1
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Aircraft Total Life Cycle Assessment Software Tool (ATLASTTM)
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PM Utility Helicopter for UH-60M, Lowell Bidwell 256-313-1616
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Sean Connors, Clockwork Solutions 512-338-1945 x111
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Tool to support Army aircraft overhaul and repair cost estimating using variables such as: flying hour programs by station location, component age and reliability, repair capacity and time, life limits, customer wait times, and spares acquisition schedules.
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Program: UH-60M; Purpose: component reliability requirements, Availability
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2
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ALTA
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Members of ARDEC Reliability Mgmt Branch, POC is RMB Chief, Dr. Jason Cook, Jason.Cook1@us.army.mil, 973-724-3930
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Reliasoft
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Develop accelerated life testing plans and evaluates data to determine life estimates
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Used to determine shelf and service life of ammo and weapon systems
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3
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AMSAA Reliability Growth Suite
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Danielle Wayda, 586-574-6863, danielle.wayda@us.army.mil
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AMSAA
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This software is used to create reliability growth curves to project idealized growth. It also functions as a software tool to track reliability growth throughout testing.
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This software will be used on the JLTV program in order to determine that the CDD reliability requirements are achievable. It will also be used to track vendor's growth throughout the various phases of the program.
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4
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ARENA
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PM Medium Altitude Endurance for Sky Warrior, Kirk McCollum, 256-313-5355
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Rockwell Software
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Ao Tool for analyzing complex, medium to large scale projects involving highly sensitive changes related to supply chain, manufacturing, processes, logistics, distribution, warehousing, and service systems.
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Program: Sky Warrior UAS Purpose: Reliability, Availability performance requirements
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5
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AUTODISE
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Chris Bolton, PM-MEP 703-704-1995 chris.bolton@us.army.mil
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Internal development
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This model calculates the most efficient distribution of power sources and distribution equipment based on the physical layout of the using system, the power consuming equipment in use in that system, and the assumed duty cycles and mission profiles of that system. This produces a more accurate solution as opposed to taking nameplate power values or using peak power requirements.
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We use this model on multiple generator fielding efforts to determine the most efficient allocation of generator and power distribution equipment. The Central Power concept for standardized Command Post organizations is a prime example. The number of generator sets is obviously a LCC driver for the user, but the average loading (and efficiency) of these sets drives fuel consumption, which is a much bigger element of total LCC.
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6
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Automated Cost Estimate – Integrated Tool (ACE-IT)
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Used throughout the Army
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Tecolote
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A predictive cost modeling tool used to prepare Life Cycle Cost Estimates for Weapon Systems. The ACE-IT Model can respond to “what/if” excursions, estimating future costs based on a given scenario.
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This model is required for all ACAT level I and II programs and is recommended for ACAT III programs.
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7
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Automated Cost Estimate – Integrated Tool (ACE-IT)
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Maj Mike Mastria, USMC David Holm, Army 586-574-5680
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Tecolote Research, Inc.
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Tool for developing, sharing, analyzing, and reporting life cycle costs of the product of an acquisition program.
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ACE-IT is being used on the JLTV program to evaluate the effect of program and design changes on life cycle cost.
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8
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Automated Cost Estimating Integrated Tools (ACE-IT)
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Chris Waltsak 732-427-5936
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Tecolote Research, Inc.
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The Army’s Automated Cost Estimating Integrated Tools (ACE-IT) is an integrated tool suite designed to facilitate cost estimating. ACE-IT is an integrated tool suite of several software products specifically designed for the cost estimating community. Core features include a database to store technical and normalized cost data, a statistical package specifically tailored to facilitate cost estimating relationship (CER) development, and a uniquely designed spreadsheet that promotes structured, systematic model development and built-in government approved proven inflation, learning, time-phasing, documentation, sensitivity, what/if, risk, and other analysis capabilities. ACE-IT integrates all the necessary cost estimating functions but allows you to enter the process at any level.
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We are using LCET as one of the tools to help us develop our Type II Business Case Analysis in pursuit of a Performance Based Logistic, Life Cycle Sustainment program for our target DCGS-A Mobile System
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9
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Automated Cost Estimating Integrated Tools (ACE-IT)
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PM Unmanned Aircraft Systems; Kirk McCollum, 256-313-5355. PM Aviation Systems, PD Joint Cargo Aircraft; Mike Tesi, 256-313-3745
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ASA(FMC) Army Cost and Economics
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Tool for analyzing, developing, sharing, and reporting cost estimates, providing a framework to automate key analysis tasks and simplify/standardize the estimating process.
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Program: Sky Warrior UAS, Joint Cargo Aircraft, Purpose: O&S cost estimation
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10
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Automatic Requirements Computation System Initial Provisioning (ARCSIP)
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CECOM; Ken Steinberg, LEO-S-SM-P
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CECOM
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The ARCSIP system is designed to automatically compute initial issue quantities (IIQ) consisting of order ship time, operating level, and safety level quantities for non-repairable items; and order ship time, operating level, safety level and turn around quantities for repairable items. Replenishment quantities are also computed. These are the gross quantities required to support an EI for up to 5 years for locally managed items, and for the first 12 months of deployment for non-locally managed items. In short, the system computes the support items required to support new EIs being fielded. Computation of the gross initial issue and replenishment quantities is accomplished by bringing together the PMR, the EIP file, the MMD file, the ARCSIP formulas based on DoD, DA, and Development and Readiness Command policies and regulations.
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11
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BlockSim
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Members of ARDEC Reliability Mgmt Branch, POC is RMB Chief, Dr. Jason Cook, Jason.Cook1@us.army.mil, 973-724-3930
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Reliasoft
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Develop system reliability and availability models from component or failure mode level inputs for evaluation of system/platform or SoS level reliability and operational availability(Ao)
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Determine compliance with requirements or assist in requirement validation and decomposition in areas of RAM. Also useful in testing sparing and repair strategies and optimizing CBM, applicable to any system type.
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12
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Computerized Optimization Model For Predicting and Analyzing Support Structure (COMPASS)
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Bill Colon
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Government
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The Computerized Optimization Model for Predicting and Analyzing Support Structures (COMPASS) is the Army standard Level of Repair analysis (LORA) model that optimizes maintenance concepts to achieve an end item Operational Availability (Ao) at the least total ownership cost. A LORA determines where each item is cost effectively repaired. SESAME algorithms are embedded in COMPASS to simultaneously optimize maintenance and supply support. COMPASS was designed to determine steady state, full deployment LORA and SORA decisions by comparing the net present value logistics cost estimates that vary by maintenance policy. COMPASS requires information about the line replaceable units (LRUs) used to restore the end item and higher failure rate shop replaceable units (SRUs) used to repair LRUs. It has the fidelity to permit a RAM analysis of the detailed design to show life cycle support cost impacts associated with each item modeled in the equipment. Support costs associated with design improvements can be compared to the baseline design to assess the improvement's potential to reduce life cycle support costs. This helps supportability analysis to become an integral part of systems engineering.
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COMPASS enables supportability optimization prior to fielding. COMPASS can also be used as a source of repair analysis (SORA) model. A SORA model determines how each item is cost effectively repaired. COMPASS can be used to compare the total costs associated with government depot repair versus contractor depot maintenance in achieving the same Ao goal. A best value analysis would apply to non-core depot work.
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13
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Computerized Optimization Model For Predicting and Analyzing Support/ Structure (COMPASS)
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Chris Waltsak 732-427-5936
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LOGSA
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The Computerized Optimization Model for Predicting and Analyzing Support Structures or COMPASS is an Army approved, PC-based computer model, sponsored by the U.S. Army Logistics Support Activity (LOGSA), and is designed to assist analysts in conducting a variety of system support studies. The objective of COMPASS is to simultaneously optimize both the maintenance concept and supply while achieving a given operational availability goal. The COMPASS mode provides quantitative analysis of the different hardware product support strategies.
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We are using LCET as one of the tools to help us develop our Type II Business Case Analysis in pursuit of a Performance Based Logistic, Life Cycle Sustainment program for our target DCGS-A Mobile System.
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14
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Computerized Optimization Model For Predicting and Analyzing Support/ Structure (COMPASS)
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Mark D. Patrizi 256-955-6310, mark.patrizi@conus.army.mil
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LOGSA
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Level of Repair Analysis (LORA) model which provides the optimal, least cost maintenance policy for a weapon system. Utilizes system part specific information such as reliability, availability, and maintainability data to determine best repair locations and resources required (spares, repairmen, and support equipment).
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COMPASS is utilized by many programs to determine optimal maintenance policies. Recently, the software was used to perform LORA on systems such as the AH-64A, CH-47D, CROWS, and Prophet. 2200 (CECOM, TACOM, AMCOM, AMSAA, AEC, KEM PO, MEADS PO, GMD Joint PO, JPM Lightweight Howitzer, Precision Fires PO, PEO CBD, Naval Aviation Weapons Center, PM Multi-Spectrum Sensors, PM Prophet, Others)
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15
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Computerized Optimization Model For Predicting and Analyzing Support/ Structure (COMPASS)
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PM Utility Helicopter for UH-60M PM Cargo Helicopter for CH-47F. POC: Joe Ketron, 256-955-0238 PM Apache Attack Helicopter for AH-64D and Apache Block III 256-313-4988 PM Aviation Systems, PD Joint Cargo Aircraft Mike Tesi, 256-313-3745
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LOGSA Logistics and Engineering Center
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Analytical methodology used to determine the maintenance level where the removal and replacement, repair, or the discard of an item should be performed.
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Program: UH-60M, CH-47F, AH-64D, Apache Block III, Sky Warrior, JCA Purpose: Availability, O&S Cost estimation
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16
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Computerized Optimization Model for Predicting and Analyzing Support Structures (COMPASS)
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ATEC-AEC-ILSED Wayne Patterson 410-306-0357 wayne.patterson@us.army.mil
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LOGSA
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Level of Repair Analysis (LORA) model that determines the optimal system level maintenance policy to meet a weapon system/end item operational performance target.
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Used on numerous programs to conduct Level of Repair Analyses (LORA) and to evaluate system maintenance concepts.
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17
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Computerized Optimization Model for Predicting and Analyzing Support Structures (COMPASS)
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Vincent DiNicola 732-532-4565 DSN 992-4565 Vincent,dinicola@us.army.mil
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US AMC –Logsa: Logistic Support Activity.
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COMPASS is a model designed to assist the analyst in conducting a Level Of Repair Analysis (LORA) study and is the Army's approved system-level LORA model. The COMPASS program will identify the most cost effective maintenance concept.
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LORA is an analytical methodology used to establish the maintenance level at which an item will be replaced, repaired or discarded. These decisions are based upon operational readiness requirements. LORA determines the most cost effective maintenance concept for a system.
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18
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Computerized Optimization Model For Predicting and Analyzing Support Structure (COMPASS) Level of Repair Analysis (LORA)
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Terri Schwierling, 256-876-3561, terri.schwierling@us.army.mil
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COMPASS is a PC based computer model designed to assist in conducting a Level of Repair Analysis (LORA). LORA is an analytical methodology used to determine the maintenance level where the removal and replacement, repair, and/or discard of an item should be performed. COMPASS is the Army approved system level LORA model.
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Multiple Programs
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19
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Cost Analysis Strategy and Assessment Model (CASA)
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Terri Schwierling, (256) 876-3561, terri.schwierling@us.army.mil
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Life Cycle Cost (LCC)/Total Ownership Cost (TOC) decision support tool. CASA covers the entire life cycle of the system, from initial research cost to those associated with yearly maintenance, as well as spares, training cost and other expenses.
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Multiple Programs
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20
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Cost Analysis Strategy Assessment (CASA)
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Phil Paschel, 256-955-9922, phillip.paschel@us.army.mil
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LOGSA
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Life cycle cost model and systems engineering decision support tool that calculates total cost of ownership from initial design until disposal with a focus on the detailed cost elements over the operational life of a system. Extensive trade off and sensitivity analysis capabilities for "gaming" cost impacts of support concepts, spares provisioning, reliability growth, availability, production rates, etc.
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CASA is used by many PMs throughout DoD and their support contractors to evaluate the life cycle cost impacts of different design and support alternatives and to identify cost drivers in accordance with sound systems engineering guidance. 1400 registered users from many different PMs and support organizations (e.g., CECOM, TACOM, AMCOM, PM FCS, PM Blackhawk, Joint GMD, Navy, Air Force, NASA)
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21
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Joint Integrated Analysis Tool
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Daniel L. Schwartz (703) 601-4183daniel.schwartz@hqda.army.mil
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Office of the Deputy Assistant Secretary of the Army –Cost and Economics ( HQDA – ASA(FM&C)
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The Joint Integrated Analysis Tool (JIAT) concept is an architecture that allows models in the functional areas of cost estimating, engineering design, requirements, capability, and performance analysis to be linked together. JIAT provides a near realtime cost estimating capability to the acquisition, requirements modeling and simulation (M&S) and communities. JIAT provides the capabilities for cost and requirements analysts to develop cost estimates and perform cost performance trades at the system level with the limited amounts of data available early in a program’s lifecycle.
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Users of JIAT will be able to perform life cycle cost analysis which can include early design concept data such as performance and capabilities based costing. JIAT incorporates various analytical models to perform trade-off analysis with optimization techniques. JIAT will also benefit requirements analysts and engineers in developing cost estimates.
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22
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Laser HELLFIRE Integrated Flight Simulation (IFS)
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Jim Utterback 256-876-4618 Jim.Utterback@us.army.mil
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Lockheed Martin & U.S. Army
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Life cycle system analysis tool used to evaluate performance of the Laser HELLFIRE system throughout the system lifecycle from product improvements, operations and maintenance and end of the system.
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Used on the Laser HELLFIRE Missile System to support product improvements, testing, system analysis, and assessment of system performance.
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23
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Logistics Analysis Model (LOGAM)
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PM Utility Helicopter Lowell Bidwell 256-313-1616
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SPARTA, Inc., endorsed by LOGSA
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Forecast logistics support parameters and operating and sustainment costs associated with the system’s evolving design when supported by alternate envisioned maintenance concepts.
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Program: UH-60M Purpose: O&S cost estimation
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24
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Logistics Cost Estimating Tool (LCET)
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Bill Colon
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Government
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LCET estimates logistics costs for a weapon system. The logistics costs are broken into 25 cost categories listed on their website. LCET can be used to establish a logistics cost baseline and to quantify cost savings resulting from improvements and changes to the weapon system and the way it is supported.
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LCET uses operating hours and mean time between failures (MTBFs) to calculate some of the logistics costs. It can also be used to evaluate a weapon system's logistics costs associated with different proposals in a source selection.
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25
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Logistics Cost Estimating Tool (LCET)
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Chris Waltsak 732-427-5936
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Gov. Provided Software
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The CECOM Logistics Cost Estimating Tool (LCET) is an estimating tool for weapon systems, was used in conjunction with COMPASS to assist in time phased analysis and display of data. The Logistics Cost Estimating Tool (LCET) estimates the logistics costs for a weapon system. The logistics costs are broken into 25 cost categories, which are shown below: 1. Military Operators 2. Energy (Batteries/Petroleum) 3. Field Support (Material Fielding & Logistics Assistance) 4. Organic Repair Labor * 5. Contractor Repair and Other Contractor Logistics Support * 6. Warranty Costs 7. Scheduled Maintenance and Overhaul 8. Initial Provisioning Spares * 9. Replenishment Spares * 10. Inventory Holding Costs * 11. Support Equipment * 12. Test Program Sets * 13. Training 14. Training Material 15. Post Deployment Software Support 16. Technical Documentation * 17. Transportation ** 18. Integrated Material Management ** 19. Post Production Project Management 20. System Hardware Changes 21. Facilities/Site Activation 22. System Specific Base Operation 23. Leases 24. Demilitarization and Disposal 25. Industrial Readiness LCET consists of two modules: Time Phased (TP) COMPASS and the Logistics Cost Spreadsheet. You may use the Logistics Cost Spreadsheet in conjunction with Time Phased COMPASS or as a stand alone tool. Using it in conjunction with Time Phased COMPASS requires more detailed data but will provide a better cost estimate than using it as a stand alone tool. The Army’s Automated Cost Estimating Integrated Tools (ACE-IT) is an integrated tool suite designed to facilitate cost estimating. ACE-IT is an integrated tool suite of several software products specifically designed for the cost estimating community. Core features include a database to store technical and (normalized) cost data, statistical package specifically tailored to facilitate cost estimating relationship (CER) development and a uniquely designed spreadsheet that promotes structured, systematic model development, and built in government approved proven inflation, learning, time phasing, documentation, sensitivity, what/if, risk and other analysis capabilities. ACE-IT integrates all the necessary cost estimating functions but allows you to enter the process at any level.
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We are using LCET as one of the tools to help us develop our Type II Business Case Analysis in pursuit of a Performance Based Logistic, Life Cycle Sustainment program for our target DCGS-A Mobile System
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26
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Logistics Cost Estimating Tool (LCET)
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Bill Colon
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Government
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LCET estimates logistics costs for a weapon system. The logistics costs are broken into 25 cost categories listed on their website. LCET can be used to establish a logistics cost baseline and to quantify cost savings resulting from improvements and changes to the weapon system and the way it is supported.
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LCET uses operating hours and mean time between failures (MTBFs) to calculate some of the logistics costs. It can also be used to evaluate a weapon system's logistics costs associated with different proposals in a source selection.
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27
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Logistics Cost Estimating Tool (LCET)
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Chester Shadovitz 732-532-1222 DSN: 992-1222
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LCMC-G3/5, Systems Analysis Division
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LCET estimates the logistics costs for a weapon system. The logistics costs are broken into 25 cost categories.
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LCET can be used to establish a logistics cost baseline and to quantify cost savings resulting from improvements and changes to the weapon system and the way it is supported. It can also be used to evaluate a weapon system's logistics costs associated with different proposals in a source selection.
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28
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Longbow HELLFIRE Simulation
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Jim Utterback 256-876-4618 Jim.Utterback@us.army.mil
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U.S. Army
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Life cycle system analysis tool used to evaluate performance of the Longbow HELLFIRE system throughout the operations and maintenance and end of the system lifecycle phases.
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Used on the Longbow HELLFIRE Missile System to support testing, system analysis, and assessment of system performance.
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29
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Minitab
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Members of ARDEC Reliability Mgmt Branch POC is RMB Chief, Dr. Jason Cook, Jason.Cook1@us.army.mil 973-724-3930
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Minitab, Inc.
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Statistical SW package for DoE and other statistical analysis methods
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Used for DoE, LSS, SPC, and similar. Not unique to any specific system type.
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30
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Multi-Attribute Decision Methodology (MADM)
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Chuck Wong 732-532-5170 DSN: 992-5170
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LCMC – G3/5 Systems Analysis Division
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MADM is an analysis approach based on Decision Theory that evaluates multiple decision criteria including cost on the same scale.
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Its objective is to evaluate the combined results of cost savings and other non-cost related evaluation criteria to determine the Best Value alternatives in support of decision making.
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31
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Operation & Support Management Information System (OSMIS)
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Used throughout the Army
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Tecolote
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A tracking tool of operation and support needs and costs for various Army Weapon programs
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Tool can be used by using actual data as a means to estimate future costs.
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32
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Optimum Stock Requirements Analysis program (OSRAP)
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ATEC-AEC-ILSED Wayne Patterson 410-306-0357 wayne.patterson@us.army.mil
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AMSAA
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Stock computation model that uses Readiness Based Sparing to provide a package of spare parts optimized on cost, weight or volume while targeting operational availability. Handles multiple systems, is less data intensive than SESAME, and supports wartime environment.
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Used for virtually any set of end items to conduct footprint analysis, primarily for Class IX, but can be expanded to include other classes of supply.
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33
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Optimum Stock Requirements Analysis Program (OSRAP)
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Charlotte Evering 410-278-4980 charlotte.evering@us.army.mil
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AMSAA
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Stock computation model that uses Readiness Based Sparing to provide a package of spare parts optimized on cost, weight or volume while targeting operational availability. Handles multiple systems, is less data intensive than SESAME, and supports wartime environment.
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Used for virtually any set of end items to conduct logistics footprint analysis, primarily for Class IX, but can be expanded to include other classes of supply. Model outputs include a recommended parts list, overall summary of the unit, cost drivers, weight and volume drivers, and additional “plus up” quantities needed for the unit to sustain the target readiness rate. Other analyses can be performed based on sensitivity to readiness, cost, weight, or volume. OSRAP is incorporated into the war reserve process (LMP) through its requirements determination module (RDM). OSRAP is used to calculate the Army Prepositioned Stocks, OPLAN sustainability analyses, Deployment Stock Packages (DSP) where the input parts file is tailored specifically to the unit’s past demands, Customer Support Requirements Lists (CSRL), and logistics footprint and concept exploration analyses in assessing Analysis of Alternatives (AoA) of conceptual systems against current unit force structures.
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34
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OV Parser
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Pat Degroodt 732-532-8229 pat.degroodt@us.army.mil
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General Dynamics C4 Systems 400 John Quincy Adams Rd. Taunton, MA 02780-1069
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The Government Furnished Software (GFS) OV parser outputs a spreadsheet containing utilization and throughput metrics based on tiers and resources. Information such as tier utilization (ground to ground), resource utilization, and average tier throughput (ground and space) are presented in the spreadsheet. Tier utilization is a percentage of how much of the ground tier is being utilized. Resource utilization is a percentage of how much each non CI resources are being used in the scenario. The average tier throughput indicates how many bps each tier is handling.
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PM WIN-T uses the OV parser to provide information that is extremely valuable and helps to determine how to best optimize the network. If the ground tier is over utilized, the plan can be modified to relay traffic using other tiers (space) to help alleviate the ground network and vice versa.
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35
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Port Operational Performance Simulator (POPS)
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Arthur Murray DSN 770-5191 Arthur.J.Murray@us.army.mil
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Surface Deployment and Distribution Command Transportation Engineering Agency
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POPS is an equation based calculator of the throughput capacity of an ocean terminal. POPS performs a weakest link analysis of port cargo movement in which each subsystem is analyzed separately and then compared to find aggregate seaport throughput.
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POPS is used across the full spectrum of planning and programmatic mobility studies.
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36
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Port Simulation Model (PORTSIM)
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Kaye Aldrich DSN 770-5206 Kaye.Aldrich@us.army.mil
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MYMIC 200 High Street, Suite 308 Portsmouth, Virginia 23704-3721 USA
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PORTSIM models the reception, staging, and ship loading of military equipment at seaports of embarkation (SPOE) and ship offloading, staging, and port clearance of military equipment at seaports of debarkation (SPOD).
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PORTSIM can be used across the full spectrum of both planning and programmatic mobility studies.
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37
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PRICE-S
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Dave Leciston
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Future M&S Tool
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Software life cycle modeling of the DCGS-A program
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38
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ProcessWizard
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Bob Daniell bob.daniell@us.army.mil 732-861-1487
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Xelocity
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Business Process development using the SCOR, DCOR and CCOR business process reference models to address PBL, Systems Engineering and the Industrial Base
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We use this tool to build models addressing physical and logical mappings, functional decompositions, RASCI, disconnect analysis along the life cycle of a weapons system or commodity. Very helpful in establishing PBL configurations. It incorporates the SCOR, DCOR and CCOR models to provide standardized nomenclature, metrics, best practices across TLCSM
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39
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ProcessWizard
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Mark Barboza, Jenna Romatowski, Chris DeVries, Roberto Flores, Allison Waltsak 732-532-9129
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Xelocity
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Designed to support and fast track business transformation projects, ProcessWizard complements project methodologies like Value Chain Excellence. ProcessWizard allows you to capture your analysis in a packaged, robust and reusable business improvement.
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ProcessWizard is a process modeling and enterprise architecture tool containing de facto standard industry frameworks. ProcessWizard is particularly powerful for Supply Chain (SCM), Design Chain (PLM), Customer Chain (CRM) and Value Chain (VCM)
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40
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Proprietary
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R. Giuntini Business Process development using the SCOR®, DCOR and CCOR business process reference models to address PBL, Systems Engineering and the Industrial Base
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SRA
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Uses Activity Based Costing (ABC), similar to Earned Value, in identifying all the cost drivers and their resources; this technique is viewed as best practice in commercial world. All findings and conclusions are validated in proprietary data base.
SCOR® is a registered trademark of the Supply Chain Council, Inc.
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Has been used for Army Future Warrior, GD, LM, DynCorp, and others
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41
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RAPTOR
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R. Kaminski
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ARINC
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RAPTOR is a Monte Carlo simulation program used to model reliability and availability of complex systems with extensive interdependencies.
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RAPTOR is used to model system reliability and availability and conduct trade studies and predict reliability and availability performance.
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42
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RELEX
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R. Kaminski
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RELEX
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RELEX is a multisuite toolset for performing a wide variety of reliability, maintainability, and availability analyses.
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RELEX is used to perform reliability prediction, FMECA, and maintainability analysis.
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43
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RGA
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Members of ARDEC Reliability Mgmt Branch POC is RMB Chief, Dr. Jason Cook, 973-724-3930 Jason.Cook1@us.army.mil
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Reliasoft
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Develop plans for and analyze data from reliability growth testing.
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To determine reliability of system and determine test and management methods required to achieve reliability targets
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44
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Scenario Manager
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Pat Degroodt 732-532-8229 pat.degroodt@us.army.mil
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General Dynamics C4 Systems 400 John Quincy Adams Rd. Taunton, MA 02780-1069
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The Scenario Manager tool runs inside OPNET Modeler as a customized feature. Any topology variations can then be made directly to OPNET modeler. The tool reads the force structure file and outputs node information (positions, trajectories, etc.) and then it determines the links for the scenario based on user selectable link creation algorithms. Rain effects along with various blockage algorithms, as well as hardware policies based on the node’s mobility state can be used to affect the links.
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45
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Scenario Manager Path Trace Tool
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Pat Degroodt 732-532-8229 pat.degroodt@us.army.mil
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Produces route information for each communicating pair of nodes in a scenario.
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Generates inputs to WAN Path Reliability Tool.
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46
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SEER/SEER - H
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DASA-CE Sean Vessey 703-601-4150 TACOM Cost & Systems Ron Dicesare
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Galorath Incorporated
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This software is an estimating tool used to create independent manufacturing cost estimates, sanity checks, and to analyze contractor estimates.
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SEER is primarily used in support of FCS C4ISR manufacturing estimates, and sanity checks. It is being evaluated to see if we can use it to support JLTV depending on the software requirements for JLTV. Our office also needs SEER to communicate with other organizations like CECOM that use SEER as their primary estimating methodology.
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47
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SEER for Hardware, Electronics, & Systems (SEER HW)
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Galorath Incorporated
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SEER for Hardware, Electronics, & Systems (SEER HW) is a decision support tool that reliably and accurately estimates the total cost of ownership for new product development projects.
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48
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SEER for Manufacturing (SEER MFG)
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Galorath Incorporated
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SEER for Manufacturing (SEER MFG) focuses on manufacturing project and process options, and can be used to model virtually any manufacturing operation.
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49
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SEER-RateMaker
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Galorath Incorporated
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SEER-RateMakerTM, a calculation tool used for generating labor and machine tool rates for individual and manufacturing processes across organizations continents. SEER-RateMaker is designed to generate labor and machine cost rates to assist the estimating process, helping to control costs and maintain both supplier and purchaser companies' profitability.
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50
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Selectable Essential Item Stock and Availability Method (SESAME)
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PM Utility Helicopter for UH-60M : Lowell Bidwell, 256-313-1616 PM Cargo Helicopter for CH-47F: Joe Bogema 256-876-4625
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AMSAA is the proponent. Contact: apgr-amsa-sesame-support@conus.army.mil
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Decision tools on budgeting and stocking to achieve a system Operational Availability (Ao) performance goal at the least cost, and identify the initial provisioning requirement for spares prior to production to determine what items should be placed at which support levels when fielding of the systems.
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Program: UH-60M, CH-47F, AH-64D, Apache Block III, Sky Warrior, JCA
Purpose: see functional description
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51
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Selected Essential item Stockage for Availability Method (SESAME)
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SESAME model minimizes the initial provisioning cost for spares to meet an Ao requirement or maximizes Ao to a budgeted cost. SESAME can also estimate an end item Ao based on proposed sparing; experienced, contracted or proposed logistics response times; and experienced or proposed reliability and maintainability. If item level data is attainable, the acquisition community can potentially use SESAME to evaluate the end item Ao proposed in source selections. The Test and Evaluation community can also evaluate Ao from experienced test results.
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52
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Selected Essential Item Stockage for Availability Methodology (SESAME)
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Terri Schwierling, (256) 876-3561, terri.schwierling@us.army.mil
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Multi-Echelon, Multi-Indenture Inventory Model that determines the Optimal Range & Depth of Spares/Repair parts at all locations in order to meet either a Weapon System/End Item Budget Constraint or Operational Performance Target. AR 700-18 Provisioning of US Army Equipment mandates use of SESAME for Initial Provisioning Requirement Determination.
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Multiple Programs
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53
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Selected Essential Item Stockage To Availability Method (SESAME)
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Julio Tejeda 732-532-8903 DSN: 992-8903
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U.S. AMSAA Attn: AMSRD-AMS-LL 392 Hopkins Rd. APG, MD 21005; DSN: 298-9309 or 298-4359
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SESAME is the Army’s approved tool for determining the initial spares needed to support a weapon system that is being fielded. SESAME determines the optimal (i.e., least cost) quantities of spares that will achieve desired operational availability (Ao) for the weapon system.
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The output of SESAME tells you the optimal quantities and cost of retail spares at each maintenance shop to achieve your Ao. It also gives you quantities and cost of wholesale spares.
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54
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Selected Essential Stock for Availability Method (SESAME)
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Charlotte Evering 410-278-4980 charlotte.evering@us.army.mil
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AMSAA
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Multi-echelon, multi-indenture level inventory cost model that determines the optimal range and depth of spares and repair parts at all locations in order to meet either a weapon system/end item budget constraint or operational performance target.
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Used on numerous programs to conduct provisioning analyses and to determine lists of initial provisioning for systems to be fielded. Can be used to answer provisioning issues, such as, "How much should I pay to reduce OST?", “How can I evaluate the added value of a warranty?", "Does commonality affect the level of spares required?", "What happens if OPTEMPO changes?", "What operational availability can I achieve with my limited budget?", "How does improved reliability affect my spares budget?", and "What support structure works best for me?" Mandated for use for initial provisioning in AR700-18 and AR700-127.
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55
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Selected Essential Stock for Availability Method (SESAME)
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ATEC-AEC-ILSED Wayne Patterson 410-306-0357 wayne.patterson@us.army.mil
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AMSAA
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Inventory model that determines the optimal range and depth of spares and repair parts at all locations in order to meet either a weapon system/end item budget constraint or operational performance target.
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Used on numerous programs to conduct provisioning analyses and to determine lists of initial provisioning for systems to be fielded.
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56
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Selected Essential Stock for Availability Method (SESAME)
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Bill Colon
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Government
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The Selected Essential-item Stock for Availability Method (SESAME) model is the Army standard initial provisioning model that optimizes the mix and placement of spares to achieve an end item Ao requirement or the maximum Ao for a dollar goal input.
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SESAME's readiness goal is achieved at a minimum cost or the maximum amount of readiness is bought for an initial provisioning budget. To use SESAME, the maintenance concept for each essential item must be known or proposed. SESAME can also be used in an evaluation mode to estimate the Ao being proposed or experienced. This Ao is based on the proposed sparing of items, their demand rate and logistics response times associated with their support concept. The Assistant Secretary of the Army for Acquisition, Logistics and Technology strongly encourages using SESAME to determine initial spares requirements.
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57
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Selected Essential Stock for Availability Method Life Cycle Cost Model (SESLCC)
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Charlotte Evering 410-278-4980 charlotte.evering@us.army.mil
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AMSAA
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Computer model that uses SESAME calculated initial stock lists, deployment schedules, and reliability and maintenance data to compute the expected initial issue spares and repair parts, replacement of consumed parts, repair of reparable items, transportation costs, and retrograde costs portion of the weapon system's life cycle costs throughout its useful life.
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Computes the expected life cycle costs for the enterprise's supply and maintenance system (the service supply chain) that will be supporting a weapon system/end item throughout its useful life. Outputs can be used directly to evaluate alternative equipment, reliability improvement, and/or service supply chain decisions or as input to actionable Total Cost of Ownership analyses. Can aid in evaluating the tradeoff between spare and repair part reliability improvements and the associated reduction in the life cycle service supply chain costs. Can be used for virtually any end item or weapon system to all estimate significant O&S costs that are reliability driven.
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58
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Selected Essential Stock for Availability Methodology Life Cycle Cost Model (SESLCC)
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ATEC-AEC-ILSED Wayne Patterson 410-306-0357 wayne.patterson@us.army.mil
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AMSAA
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Computer model that uses SESAME calculated initial stock lists, deployment schedules, and reliability and maintenance data to compute the expected life cycle costs of a system's supply and maintenance that will be supporting a weapon system throughout its useful life.
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Can be used for virtually any end item or weapon system to all estimate significant O&S costs that are reliability driven.
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59
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SIMPROCESS
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Natalie Palm 732-532-0425 DSN: 992-0425
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CACI International Inc. 1100 North Glebe Rd. Arlington, VA 22201
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SIMPROCESS is a hierarchical and integrated process simulation tool developed by CACI International Inc. It combines the simplicity of flowcharting with the power of simulation, statistical analysis, Activity Based Costing (ABC), and animation. It is designed to analyze varied scenarios and to mitigate the risk associated with dynamically changing environments. SIMPROCESS builds a model describing how a system works.
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The software can be used for analysis of process reengineering changes, six sigma analyses, and also for the PBL Analyses of metrics.
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60
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Support Enterprise Model (SEM)
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Peter Haniak 586-574-8671 Peter.Haniak@us.army.mil
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Sandia National Laboratory
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A logistics modeling, analysis, optimization, and decision support tool
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PEO-GCS is assessing utility of the tool. Provides integrated modeling of supply chain and repair chain activities for a worldwide support system
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61
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System of System Availability Model (SoSAM)
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John Conolly 410-278-5720 john.conolly@us.army.mil
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AMSAA
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SoSAM is discrete event based model, developed using ARENA simulation software that produces operational availability, based on reliability failures, of ground and aerial assets in a future force scenario.
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SoSAM simulates the mission profile and generates reliability failures for each asset. Through simulation, downed assets are recovered, required parts are obtained, repairs completed and the asset is returned to duty. Principle outputs of the model are the instantaneous and average availability over the scenario, instantaneous and average number of failures, and average mechanic utilization by system and/or class. Outputs can be used directly to evaluate system availability based on proposed reliability and perform "what/if" analyses based on reliability improvement programs. Can be used for virtually any end item(s) in various unit structures (FBCT, HBCT, IBCT) and scenarios.
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62
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System of Systems Analysis Tool Set (SoSAT)
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Peter Haniak 586-574-8671 Peter.Haniak@us.army.mil
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Sandia National Laboratory
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SoSAT is a suite of software tools designed to provide a capability to analyze performance and interrelationships of a System of Systems and it’s various subsystems using State Object Models
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Used by PEO-GCS fleet wide. Used for System of System Analysis of Brigade Combat Teams
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63
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System of Systems Analysis Tool Set (SoSAT)
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ATEC-AEC-ILSED Wayne Patterson 410-306-0357 wayne.patterson@us.army.mil ATEC-AEC-RAM
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Sandia National Labs
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Dynamic, time step simulation tool designed to perform platform, family and system of system sustainability analysis for the Future Combat System (FCS).
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Designed specifically to perform a wide range of sustainability analyses for the Future Combat System (FCS).
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64
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System of Systems Availability Model (SoSAM)
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ATEC-AEC-ILSED Wayne Patterson 410-306-0357 wayne.patterson@us.army.mil
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AMSAA
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Discrete event based flow diagram model, written in ARENA software, to estimate operational availability based on reliability of assets.
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Model logic was written specifically for the FCS program, but can be modified to for other systems.
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65
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Transportability Analysis Reports Generator (TARGET)
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Joyce Banovz DSN 770-5803 Joyce.Banovz@us.army.mil
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Argonne National Laboratory
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TARGET is a group of models and programs that provide the capability to detail unit movement requirements at the individual item level of detail (level 6). The TARGET system merges force structure databases with equipment characteristics for either Army or Marine Corps units.
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TARGET can be used across the full spectrum of both planning and programmatic mobility studies.
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66
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True Planning/PRICE Estimating Suite
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DASA-CE Sean Vessey 703-601-4150 TACOM Cost & Systems Ron Dicesare
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PRICE Systems
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This software is an estimating tool used to create independent manufacturing cost estimates, sanity checks, and to analyze contractor estimates.
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True Planning is used primarily in support of FCS MGV and C4ISR manufacturing estimates, and sanity checks. It is being evaluated to see if we can use it to support JLTV as another tool to sanity check our ACEIT cost estimate. Our office also needs PRICE to communicate with contractors that use PRICE as their primary estimating methodology.
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67
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UNIfied Probabilistic Assessment Software System (UNIPASS)
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Members of ARDEC POC is RFFF APO and Rel. Egr. Competency Dean Mr. Bob Kuper 201-572-4085 robert.kuper@us.army.mil
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PredictionProbe, Inc.
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Perform system or component modeling. Quantify Risk, Reliability, Safety thru Uncertainty Quantification and Modeling. Provides Robust Design Analysis, Optimization, etc.. Easily integrates with any computational engine like Finite element, thermal analysis, Computational Fluid Dynamics (CFD), etc. Provides most likely outcomes (MPP), computes probabilities (CDF/PDF, inverse probability, Robust Design, quantitative Risk analysis, IDs key process drivers, etc. Contains libraries of 61 math functions, 15 probability distributions, Goodness of Fit tests; numerous methods for parameters estimation etc.
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This model is used on many weapon and ammo life cycle programs inclusive of Tech base through development and production, Operational life, etc.
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68
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Visual Growth
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Dr. David Mortin david.mortin@us.army.mil
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AMSAA
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Contains AMSAA reliability growth models for planning, tracking, and projection.
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Used by multiple contractors and government organizations to develop reliability growth plans and assessments.
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69
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WAN Path Reliability Tool
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Pat Degroodt 732-532-8229 pat.degroodt@us.army.mil
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General Dynamics C4 Systems 400 John Quincy Adams Rd. Taunton, MA 02780-1069
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Includes three tool subsets which take information from various OPNET Simulation Outputs and uses this information to create the Wide Area Network (WAN) module and connectivity sampling events used in the Transmission Link Reliability Experiment.
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Utilized as input to the HyPerformix File Generator Tool
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70
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Weibull++
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Members of ARDEC Reliability Mgmt Branch POC is RMB Chief, Dr. Jason Cook, Jason.Cook1@us.army.mil
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Reliasoft
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Develop component or failure mode specific reliability estimates
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Analyzing life data of any system type
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71
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WIN-T Inc 2/3 OPNET Models – OPNET Modeler Latest Released Versions:Inc2 CDR OPNET Modeler ver 11.5 Inc3 PDR OPNET Modeler ver 11.5 Potential migration to OPNET Modeler ver 14.5
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Pat Degroodt 732-532-8229 pat.degroodt@us.army.mil
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OPNET Technologies, Inc. 7255 Woodmont Avenue Bethesda, MD 20814 Node models and Process models are custom tailored for PM WIN-T by General Dynamics C4 Sy
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OPNET Modeler® accelerates network R&D, reduces time to market, and improves product quality. Using simulation, network designers reduce research costs and ensure optimal product quality. OPNET Modeler’s cutting edge technology provides an environment for designing protocols and technologies as well as testing and demonstrating designs in realistic scenarios prior to production. OPNET Modeler is used to enhance the design of network devices, technologies such as VoIP, TCP, OSPFv3, MPLS, IPv6, and much more.
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PM WIN-T uses the OPNET simulation environment to model the WIN-T Inc 2 and Inc 3 networks. The following is a list of Node Models and Process Models that were developed in OPNET specifically for the WIN-T networks: ● Node Models
● WAN Router Model
● Satellite Node
● Network Topology File Based Interface (NTFBI)
● WIN-T Config Node (Scenario Manager)
● QED (QoS Edge Device) Node ● Traffic Generator Node Process Models
● Highband Networking Waveform (HNW) Radio
● Fixed Rate Radio (FRR) ● Network Centric Waveform (NCW) Radio
● Multi-Link Radio Child (used within both HNW and NCW Radio models)
● OPNET Router – LAN and WAN ● Traffic Generator Model ● IP (Internet Protocol) Model ● Open Shortest Path First (OSPF) Protocol (OSPF_v2) ● Network Blockage Infrastructure (formerly Physics)
● WIN-T Position Updater ● WIN-T Process Model ● QED Sensor
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72
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WIN-T INC 2/3 System Network Reliability Models – Hyperformix Workbench Discrete Event Simulator Latest Released Versions: Inc3 PDR
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Pat Degroodt 732-532-8229 pat.degroodt@us.army.mil
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HyPerformix, Inc. 4301 Westbank Drive Building A, Suite 300 Austin, TX 78746-6564 Office: 512.328.5544
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Hyperformix Workbench is a discrete event simulation tool that is used to create the Network reliability model. As a founding simulation product of HyPerformix, SES/workbench is used worldwide to solve hardware, software and networking problems, particularly performance and resource allocation problems. It is the ultimate product for solving architectural and design problems involving all three elements: hardware, software, and network. Study is ongoing whether workbench can support simulation of force size comparable to Major Theater of Operations.
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The PM WIN-T Network Reliability Model is used for all network reliability experiments, which are designed to support the architecture design and the development of sparing and maintenance strategies. The model is used to compute the WIN-T Network Reliability values for both on the move (OTM) and at-the-halt (ATH) configurations.The WIN-t NW Reliability Model is built around the Hyperformix Workbench tool.
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