measuring water use by entire
greenhouse crops. Moss, G.I.; Meyer, C.P.; Ceresa, A.; Sale,
P.J.M.; Shell, G.S. Alexandria, Va. : American Society for
Horticultural Science; 1985 Oct. HortScience v. 20 (5): p.
877-879. ill; 1985 Oct. Includes 6 references.
Language: English
Descriptors: Transpiration; Evapotranspiration; Greenhouse
crops; Nutrient film techniques
268 NAL Call. No.: 290.9 AM32P
A thin film hydroponic system for plant studies.
Hines, R.; Prince, R.; Muller, E.; Schuerger, A.
St. Joseph, Mich. : The Society; 1990.
Paper - American Society of Agricultural Engineers (90-4035):
7 p.; 1990. Paper presented at the "1990 International Summer
Meeting", June 24-27, 1990, Columbus, Ohio. Includes
references.
Language: English
Descriptors: Hydroponics; Plant diseases; Research
269 NAL Call. No.: 450 AN7
Tillering, leaf expansion and growth of plants of two
cultivars of perennial ryegrass grown using hydroponics at two
water potentials. Loo, E.N. van
London : Academic Press; 1992 Dec.
Annals of botany v. 70 (6): p. 511-518; 1992 Dec. Includes
references.
Language: English
Descriptors: Lolium perenne; Tillering; Leaves; Growth;
Hydroponics; Water potential; Cultivars; Genetic variation;
Mathematical models; Equations
Abstract: Tillering and growth parameters of perennial
ryegrass cultivars Wendy (diploid) and Condesa (tetraploid)
were determined in a glasshouse experiment using hydroponics
at low (-1.3 MPa) and normal water potential (0 MPa). At -1.3
MPa, leaf extension rate was reduced by 36%. Final plant
tiller number was 20% lower at -1.3 MPa because of a 12%
reduction in the leaf appearance rate in the first weeks after
the start of the treatments. Site filling, the relative
increase in tiller number per leaf appearance interval, was
high (0.61) - but still lower than theoretically possible -
and was only slightly affected by water potential. Site
filling was shown to be strictly related to the number of
inhibited plus unemerged tiller buds. Dry matter production
was 64% lower at -1.3 MPa. Relative growth rate (RGR) was, on
average, 17% lower at -1.3 MPa, but the reduction was greater
just after the treatments started. Also, net assimilation rate
(NAR) was reduced more by low water potential just after the
start of the treatments. Specific leaf area (SLA) was 13%
lower at -1.3 MPa for Wendy, but not significantly reduced for
Condesa. Contrary to expectations based on the theory of the
functional balance between root and shoot, leaf weight ratio
was slightly higher at -1.3 MPa. From comparison of the
results of this study with published data, it is concluded
that effects of drought in the field on tillering cannot be
attributed only to low water potential.
270 NAL Call. No.: SB4.P76
Tomato fruit quality-an interdisciplinary approach.
Gormley, T.R.; Maher, M.J.
Oxford : Blackwell Scientific Publications; 1990 Oct.
Professional horticulture v. 4 (3): p. 107-112. ill; 1990 Oct.
Includes references.
Language: English
Descriptors: Tomatoes; Lycopersicon esculentum; Hydroponics;
Intensive production; Cultivars; Nutrient film techniques;
Crop quality; Sensory evaluation; Food quality
271 NAL Call. No.: QK867.J67
Tomato growth and nutrient uptake pattern as influenced by
nitrogen form ratio.
Errebhi, M.; Wilcox, G.E.
New York, N.Y. : Marcel Dekker; 1990.
Journal of plant nutrition v. 13 (8): p. 1031-1043; 1990.
Includes references.
Language: English
Descriptors: Lycopersicon esculentum; Ammonium nitrogen;
Nitrate nitrogen; Ratios; Nutrient nutrient interactions;
Nutrient availability; Nutrient solutions; Nutrient film
techniques; Dry matter accumulation; Nutrient uptake;
Potassium; Calcium; Magnesium; Mineral content; Roots; Shoots
272 NAL Call. No.: 81 SO12
Tomato growth as affected by root-zone temperature and the
addition of gibberellic acid and kinetin to nutrient solutions
(Lycopersicon esculentum, xylem exudates, hydroponic).
Bugbee, B.; JOSHB; White, J.W.
Alexandria : The Society; Jan 1984.
Journal of the American Society for Horticultural Science v.
109 (1): p. 121-125. ill; Jan 1984. Includes references.
Language: English
273 NAL Call. No.: 56.8 SO38
Toxicity of cationic polymer flocculants to higher plants. II.
Hydroponic cultures.
Kuboi, T.; Fujii, K.
Tokyo : Japanese Society of Soil Science and Plant Nutrition;
1985 Jun. Soil science and plant nutrition v. 31 (2): p.
163-173. ill; 1985 Jun. Includes 8 references.
Language: English
Descriptors: Toxicity; Cations; Flocculants; Polymers;
Hydroponics; Brassica rapa; Sesamum indicum; Triticum
aestivum; Cucumis sativus
274 NAL Call. No.: SB126.5.S64
Treated piggery effluent as a medium for the hydroponic
production of tomatoes (Lycopersicum esculentum).
Watson, N.
Wageningen : International Society for Soilless Culture; 1986.
Soilless culture v. 2 (1): p. 53-69; 1986. Includes
references.
Language: English
Descriptors: Lycopersicon esculentum; Hydroponics; Feedlot
effluent; Pig slurry; Nutrient solutions; Crop yield
275 NAL Call. No.: SB126.5.U53 1989
Understanding hydroponics.
Anderson, Mark
Volunteers in Technical Assistance
Arlington, Va. : VITA,; 1989.
24 p. : ill. ; 28 cm. (Technologies for development ; TP no.
63:3/89). "A VITA technical paper"--P. 1 of cover. Includes
bibliographical references (p. 23-24).
Language: English
Descriptors: Hydroponics
276 NAL Call. No.: SB126.5.H94
United Kingdom: current research and developments in soilless
culture with particular reference to NFT.
Hurd, R.G.
Honolulu, Hawaii, USA : International Center for Special
Studies; 1985. Hydroponics worldwide : state of the art in
soilless crop production / Adam J. Savage, editor. p. 164-171.
ill; 1985. Includes references.
Language: English
Descriptors: United Kingdom; Hydroponics; Nutrient film
techniques; Greenhouse crops; Profitability; Costs
277 NAL Call. No.: SB126.5.H94
United States of America: current research and developments.
Carpenter, T.D.; Colorado Springs, Colorado
Honolulu, Hawaii, USA : International Center for Special
Studies; 1985. Hydroponics worldwide : state of the art in
soilless crop production / Adam J. Savage, editor. p. 172-179.
ill; 1985. Includes references.
Language: English
Descriptors: U.S.A.; Hydroponics; Greenhouse crops; Nutrient
film techniques; Substrates; Cultivation methods; Plant
production; Economics; Research
278 NAL Call. No.: 381 J8223
Uptake and metabolic fate of indole in soybeans grown in
hydroponic solutions and soil.
Fellows, R.J.; Bean, R.M.; Cataldo, D.A.
Washington, D.C. : American Chemical Society; 1989 Sep.
Journal of agricultural and food chemistry v. 37 (5): p.
1444-1454; 1989 Sep. Includes references.
Language: English
Descriptors: Glycine max; Indoles; Nutrient uptake; Kinetics;
Bioavailability; Clay soils; Organic soils; Metabolites;
Metabolism
279 NAL Call. No.: QK867.J67
Urea transformation and tahe adaptability of three leafy
vegetables to urea as a source of nitrogen in hydroponic
culture.
Luo, J.; Lian, Z.H.; Yan, X.L.
New York, N.Y. : Marcel Dekker; 1993.
Journal of plant nutrition v. 16 (5): p. 797-812; 1993.
Includes references.
Language: English
Descriptors: Lactuca sativa; Brassica chinensis; Ipomoea
aquatica; Roots; Urea; Nitrogen metabolism; Urease; Enzyme
activity; Nutrient solutions; Ph; Hydroponics; Nitrate
Abstract: Substitution of urea for commonly used nitrate
fertilizers in hydroponic culture of vegetables would not only
avoid excessive accumulation of nitrate in plants but would
also reduce the cost of production. This substitution,
however, might have adverse effects, such as a dramatic
decrease in solution pH, reduced nutrient uptake and possibly
urea toxicity per se. Differences in adaptability to urea were
found among three species of leafy vegetables, Ipomoea
aquatica Fossk., Lactuca sativa L. and Brassica chinensis L.
I. aquatica showed the best adaptability, growing normally
with urea as the sole nitrogen source in spite of the dramatic
pH decrease in the nutrient solution. It was further found
that I. aquatica had significantly lower urease activity in
the roots than the other two species when urea was supplied to
the solution. Tolerance of low pH and avoidance of urea
toxicity may be possible mechanisms of I. aquatica's
adaptability to urea application in hydroponic culture.
280 NAL Call. No.: 23 AU792
Use of high electrical conductivity of nutrient solution to
improve the quality of salad tomatoes (Lycopersicon
esculentum) grown in hydroponic culture.
Cornish, P.S.
East Melbourne : Commonwealth Scientific and Industrial
Research Organization; 1992.
Australian journal of experimental agriculture v. 32 (4): p.
513-520; 1992. Includes references.
Language: English
Descriptors: New South Wales; Lycopersicon esculentum;
Cultivars; Hydroponics; Nutrient solutions; Electrical
conductivity; Crop quality; Crop yield; Tomatoes; Total solids
281 NAL Call. No.: SB317.5.H68
Use of plastic in greenhouse vegetable production in the
United States. Hochmuth, R.C.; Hochmuth, G.J.
Alexandria, VA : American Society for Horticultural Science,
c1991-; 1993 Jan. HortTechnology v. 3 (1): p. 20-27; 1993 Jan.
Includes references.
Language: English
Descriptors: U.S.A.; Cabt; Vegetables; Crop production;
Greenhouses; Hydroponics; Soilless culture; Nutrient film
techniques; Plastics; Irrigation systems; Polyethylene film
282 NAL Call. No.: SB126.5.S64
The use of saline water in hydroponics.
Schwarz, M.
Wageningen : International Society for Soilless Culture; 1985.
Soilless culture v. 1 (1): p. 25-34; 1985. Includes
references.
Language: English
Descriptors: Hydroponics; Saline water; Nutrient solutions;
Phytotoxicity; Crop yield
283 NAL Call. No.: 442.8 AN72
The use of vesicular-arbuscular mycorrhizal roots grown by the
nutrient film technique as inoculum for field sites.
Elemes, R.P.; Hepper, C.M.; Hayman, D.S.; O'Shea, J.
London : Association of Applied Biologists; June 1984.
Annals of applied biology v. 104 (3): p. 437-441; June 1984.
Includes references.
Language: English
284 NAL Call. No.: 80 AC82
The usefulness of test methods of analysis of nutrient
substances in estimating the quantitative changes in their
composition and indetermining the need for fertilization in
the greenhouse cultivation of lettuce and tomatoes. Sady, W.;
Wojtaszek, T.; Libik, A.
Wageningen : International Society for Horticultural Science;
1984 Mar. Acta horticulturea (145): p. 277-285; 1984 Mar.
Includes references.
Language: English
Descriptors: Lactuca; Lycopersicon esculentum; Greenhouse
culture; Nutrient film techniques; Nutrient contents of
plants; Soilless culture; Nutrient balance; Quantitative
techniques; Yields
285 NAL Call. No.: SB1.H6
The vacuum-operated nutrient delivery system: hydroponics for
microgravity. Brown, C.S.; Cox, W.M.; Dreschel, T.W.;
Chetirkin, P.V.
Alexandria, Va. : The American Society for Horticultural
Science; 1992 Nov. HortScience : a publication of the American
Society for Horticultural Science v. 27 (11): p. 1183-1185;
1992 Nov. Includes references.
Language: English
Descriptors: Phaseolus vulgaris; Hydroponics; Gravity;
Nutrient solutions; Distribution; Systems; Vacuum tanks;
Growth; Responses; Crop production
Abstract: A nutrient delivery system that may have
applicability for growing plants in microgravity is described.
The Vacuum-Operated Nutrient Delivery System (VONDS) draws
nutrient solution across roots that are under a partial vacuum
at approximately 91 kPa. Bean (Phaseolus vulgaris L. cv. Blue
Lake 274) plants grown on the VONDS had consistently greater
leaf area and higher root, stem, leaf, and pod dry weights
than plants grown under nonvacuum control conditions. This
study demonstrates the potential applicability of the VONDS
for growing plants in microgravity for space biology
experimentation and/or crop production.
286 NAL Call. No.: 18 J825
Variability for salt tolerance in Sorghum bicolor (L.) Moench.
under hydroponic conditions.
Azhar, F.M.; McNeilly, T.
Berlin, W. Ger. : Paul Parey; 1987 Oct.
Zeitschrift fur Acker- und Pflanzenbau v. 159 (4): p. 269-277;
1987 Oct. Includes references.
Language: English
Descriptors: Sorghum bicolor; Salt tolerance; Selection;
Varieties; Hydroponics
287 NAL Call. No.: 389.8 R324
Variaciones en el contenido de nutrientes en hojas de pepino
(Cucumis sativus L.) cultivado en hidroponia, como base para
el diagnostico por analisis foliar [Variations of nutrients
in the leaves of cucumbers (Cucumis sativus L.) grown in
hydroponics as a basis for foliar diagnosis].
Carpena, O.; Luque, A.
Valencia, Instituto de Agroquimica y Tecnologia de Alimentos;
Mar 1978. Revista de agroquimica y tecnologia de alimentos v.
18 (1): p. 110-114. ill; Mar 1978. 13 ref.
Language: SPANISH; ENGLISH
288 NAL Call. No.: SB299.R2I4 1987
Variation in spring rapeseed (Brassica napus) for tolerance to
the triazine herbicide, simazine using a growool hydroponics
system.
McGuire, G.M.
Poznan. : Panstwowe Wydawnictwo Rolnicze i Lesne; 1988.
7th International Rapeseed Congress / convened under the
patronage of Stanislaw Zieba ; by the Plant Breeding and
Acclimatization Institute under the auspices of the Group
Consultatif International de Recherche sur le Colza. p.
990-992; 1988.
Language: English
Descriptors: Australia; Brassica napus; Varieties; Tolerances;
Simazine; Screening; Hydroponics
289 NAL Call. No.: S589.7.N48
Water farms: integrated hydroponics in Maine.
Sardinsky, R.
East Falmouth, Mass. : The New Alchemists for contributions of
the New Alchemy Institute; 1985.
New alchemy quarterly (19): p. 13-14. ill; 1985.
Language: English
Descriptors: Maine; Lettuces; Hydroponics; Crop enterprises;
Greenhouse crops
290 NAL Call. No.: SB1.H6
Woody seedling response to growth retardants in hydroponics.
Hurtt, W.; Sterrett, J.P.
Alexandria, Va. : American Society for Horticultural Science;
1988 Feb. HortScience v. 23 (1): p. 160-162; 1988 Feb.
Includes references.
Language: English
Descriptors: Hydroponics; Ancymidol; Dikegulac; Applications;
Fraxinus pennsylvanica; Acer saccharinum; Seedlings; Responses
AUTHOR INDEX
Abad, M. 88
Abdel-Shafy, H.I. 83
Abou-Hadid, A.F. 163, 226
Abramenkova, N.A. 219
Adams, P. 33, 52, 64, 123, 205
Adler, P.R. 124, 242
Al-Harbi, A.R. 57
Albery, W.J. 183
Albright, L.D. 46, 47, 48
American Association for Vocational Instructional Materials
129
Amimoto, K. 243
Anderson, A.J. 232
Anderson, Mark 274
Apoian, L.A. 35
Armengol, F. 88
Arteca, R. 85
Assabghy, F. 249
Assche, C. van 208
Ataman, Y. 223
Avidan, B. 230
Awn, A.A. 201
Azhar, F.M. 285
Azzam, R. 211
Azzam, R.A.I. 265
Babik, I. 58
Baevre, O.A. 23
Bailey, B.J. 183
Bates, M.L. 29
Bausch, W.C. 121
Bean, R.M. 78, 277
Beardsley, Cay 98
Beardsley, Paul 98
Beckingham, Clarrie 229
Bedasie, S. 55, 62, 63
Below, F.E. 180
Benoit, F. 79, 86, 89, 97, 262
Bertero, G. 154
Bertolacci, M. 237
Blackwell, P.S. 212
Blatt, C.R. 116
Bone, D.A. 34
Bonsi, C.K. 164
Bonst, C.K. 75
Boodley, J.W. 203
Botar, G. 21
Bouslama, M. 256
Bozhko, A. 222
Brewer, H.L. 221
Bridwell, Raymond 108
British Agricultural and Horticultural Plastics Association
210, 210
Brown, C.S. 284
Bugbee, B. 271
Buley, N. 158
Burger, D.W. 65, 207, 238, 239, 257
Burrage, S.W. 42, 57, 69, 163, 196, 226
Butler, J. D. 131
Butler, J.E. 34
Cadic, A. 192
Cao, W. 214
Carpena, O. 179, 286
Carpena-Ruiz, R.O. 13
Carpenter, T.D. 276
Carpentier, D.R. 136
Carrasco, G.A. 42
Carruthers, Steven 107
Casey, L.S. 83
Caswell, E.P. 264
Cataldo, D.A. 78, 277
Celebi, G. 223
Ceresa, A. 266
Ceustermans, N. 79, 86, 89, 262
Charbonneau, J. A149
Checkai, R.T. 176, 224
Chetirkin, P.V. 284
Chrimes, J.R. 212
Chua, S. E. 99
Chung, G.C. 250
Chuo, S.K. 213
Colley, S.B. 83
Collins, W.L. 126
Colorado Springs, Colorado 276
Cooper, A. 190
Cooper, A.J. 2
Cooper-Bland, S. 144
Corey, K.A. 77, 225
Cornish, P.S. 279
Cox, W.M. 284
Creaser, G. 111
Cresswell, G.C. 56
Dalgleish, R. 145
Davey, M.R. 144
Davtian, G.S. 160
DeBusk, T.A. 227, 228
DeKorne, James B., 114, 114
Devonald, V.G. 61
DeWald, L.E. 1
Diallo, B. 143
Dierberg, F.E. 227, 228
Dingemann, L. 195
Dreschel, T.W. 284
Economakis, C.D. 53, 59, 157
Edgington, L.V. 146
Edwards, K. 187
Ehret, D.L. 68
El-Bagouri, I. 249
El-Behairy, U.A. 163
El-Beltagy, A.S. 163, 226
El-Gizawy, A.M. 52
El-Haggar, S.M. 201
El-Kheshen, K. 249
El-Shinawy, M.Z. 226
Elemes, R.P. 282
Emmert, Fred H. 8
Erez, A. 230
Ermakov, E.I. 186, 84
Errebhi, M. 209, 270
Esteban, R.M. 179
Fellows, R.J. 78, 277
Feret, P.P. 1
Field, R.J. 250
Findenegg, G.R. 58
Fox, J.P. 133
Fox, P. 258
Frangi, P. 87
Frick, M. 166
Fujii, K. 272
Fujishito, T. 122
Fujita, T. 236
Fujiwara, S. 200
Fukuyama, T. 95, 142
Gafny, R. 51
Galletta, P.D. 26
Garate, A. 13
Garcia-Codoner, A.C. 88
Gauthier, N.L. 120
Georgiadi, N.I. 260
Geraldson, C.M. 31, 37
Giacomelli, G. 92, 168
Giacomelli, G.A. 91, 191
Gilbert, H. 139, 140
Glen, E.P. 60
Gohler, F. 32
Gold, S.E. 73
Gormley, T.R. 269
Gosselin, A. 149
Goulet, N.A. Jr 227, 228
Grabowski, J. 60
Grange, R.I. 93
Grasgreen, I. 92, 168
Graves, W.R. 151
Grossi, P. 237
Grunes, D.L. 176
Guan, L.M. 220
Guerra, D. 232
Guminska, Z. 82
Gutschick, V.P. 194
Haggett, B.G.D. 183
Hall, D.A. 39, 118, 171
Handley, L.L. 83
Handwerker, T.S. 141
Hanger, B. 202
Hanger, Brian C. 117�
Hansen, J. 254
Hardwick, K. 93
Harley, W. 173
Harmanny, K. 76
Harris, Dudley 137
Harvey, S.D. 78
Hashimoto, Y. 95, 142
Hayman, D.S. 282
Heberer, J.A. 180
Heinen, M. 30, 76
Heissner, A. 32
Hendrickx, G. 44
Hepper, C.M. 282
Hershey, D.R. 45
Heuwinkel, H. 204
Hicklenton, P.R. 70, 116, 153
Hill, W.A. 75, 164
Hines, R. 267
Hinkle, C.R. 215
Hitchon, G.M. 118, 171
Ho, L.C. 64, 68
Hochmuth, G.J. 280
Hochmuth, R.C. 280
Holbrook, G.P. 254
Holcomb, E.J. 71, 85
Holderness, M. 161
Homes, J. 143
Hoshi, T. 40
Howard, H.F. 101
Hunter, A. 183
Hurd, R.G. 275
Hurtt, W. 289
Huss-Danell, K. 90
Hydroponic Society of America 41
Imai, H. 193, 199
International Center for Special Studies 138, 175
Ismail, M.R. 69
Jackson, M.B. 212
Jamart, G. 28, 74
Janes, H. 92, 168
Janes, H.W. 91, 191
Jaziri, M. 143
Jensen, M.H. 126
Jiminez-Conde, F. 96
Johnson, P.E. 12
Jones, D. 26
Jones, J. L. 98
JOSHB 271
Kamoen, O. 28, 74
Kanaan, S.S. 53
Kaptsynel, YU.M. 147
Kapulnik, Y. 51
Kawata, T. 122
Kay, L.E. 194
Keino, S. 80
Kenyon, Stewart, 135
Kikuchi, H. 142
Kirby, E.A. 43
Kirkby, E.A. 204
Knight, S.L. 255
Knott, W.M. 121, 215
Kobayashi, K. 80
Kolb, F.L. 234
Kopolow, C. 127
Kratky, B.A. 15, 36, 193, 199
Kreh, R.E. 1
Krizek, D.T. 81
Kuboi, T. 272
Kuliukin, A.N. 177
Kurome, N. 259
Kuwano, S. 236
Lambert, K.N. 264
Langhans, R.W. 46
Lardizabal, R.D. 100
Le Bot, J. 43, 204
Lebedev, G.V. 219
Lee, J. 7
Lemaire, F. 192
Lewis, C.C. 50
Lian, Z.H. 278
Libik, A. 283
Lim, E.S. 38, 119
Linardakis, D.K. 102
Ling, C.F. 96
Llano R., G.A. 24
Logan, S.H. 221
Loo, E.N. van 268
Lopez, G.J. 179
Lopez, J.L. 83
Lopez-Andreu, F.J. 179
Loretan, M. 263
Loretan, P.A. 75, 164
Louter, J.H. 146
Loveridge, R.F. 34
Lue, L.P. 50
Luo, J. 278
Luque, A. 286
MacFadyen, J.T. 6
Mackowiak, C. L. 27
Mackowiak, C.L. 215
Magnani, G. 181
Maher, M.J. 269
Mahfouz, B. 240, 241
Malvick, D.K. 103
Manios, V.I. 102
Mantell, S.H. 94
Manzanares, M. 13
Marfa, O. 170
Marrison, D.L. 166
Marschner, H. 204
Marsh, L.S. 46, 47, 48
Marshall, N. 19
Martinez, P.F. 182
Mason, John 20
Massantini, F. 181
Maxwell, K. 247
McClung, A.M. 22
McCoy, D. 184
McCulloch, C.E. 46
McGuire, G.M. 287
McNeilly, T. 285
Medina T, L.A. 261
Medvedeva, I.V. 186
Melchor, V.E. 50
Melian, G.P. 96
Metsue, M. 79
Meyer, C.P. 266
Mezhunts, B.Kh 160
Mian, M.A.R. 234
Miller, M.H. 252
Mitchell, C.A. 255
Mitchell, D.J. 72
Miyasaka, S.C. 176
Moens, M. 44
Mohri, K. 95
Mohyuddin, M. 128
Monma, Y. 80
Montes R., C. 24
Mora, J. 88
Morgan, J.V. 156
Morimoto, T. 142, 244
Morris, C.E. 75, 164
Mortley, D.G. 75, 164
Moss, G.I. 67, 145, 266
Mosse, B. 195
Moustafa, A.T. 156
Mtskhvetaridze, N.E. 219
Muller, E. 267
Munsuz, N. 223
Murakami, Y. 259
Myczkowski, J. 16, 17, 251
Nafziger, E.D. 234
Nair, A. 159
Narimatsu, J. 122
Nelson, P.V. 245
Nelson, R. 94
Neufville, M. 141
New South Wales, Dept. of Agriculture 229
Newsom, L.J. 253
Nicholls, Richard, 11
Nickell, C.D. 231
Niedziela, C.E. Jr 245
Nishina, H. 244
Noguera, V. 88
Nonami, H. 95
Norvell, W.A. 176, 224
Nylund, J.E. 66
O'Regan, R.J. 116
O'Shea, J. 282
Obraztsov, A.S. 260
Oebker, N. F. 131
Ogbuehi, C.R. 75
Okano, T. 40
Okon, Y. 51
Onokpise, O.U. 173
Orzolek, M.D. 71
Pardossi, A. 87, 154, 237
Pastor, J.J. 88
Paulin, J.P. 192
Pearce, B.D. 93
Peer, R. van 206, 218
Peet, M.M. 245
Pegg, G.F. 161
Percich, J.A. 103
Peterburgskii, A.V. 177
Peterson, J.C. 150, 155
Peterson, T.A. 81
Philipsen, D.J. 132
Piutkin, S.N. 260
Pomeranke, G.J. 231
Popazova, A.D. 147
Powell, W. 144
Power, J.B. 144
Price, T.V. 258
Prince, R. 267
Pritchard, M.W. 7
Proft, M. De 162
Rakocy, J.E. 115, 159
Ramon, A.M. 13
Rattink, H. 218
Resh, Howard M. 104, 106, 105, 113, 125
Revilla, E. 96
Richardson, S. 130
Riser, E.C. 60
Robertson, M.R. 7
Rose, R.W. 235
Rouchaud, J. 79
Rowe, R.N. 250
Rozdin, I.A. 219
Rozek, S. 16, 17, 251
Sabinina, E.D. 219
Sady, W. 16, 17, 251, 283
Sager, J.C. 215
Sale, P.J.M. 266
Sardinsky, R. 288
Sasaki, K. 25, 200
Sasse, K. 109, 110
Savage, Adam J. 138, 175
Save, R. 170
Saxena (Nee' Sinha), S. 152
Scarponi, L. 167
Schapaugh, W.T. Jr 256
Schippers, B. 206, 218
Schippers, P.A. 112, 246
Schlagnhaufer, B.E. 71
Schmeil, H. 32
Schrevens, E. 162
Schuerger, A. 267
Schuerger, A.C. 72
Schwarz, M. 281
Sedcole, J.R. 7
Seif, S.A. 249
Sellstedt, A. 90
Serrano, L. 170
Shaverdian, A.N. 35
Shaw, D.R. 253
Shell, G.S. 266
Shijun, L. 5
Shimomura, K. 143
Sholto Douglas, James, 4, 10
Siliutna, IU.I. 3
Silva, G.H. 21, 169
Sims, T.V. 212
Singh, J.S. 152
Siraj-Ali, M.S. 155
Soffer, H. 65, 207, 238, 239, 257
Soressi, G.P. 87
Spensley, K. 197
Stanghellini, M.E. 29, 73
Sterrett, J.P. 289
Stewart, K. 55, 62, 63, 148
Stewart, K.A. 217
Stinner, R.E. 216
Storm, Daniel 174
Stowell, L.J. 29
Surgucheva, M.P. 147
Sutherland, Struan K. 134
Sutija, J.M. 83
Svanberg, L.R. 183
Szmidt, R.A.K. 118, 171
Tafuri, F. 167
Takano, T. 49, 54
Tamazaki, Y. 25
Tan, Z.Y. 225
Tapp, A. 61
Tayama, H.K. 155
Taylor, J.L. 132
Tedford, E.C. 264
Teoh, T.S. 213
Terazoe, H. 40
Tesi, R. 237
Teyker, R.H. 234
Thompson, P.G. 100
Thys, C. 162
Tibbitts, T.W. 214
Tirranen, L.S. 178
Tisserat, B. 26
Tognoni, F. 154, 237
Togononi, F. 87
Tollenaar, M. 252
Tomlinson, J.A. 18
Toop, E.W. 21, 169
Tret'iakov, N.N. 3
Trudel, M.J. 149
Tsay, J.S. 193
Tsuchiya, K. 122
United States General Services Administration Design Action
Center 233
United States, General Services Administration, Public
Buildings Service 233
University of Illinois, Extension Service in Agriculture and
Home Economics 131
Unver, I. 223
Usta, S. 223
Vaerenbergh, J. van 28, 74
Vanachter, A. 79
Vanderpool, R.A. 12
Vangheel, M. 208
Vanhaelen, M. 143
Vanthomme, P. 162
Vetanovetz, R.P. 150
Volunteers in Technical Assistance 274
Wagenvoort, W.A. 58
Wakoh, H. 200
Walker, G.K. 252
Wallace, A. 172
Wallace, G.A. 172
Wallander, H. 66
Wallick, K. 254
Wang, R.H. 220
Wang, S.S. 220
Ward, A.C.W. 144
Warner, A. 195
Watake, H. 142, 244
Watchke, T.L. 101
Watson, N. 273
Wax, L. 231
Wees, D. 148, 217
Weiland, R.T. 22
Wheeler, R.M. 215
Whiles, R.P. 235
White, J.W. 24, 271
Whitney, L.F. 77
Widders, I.E. 132
Wilcox, G.E. 124, 189, 198, 209, 242, 270
Wilkinson, R.I. 202
Williamson, V.M. 264
Willits, D.H. 245
Wilson, G.C.S. 39, 188
Wilson, K.G. 216
Winsor, G.W. 197
Wojtaszek, T. 16, 17, 251, 283
Wolynetz, M.S. 153
Wright, B.D. 121
Xu, T. 218
Xu, Z.X. 220
Yagil, I. 185
Yamada, M. 80
Yamaguchi, S. 142
Yan, X.L. 278
Yoshimatsu, K. 143
Zaiter, H.Z. 240, 241
Zheltov, Yu.I. 84
Zinnen, T.M. 9, 254
SUBJECT INDEX
2,4-dichlorophenol 228
Acer saccharinum 289
Acids 64
Acreage 5
Adaptability 75
Aeration 148, 193, 217
Agricultural development 249
Agricultural education 136, 141, 166
Air moisture 236
Air temperature 46, 146, 153, 154
Alabama 263
Alcohols 255
Algorithms 32, 142
Aluminum 7
Ammonia 7
Ammonium nitrogen 209, 270
Anaerobiosis 58
Analysis 96
Ancymidol 289
Antagonism 218
Apparatus 45
Application 54, 255
Application rates 164
Applications 289
Aquaculture 220
Aquatic plants 227
Arid soils 211
Artemisia annua 143
Artificial light 255
Ascorbic acid 62
Ash content 84
Australia 247, 287
Autoradiography 190
Auxins 66
Azospirillum 51
Bacterial diseases 208
Bags 5, 170
Basalt 223
Belgium 208, 262
Beta vulgaris var. saccharifera 34
Bibliographies 127, 140
Bicarbonates 148
Bioavailability 277
Biochemical pathways 143
Biological control 146
Biological control agents 146
Biological control organisms 218
Biological treatment 34
Biomass 81, 83
Biomass accumulation 22
Biomass production 75, 254
Biosynthesis 143, 230
Biotechnology 248
Bipolaris 103
Blights 192
Blossom end rot 52, 154
Boron 12, 13, 130
Brachiaria mutica 83
Brackish water 201
Brassica chinensis 278
Brassica napus 287
Brassica oleracea var. capitata 209
Brassica rapa 272
Bromeliaceae 109, 110
Cabt 103, 201, 280
Cadmium 162
Calcium 71, 130, 209, 244, 270
Calcium chloride 240
Calcium deficiency 52, 58
Calcium ions 56, 214
Calcium nitrate 56
California 221
Canadad 128
Capillary rise 15
Capital 80
Capsicum annuum 123, 226
Carbofuran 96
Carbohydrate metabolism 254
Carbon dioxide 148, 214
Carbon dioxide enrichment 21, 169, 254, 255
Cation exchange 224
Cation exchange resins 224
Cations 272
Chelation 224
Chemical analysis 62
Chemical composition 30, 64, 173, 244
China 5, 220
Chlorimuron 253
Chlorine 228
Chlormequat 124
Chlorosis 29
Chrysanthemum 65, 70, 116, 155, 156, 207, 223, 238, 257
Cichorium endivia 77
Cichorium intybus 225
Circulation 157, 250
Clay soils 277
Closed systems 32
Cold storage 235
Cold stress 61
Commercial farming 80, 116
Computer applications 133
Computers 142
Concentration 95, 148, 217
Congresses 138
Conidia 72
Container grown plants 44
Containers 81
Control 89, 142, 200
Control programs 32
Copper 130, 162, 227
Corynebacterium michiganense 74
Costs 119, 275
Crop damage 130, 253
Crop density 215
Crop enterprises 19, 288
Crop production 15, 19, 30, 48, 55, 76, 83, 103, 219, 244,
280, 284
Crop quality 52, 130, 154, 155, 215, 223, 225, 245, 269, 279
Crop sensitivity 231
Crop yield 15, 53, 63, 69, 75, 92, 130, 146, 149, 157, 164,
168, 180, 199, 215, 225, 226, 245, 258, 273, 279, 281
Cropping systems 242
Crown 146
Cucumis melo 38, 54, 142, 209
Cucumis sativus 33, 57, 84, 89, 97, 123, 188, 206, 223, 250,
258, 272
Cultivars 21, 24, 75, 100, 169, 215, 240, 241, 251, 253, 268,
269, 279
Cultivation 86, 221
Cultivation methods 2, 187, 207, 276
Cultural methods 26, 128, 133
Culture media 60, 94
Culture methods 5
Culture techniques 94, 264
Cut flowers 116, 145
Cutting method 239
Cuttings 45, 65, 94, 156, 207, 238, 257
Daucus carota 26, 58
Deficiency 69, 261
Dendranthema morifolium 49
Depletionc 7
Depth 250
Deserts 249
Design 45, 199, 219
Development 63
Developmental stages 25, 142
Dianthus caryophyllus 218, 261
Dikegulac 289
Diploidy 144
Disease control 9, 18, 126, 208, 258
Disease resistance 103, 192, 243
Disease vectors 18
Disinfection 200
Dissolved oxygen 65, 257
Distillation 201
Distribution 284
Diurnal variation 43, 56, 93, 142
Drought 89
Drought resistance 234
Dry matter 84, 260
Dry matter accumulation 54, 68, 70, 81, 88, 204, 205, 209,
214, 252, 270
Duration 52
Earliness 89, 157
Early maturation 124
Economic analysis 48, 168
Economic evaluation 46
Economics 276
Egypt 201, 249
Electric power 15
Electrical conductivity 54, 59, 130, 149, 279
Electrodes 76, 183
Energy requirements 145
England 85, 163, 226, 246
Enrichment 148
Environmental control 40, 169, 255
Environmental factors 93, 103
Enzyme activity 16, 42, 278
Epidemiology 74
Equations 268
Equipment 32
Equipment and supplies 8
Erwinia amylovora 192
Ethylene production 225, 257
Etridiazole 258
Evapotranspiration 266
Experiments 121
Explants 144
Explosives 78
Facilities 5
Farm income 80
Farm size 80
Feedlot effluent 273
Felt 170
Fertigation 34
Fertilizer application 173
Ficus 238
Ficus benjamina 65, 207, 257
Field tests 22, 24
Filtration 44
Firmness 62
Fish culture 115, 159
Fish-culture 114
Fixed costs 80
Flocculants 272
Flooding tolerance 234
Florida 83, 228
Flours 12
Flow 55, 63
Flowering 100
Flowers 5
Food contamination 42, 53
Food crops 104, 105, 106, 113
Food quality 269
Forage crops 176
Forcing 225
Fragaria 28, 120
Fragaria ananassa 13, 54, 97, 102, 243
Fraxinus pennsylvanica 289
Fruit 12, 23, 68, 154
Fruit juices 64
Fruits 52, 62, 93, 146, 179
Fungal diseases 208, 218, 232
Fungicide application 28
Fungicides 18
Furalaxyl 79, 258
Fusarium oxysporum 146, 218
Fusarium oxysporum f.sp. lycopersici 146
Fusarium oxysporum f.sp. pisi 146
Fusarium solani 146, 232
Fusarium solani f.sp. phaseoli 72, 146
Ga 85
Gardening 107
Gas exchange 214
Gases 5
Gel coatings 265
Gels 211
Genetic variation 24, 268
Genotype environment interaction 240
Genotypes 75, 234
Geographical distribution 5�
Geranium 85, 223
Gibberellins 230
Gleditsia triacanthos 151
Globodera rostochiensis 44
Glycine max 231, 253, 277
Grafting 100
Grasses 34
Gravity 284
Greece 102, 157
Greenhouse cropping 87, 248, 262
Greenhouse crops 25, 32, 80, 93, 97, 208, 226, 261, 266, 275,
276, 288
Greenhouse culture 30, 47, 48, 53, 61, 76, 85, 91, 102, 128,
133, 157, 168, 183, 188, 219, 223, 234, 244, 245, 283
Greenhouse experimentation 88, 231
Greenhouse gardening 114
Greenhouse management 175
Greenhouses 46, 54, 84, 92, 112, 114, 116, 142, 145, 175,
190, 201, 280
Growing media 82, 100, 156, 182, 219, 223, 240
Growth 9, 24, 47, 49, 51, 54, 61, 63, 68, 69, 72, 81, 88, 89,
95, 103, 124, 148, 149, 153, 155, 156, 157, 169, 173, 205,
206, 230, 240, 268, 284
Growth chambers 77, 153
Growth rate 1, 22, 66, 70, 81, 85, 87, 93, 154, 180, 225,
234, 235, 250, 252
Growth regulators 100
Growth retardants 242
Haploidy 144
Hawaii 36
Heat 67, 145
Heating 61, 157
Heating costs 46, 47, 48
Herbicide application 231
Herbicide resistance 253
Herbs 217
Historical records 5
History 247
Hordeum vulgare 260
Horticultural crops 193, 196, 262
Horticulture 185, 254
Host range 264
House plants in office decoration 233
Hplc 96
Hybridization 144
Hybrids 84, 144
Hydrangea macrophylla 202
Hydrocotyle 227, 228
Hydrogen 72
Hydroponics 1, 2, 4, 7, 8, 9, 10, 11, 13, 14, 15, 19, 20, 22,
24, 27, 29, 31, 32, 33, 34, 36, 37, 39, 40, 41, 44, 45, 46,
47, 48, 51, 55, 56, 58, 61, 63, 65, 66, 67, 72, 75, 77, 80,
81, 82, 83, 84, 85, 86, 92, 95, 96, 97, 98, 100, 102, 103,
104, 105, 106, 107, 108, 109, 110, 112, 113, 114, 115, 116,
118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129,
130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141,
142, 143, 144, 146, 148, 151, 153, 155, 156, 159, 162, 166,
168, 170, 171, 173, 174, 175, 176, 179, 183, 185, 187, 189,
192, 193, 194, 198, 199, 200, 202, 203, 205, 206, 207, 208,
210, 211, 218, 219, 221, 223, 224, 225, 230, 231, 232, 233,
234, 235, 236, 239, 240, 241, 242, 244, 245, 247, 248, 250,
252, 253, 254, 255, 257, 258, 260, 261, 263, 264, 265, 267,
268, 269, 272, 273, 274, 275, 276, 278, 279, 280, 281, 284,
285, 287, 288, 289
Hysteresis 76
Illumination 92
Imazaquin 253
Immunoassay 143
Improvement 201
In vitro 94
In vitro culture 243
Inbred lines 22
Incidence 146
Income 19
Indiana 198
Indoles 277
Industrial methods 40, 220
Infections 146
Infectivity 72, 161
Inflorescences 202
Information services 40
Inhibitors 230
Innovations� 45
Inoculant carriers 195
Inoculation 66
Inoculum 146, 195
Inoculum density 72
Insect control 126
Insecticide residues 96
Instruments 40
Integrated systems 115
Intensive production 269
Interactions 162
Intercropping 92, 168
Interspecific hybridization 144
Investment 80
Ion balance 72
Ion exchange 183
Ion transport 162
Ion uptake 43, 142, 162, 204, 244
Ions 7, 31, 95
Ipomoea aquatica 278
Ipomoea batatas 75, 94, 100, 164, 263
Iron 29, 49, 130, 162
Irrigation 63
Irrigation systems 36, 280
Isotope labeling 12
Israel 229
Japan 40, 80, 248
Kernels 252
Kinetics 277
Laboratory equipment 194
Laboratory rearing 264
Lactones 143
Lactuca 283
Lactuca sativa 15, 21, 42, 46, 47, 48, 53, 55, 56, 59, 63,
71, 97, 115, 123, 148, 153, 162, 168, 169, 170, 195, 206, 251,
255, 278
Lead 227
Leaf analysis 23, 88
Leaf area 70, 214
Leaf area index 226
Leaves 56, 84, 144, 162, 214, 254, 268
Length 151�
Lettuces 60, 92, 288
Light 9, 53
Light intensity 164
Light regime 164
Light relations 70, 164
Line differences 22, 240
Lines 231
Literature reviews 161
Lolium perenne �268
Lycopersicon esculentum 16, 17, 23, 25, 31, 32, 33, 39, 43,
52, 54, 61, 62, 64, 68, 69, 74, 79, 81, 87, 88, 89, 91, 92,
93, 97, 118, 124, 146, 149, 154, 157, 161, 163, 168, 171, 179,
183, 188, 190, 198, 199, 200, 204, 205, 206, 223, 224, 236,
242, 244, 245, 264, 269, 270, 273, 279, 283
Magnesium 130, 176, 209, 214, 270
Maine 288
Malaysia 119
Malic acid 245
Management 40
Manganese 130, 162
Marihuana 174
Marketing 184
Maryland 141
Massachusetts 19, 225
Mathematical models 30, 47, 268
Mats 86
Measurement 30, 93
Medicinal plants 143
Meloidogyne javanica 264
Melon necrotic spot virus 18
Membranes 204
Metabolism 79, 277
Metabolites 78, 277
Metal ions 224
Methodology 109
Microbial activities 211
Microcomputers 40
Microflora 60
Micropropagation 26, 94
Mineral content 56, 162, 179, 204, 209, 214, 270
Mineral deficiencies 56, 204
Mineral nutrition 52, 54, 179, 192
Miniature cultivars 202
Minnesota 103
Mist irrigation 26
Mist propagation 45, 238
Mists 207, 257
Models 32
Molecular conformation 143
Molybdenum 130, 204
Monitoring 76, 130
Morphology 250
Mortality 154
Mycorrhizal fungi 66, 195
Nasturtium officinale 18, 184
Nematode control 44
Nematode juveniles 264
Net assimilation rate 252
New South Wales 145, 279
New York 14, 48
Nickel 224
Nitrate 43, 278
Nitrate fertilizers 17, 251
Nitrate nitrogen 209, 270
Nitrate reductase 16, 42
Nitrates 42, 51, 53, 244
Nitrogen 192
Nitrogen assimilation 180
Nitrogen content 22, 209
Nitrogen fertilizers 164
Nitrogen fixation 51
Nitrogen metabolism 278
Non-traditional crops 184
Nutrient availability 56, 209, 214, 224, 254, 270
Nutrient balance 283
Nutrient concentration 183
Nutrient content 33, 130, 200, 214�
Nutrient contents 52
Nutrient contents of plants 283
Nutrient deficiencies 130, 261
Nutrient excesses 130
Nutrient film techniques 2, 5, 14, 16, 17, 21, 23, 25, 26,
28, 30, 38, 39, 42, 43, 53, 54, 55, 56, 57, 59, 61, 62, 63,
64, 67, 68, 69, 70, 71, 74, 75, 76, 79, 84, 85, 87, 88, 89,
91, 93, 94, 97, 119, 130, 139, 140, 145, 146, 148, 149, 150,
153, 154, 156, 157, 161, 163, 164, 168, 169, 183, 187, 188,
189, 190, 195, 196, 198, 202, 204, 205, 209, 214, 215, 217,
219, 220, 226, 227, 228, 244, 251, 258, 262, 263, 266, 269,
270, 275, 276, 280, 283
Nutrient nutrient interactions 204, 209, 214, 270
Nutrient removal by plants 52, 154
Nutrient requirements 103
Nutrient solutions 2, 12, 15, 16, 21, 30, 31, 32, 33, 39, 40,
44, 52, 54, 55, 56, 57, 59, 60, 60, 61, 71, 76, 79, 82, 91,
95, 97, 103, 112, 130, 140, 142, 148, 149, 154, 155, 157, 159,
173, 179, 192, 193, 194, 198, 202, 209, 215, 217, 223, 224,
236, 244, 250, 251, 253, 260, 264, 270, 273, 278, 279, 281,
284
Nutrient transport 162, 204
Nutrient uptake 33, 43, 49, 54, 142, 155, 162, 187, 194, 198,
204, 205, 214, 270, 277
Nutrients 31, 88
Nutritive value 12
Ocimum basilicum 254
Ohio 184
Olpidium brassicae 18
On line 40
Ontario 133
Operation 201
Optimization 46
Orchards 229
Organic compounds 49
Organic farming 184
Organic soils 277
Ornamental plants 38, 44, 182, 238
Oxygen 148, 205
Oxygen requirement 58
Ozone 200
Paclobutrazol 202, 230
Pathogenesis 161
Pathogenicity 72, 103, 264
Peat 195, 205
Pelargonium 150
Pennisetum purpureum 83
Periderm 215
Perlite 39, 118, 171, 188, 223
Ph 130, 155, 176, 204, 253, 278
Phaseolus acutifolius 240
Phaseolus vulgaris 24, 78, 95, 209, 232, 240, 241, 284�
Phenolic compounds 203
Phosphates 130
Phosphorus 204, 209, 254
Photoperiod 254
Photosynthesis 54, 66, 164, 214
Phragmites australis 34
Physical control 44
Phytophthora 161
Phytophthora cryptogea 258
Phytophthora fragariae 28
Phytophthora nicotianae var. parasitica 243
Phytotoxicity 130, 231, 240, 253, 281
Pig slurry 273
Pinus sylvestris 66
Pinus taeda 1, 235
Plant colonization 232
Plant composition 42, 53, 143
Plant damage 215
Plant density 87, 252
Plant development 68, 88, 202
Plant disease control 146, 218
Plant diseases 9, 110, 267
Plant disorders 58
Plant establishment 94
Plant growing media, Artificial 11
Plant height 87, 240
Plant metabolism 17
Plant morphology 151
Plant nutrition 7, 9, 33, 37, 103, 155, 180, 183, 187, 194,
206
Plant organs 68
Plant parasitic nematodes 44, 264
Plant pathogenic bacteria 200
Plant pathogenic fungi 103
Plant pathogens 73
Plant pests 110
Plant physiology 121
Plant production 46, 189, 276
Plant propagation 45, 150
Plant protection 146
Plant tissues 53
Plant viruses 18
Plant water relations 245
Plants 14, 129
Plasma 204
Plastic film 112
Plastic foams 203
Plastic mulches 31, 37
Plastic tunnels 61
Plastics 280
Plastics in agriculture 210
Ploidy 144
Poland 82
Pollutants 14, 227
Polyethylene film 36, 280
Polymers 211, 265, 272
Polyurethane foams 97
Polyurethanes 86, 89
Pot plants 202
Potassium 7, 7, 43, 130, 209, 214, 244, 270
Potassium fertilizers 164
Potassium nitrate 54
Potato mop top furovirus 18
Pots 89
Practical education 166
Pressure treatment 225
Problem solving 5
Production 25, 195
Production costs 221
Production economics 116
Profitability 275
Propagation 110
Propagation materials 207, 257
Protected cultivation 84, 182, 196, 220
Prunus persica 230
Pseudomonas 206, 218
Pseudomonas putida 232
Purification 201
Pyracantha 192
Pythium aphanidermatum 29, 73
Pythium irregulare 258
Quality 67
Quantitative techniques 283
Radionuclides 204
Ratios 164, 170, 209, 270
Recycling 33, 86
Regenerative ability 144
Regulation 72, 95
Relative humidity 154
Remote control 40
Requirements 13
Research 267, 276
Research organization 247
Research projects 220, 247, 262
Resins 176
Respiration 66
Responses 61, 66, 69, 156, 284, 289
Returns 80
Rhizoctonia 146
Rhizosphere 31
Rockwool 5, 39, 54, 89, 93, 97, 133, 205, 211, 226
Root hydraulic conductivity 151
Root rots 29, 73, 146
Root systems 65, 81, 84, 151, 234
Root zone temperature 54, 67, 70, 145
Rooting 156, 207, 238, 239, 257
Rooting capacity 65
Roots 1, 24, 51, 69, 72, 75, 81, 151, 154, 164, 173, 204,
205, 232, 235, 236, 240, 241, 250, 270, 278
Rosa 54
Rosa multiflora 145
Roses 67
Saline water 201, 281
Salinity 57, 64, 68, 93, 154, 240, 241
Salmonella typhimurium 60
Salt tolerance 240, 245, 285
Salts 215
Sand 182, 240, 241
Sand stabilization 265
Scotland 39, 118, 188
Screening 75, 240, 287
Seasonality 55
Seed germination 203
Seed production 110
Seedlings 25, 66, 95, 122, 146, 173, 235, 289
Selection 285
Selection criteria 243
Sensors 30, 76, 142, 244
Sensory evaluation 269
Sesamum indicum 272
Sesquiterpenes 143
Set 154
Sewage 14, 34
Sewage effluent 228
Shoots 173, 204, 209, 234, 240, 241, 250, 270
Silicon 103
Simazine 287
Simulation models 48
Sodium chloride 57, 240
Soil amendments 211
Soil analysis 23
Soil conditioners 170
Soil moisture 211
Soil reclamation 265
Soil salinity 69
Soil water content 234
Soil water regimes 234
Soil water relations 37
Soilless culture 5, 182, 188, 220, 262, 280, 283
Solanum melongena 123
Solanum microdontum 144
Solanum tuberosum 144, 206, 214, 215
Solar energy 201, 248, 249
Solutions 157
Sorghum bicolor 285
Source sink relations 252
Space flight 121
Space science 263
Spain 88, 182
Spinach 29
Spinacia oleracea 73, 122, 203, 254
Spongospora subterranea 18
Spore germination 72
Spring 61
Starch 235, 254
Stem elongation 145
Stems 84, 144
Strains 146, 218
Stress 81, 240, 242
Stress conditions 57, 89
Stress response 57
Structures 126
Substrates 97, 102, 170, 205, 276
Sugars 64
Sulfur 214
Supplementary light 71, 92, 150, 168
Surveys 128, 262
Symbiosis 66
Symptoms 161, 261
Systems 40, 126, 199, 236, 284
Teaching materials 141
Teaching methods 141
Technical progress 133
Techniques 82, 86, 173, 221
Technology 122
Temperature 9, 47, 48, 53, 69, 72, 76, 93, 148
Temperatures 71, 73, 84, 91
Textiles 170
Tilapia 115�
Tillering 268
Tipburn 56
Tissue culture 26, 144
Tolerances 287
Tomatoes 79, 96, 125, 179, 269, 279
Topping 25
Total solids 279
Toxicity 272
Transient flow 149
Translocation 66
Transpiration 93, 266
Transplanting 25, 242
Transplants 124
Treatment 202, 230
Trends 128
Trickle irrigation 226, 229
Trifolium repens 7
Triticum aestivum 51, 176, 180, 234, 272
Triticum durum 180
Tropical climate 38
Troughs 119
Tubers 214, 215
Tuff soils 223
U.S.A. 276, 280
Ultrasonics 26
Ultraviolet radiation 29, 200
United Kingdom 275
United states virgin Islands 115, 159
Uptake 7, 51, 78, 227
Urea 278
Urease 278
USA 165
USSR 35
Vacuum tanks 284
Valerianella locusta 86
Vapor pressure 69
Varietal reactions 75, 234
Varietal susceptibility 192, 253
Varieties 97, 231, 285, 287
Vegetable gardening 114
Vegetables 5, 12, 19, 38, 40, 80, 119, 126, 132, 182, 208,
280
Vegetative period 43
Vegetative propagation 238
Vigna radiata 72
Vineyards 229
Virulence 146
Vitis 221
Vitis rotundifolia 173
Vocational training 141
Volume 81
Waste water treatment 14, 227, 228
Waste waters 83
Wastes 170
Water 5, 170
Water content 200
Water potential 268
Water purification 14
Water quality 130
Water supplies 63
Water uptake 43, 88, 170
Water use 32
Water use efficiency 226
Weightlessness 121
Wheat 12, 27
White clover 7
Wilts 218
Winter wheat 176
Woody plants 65
Yield components 180
Yield increases 124, 255
Yield response functions 59, 64, 77, 87, 163, 223
Yields 67, 89, 91, 119, 145, 169, 170, 217, 251, 283
Zea mays 22, 209, 252
Zinc 130, 162, 176
Zizania palustris 103