Robot Drive Motor Characterization Test Plan

Similar documents
UNCLASSIFIED: Dist A. Approved for public release. GVPM Track & Suspension Overview Mr. Jason Alef & Mr. Geoff Bossio 11 Aug 2011

TARDEC --- TECHNICAL REPORT ---

TARDEC Technology Integration

TARDEC Robotics. Dr. Greg Hudas UNCLASSIFIED: Dist A. Approved for public release

UNCLASSIFIED: Dist A. Approved for public release. GVPM Non-primary Power Systems Overview Kevin Centeck and Darin Kowalski 10 Aug 2011

UNCLASSIFIED: Dist A. Approved for public release. GVPM Energy Storage Overview Mr. David Skalny & Dr. Laurence Toomey 10 August 2011

GM-TARDEC Autonomous Safety Collaboration Meeting

Evaluation of SpectroVisc Q3000 for Viscosity Determination

Tank Automotive Research, Development and Engineering Command (TARDEC) Overview

AFRL-RX-TY-TM

UNCLASSIFIED: Distribution A. Approved for Public Release TACOM Case # 21906, 26 May Vehicle Electronics and Architecture

FINAL REPORT FOR THE C-130 RAMP TEST #3 OF A HYDREMA MINE CLEARING VEHICLE

REMOTE MINE AREA CLEARANCE EQUIPMENT (MACE) C-130 LOAD CELL TEST DATA

Servicing Hawker Vehicle Batteries with Standard Battery Charging and Test Equipment

Alternative Fuels: FT SPK and HRJ for Military Use

UNCLASSIFIED: DIST A. APPROVED FOR PUBLIC RELEASE. ARMY GREATEST INVENTIONS CY 2009 PROGRAM MRAP Overhead Wire Mitigation (OWM) Kit

High efficiency variable speed versatile power air conditioning system for military vehicles

DSCC Annual Tire Conference CATL UPDATE. March 24, 2011 UNCLASSIFIED: Dist A. Approved for public release

Energy Storage Requirements & Challenges For Ground Vehicles

Vehicle Systems Engineering and Integration Activities - Phase 3

2011 NDIA GROUND VEHICLE SYSTEMS ENGINEERING AND TECHNOLOGY SYMPOSIUM POWER AND MOBILITY (P&M) MINI-SYMPOSIUM AUGUST 9-11 DEARBORN, MICHIGAN

U.S. Army s Ground Vehicle Energy Storage R&D Programs & Goals

EVALUATING VOLTAGE REGULATION COMPLIANCE OF MIL-PRF-GCS600A(ARMY) FOR VEHICLE ON-BOARD GENERATORS AND ASSESSING OVERALL VEHICLE BUS COMPLIANCE

EXPLORATORY DISCUSSIONS - PRE DECISIONAL

Transparent Armor Cost Benefit Study

Feeding the Fleet. GreenGov Washington D.C. October 31, 2011

INTELLIGENT ENERGY MANAGEMENT IN A TWO POWER-BUS VEHICLE SYSTEM. DISTRIBUTION STATEMENT A. Approved for public release; distribution is unlimited.

INLINE MONITORING OF FREE WATER AND PARTICULATE CONTAMINATION OF JET A FUEL

Transparent Armor Cost Benefit Study

An Advanced Fuel Filter

Energy Storage Commonality Military vs. Commercial Trucks

Vehicle Systems Engineering and Integration Activities - Phase 4

LESSONS LEARNED WHILE MEASURING FUEL SYSTEM DIFFERENTIAL PRESSURE MARK HEATON AIR FORCE FLIGHT TEST CENTER EDWARDS AFB, CA 10 MAY 2011

Evaluation of Single Common Powertrain Lubricant (SCPL) Candidates for Fuel Consumption Benefits in Military Equipment

TARDEC OVERVIEW. Tank Automotive Research, Development and Engineering Center. APTAC Spring Conference Detroit 27 March, 2007

FTTS Utility Vehicle UV2 Concept Review FTTS UV2 Support Variant

Automatic Air Collision Avoidance System. Auto-ACAS. Mark A. Skoog Dryden Flight Research Center - NASA. AutoACAS. Dryden Flight Research Center

TARDEC Hybrid Electric Program Last Decade

Evaluation of Digital Refractometers for Field Determination of FSII Concentration in JP-5 Fuel

U.S. Army/CERDEC's Portable Fuel Cell Evaluation and Field Testing 2011 Fuel Cell Seminar & Expo Orlando, FL 31 Oct 2011

Does V50 Depend on Armor Mass?

REPORT DOCUMENTATION PAGE

Cadmium Repair Alternatives on High-Strength Steel January 25, 2006 Hilton San Diego Resort 1775 East Mission Bay Drive San Diego, CA 92109

Navy Coalescence Test on Petroleum F-76 Fuel with Infineum R655 Lubricity Improver at 300 ppm

US ARMY POWER OVERVIEW

Monolithically Integrated Micro Flapping Vehicles

Navy Coalescence Test on Camelina HRJ5 Fuel

US Army Non - Human Factor Helicopter Mishap Findings and Recommendations. Major Robert Kent, USAF, MC, SFS

Presented by Mr. Greg Kilchenstein OSD, Maintenance. 29August 2012

Robust Fault Diagnosis in Electric Drives Using Machine Learning

Joint Light Tactical Vehicle Power Requirements

BALANCE OF PERFORMANCE PARAMETERS FOR SURVIVABILITY AND MOBILITY IN THE DEMONSTRATOR FOR NOVEL DESIGN (DFND) VEHICLE CONCEPTS

Dual Use Ground Vehicle Condition-Based Maintenance Project B

Up-Coming Diesel Fuel and Exhaust Emissions Regulations For Mobile Sources. Parminder Khabra RDECOM-TARDEC TACOM LCMC March 22, 2006 JSEM

Multilevel Vehicle Design: Fuel Economy, Mobility and Safety Considerations, Part B

Helicopter Dynamic Components Project. Presented at: HCAT Meeting January 2006

Power Distribution System for a Small Unmanned Rotorcraft

Center for Ground Vehicle Development and Integration

Open & Evolutive UAV Architecture

HIGH REPETITION RATE CHARGING A MARX TYPE GENERATOR *

F100 ENGINE NACELLE FIRE FIGHTING TEST MOCKUP DRAWINGS

SIO Shipyard Representative Bi-Weekly Progress Report

Program Overview. Chris Mocnik Robotic Vehicle Control Architecture for FCS ATO Manager U.S. Army RDECOM TARDEC

Joint Oil Analysis Program Spectrometer Standards VHG Labs Inc. Qualification Report For D19-0, D3-100 and D12-XXX Series Standards

IMPACT OF FRICTION REDUCTION TECHNOLOGIES ON FUEL ECONOMY FOR GROUND VEHICLES G. R. Fenske, R. A. Erck, O. O. Ajayi, A. Masoner, and A. S.

U.S. Army s Ground Vehicle Energy Storage R&D Programs & Goals

Endurance Testing of Redesigned Tab Spring for MI-RAMS System

Application of Airbag Technology for Vehicle Protection

NDCEE National Defense Center for Energy and Environment

DEVELOPMENT OF COMPACT VARIABLE- VOLTAGE, BI-DIRECTIONAL 100KW DC-DC CONVERTER

Predator B: The Multi-Role UAV

Hybrid Components: Motors and Power Electronics

Hydro-Piezoelectricity: A Renewable Energy Source For Autonomous Underwater Vehicles

DESULFURIZATION OF LOGISTIC FUELS FOR FUEL CELL APUs

Fuel Efficient ground vehicle Demonstrator (FED) Vision

Joint Oil Analysis Program Spectrometer Standards SCP Science (Conostan) Qualification Report For D19-0, D3-100, and D12-XXX Series Standards

Power Technology Branch Army Power Division US Army RDECOM CERDEC C2D Fort Belvoir, Virginia

TRANSIENT MAGNETIC FLUX DENSITY MEASUREMENT RESULTS ON A FUSELAGE-LIKE TEST SETUP AND INVESTIGATION OF THE EFFECTS OF APERTURES

Development of Man Portable Auxiliary Power Unit using Advanced Large Format Lithium-Ion Cells

Blast Pendulum Testing of Milliken Tegris Panels

GVSET Power & Energy Preview Mr. Chuck Coutteau Associate Director (Acting) Ground Vehicle Power & Mobility 19 August 2009

Impact of 200 ppm HiTEC 4898C Lubricity Improver Additive (LIA) on F-76 Fuel Coalescence

Portable Fluid Analyzer

Linear Algebraic Modeling of Power Flow in the HMPT500-3 Transmission

REPORT DOCUMENTATION PAGE

Quarterly Progress Report

Additives to Increase Fuel Heat Sink Capacity

ITC-Germany Visit. Chuck Coutteau, Associate Director Ground Vehicle Power and Mobility Overview 10 November 2011

Membrane Wing Aerodynamics for µav Applications

Predator Program Office

REPORT DOCUMENTATION PAGE

Research Development and Engineering Command TARDEC/NAC

Developing a Methodology for the Evaluation of Hybrid Vehicle Thermal Management Systems

Additional Transit Bus Life Cycle Cost Scenarios Based on Current and Future Fuel Prices

A GENERAL PURPOSE VEHICLE POWERTRAIN MODELING AND SIMULATION SOFTWARE - VPSET

REPORT DOCUMENTATION PAGE

IMPACT OF FIRE RESISTANT FUEL BLENDS ON FORMATION OF OBSCURING FOG

NoFoam Unit Installation, Evaluation and Operations Manual

Crew integration & Automation Testbed and Robotic Follower Programs

ANALYSIS OF NON-TACTICAL VEHICLE UTILIZATION AT FORT CARSON COLORADO

Transcription:

US ARMY TARDEC / GROUND VEHICLE ROBOTICS Robot Drive Motor Characterization Test Plan PackBot Modernization Project Ty Valascho 9/21/2012 This test plan is intended to characterize the drive motors of a small robot with respect to voltage and current under multiple slopes conditions.

US ARMY TARDEC / GROUND VEHICLE ROBOTICS REPORT DOCUMENTATION PAGE UNCLASSIFIED Form Approved OMB No. 0704-0188 Public reporting burden for this collection of information is estimated to average 1 hour per response, including the time for reviewing instructions, searching existing data sources, gathering and maintaining the data needed, and completing and reviewing this collection of information. Send comments regarding this burden estimate or any other aspect of this collection of information, including suggestions for reducing this burden to Department of Defense, Washington Headquarters Services, Directorate for Information Operations and Reports (0704-0188), 1215 Jefferson Davis Highway, Suite 1204, Arlington, VA 22202-4302. Respondents should be aware that notwithstanding any other provision of law, no person shall be subject to any penalty for failing to comply with a collection of information if it does not display a currently valid OMB control number. PLEASE DO NOT RETURN YOUR FORM TO THE ABOVE ADDRESS. 1. REPORT DATE (DD-MM-YYYY) 2. REPORT TYPE 3. DATES COVERED (From - To) 26-09-2012 Technical Report 18-09-2012 26-09-2012 4. TITLE AND SUBTITLE 5a. CONTRACT NUMBER Robot Drive Motor Characterization Test Plan PackBot Modernization Project 6. AUTHOR(S) Valascho, Ty ; Author tyruss.j.valascho.civ@mail.mil 5b. GRANT NUMBER 5c. PROGRAM ELEMENT NUMBER 5d. PROJECT NUMBER 5e. TASK NUMBER 5f. WORK UNIT NUMBER 7. PERFORMING ORGANIZATION NAME(S) AND ADDRESS(ES) 8. PERFORMING ORGANIZATION REPORT NUMBER U.S. Army RDECOM-TARDEC RDTA-RS MS 264 DTIC 6501 East 11 Mile Rd. Warren, MI 48397 9. SPONSORING / MONITORING AGENCY NAME(S) AND ADDRESS(ES) 10. SPONSOR/MONITOR S ACRONYM(S) US Army Tank-Automotive Research, Development, and RDECOM-TARDEC Engineering Center, Warren, MI 11. SPONSOR/MONITOR S REPORT NUMBER(S) 12. DISTRIBUTION / AVAILABILITY STATEMENT Approved for public release, distribution unlimited 13. SUPPLEMENTARY NOTES The views, opinion, and/or findings contained in this report are those of the authors and should not be construed as an official Department of the Army position, policy, or decision, unless so designated. 14. ABSTRACT A test plan to measure voltage and current of active drive motors on a small robot under repeatable test conditions. Several positive and negative slope conditions are included. 15. SUBJECT TERMS Robot, Modernization, Motor Test, Characterization 16. SECURITY CLASSIFICATION OF: UNCLAS DIST A a. REPORT Dist A b. ABSTRACT Dist A c. THIS PAGE Dist A 17. LIMITATION OF ABSTRACT A UNCLASSIFIED 18. NUMBER OF PAGES 8 19a. NAME OF RESPONSIBLE PERSON Ty Valascho 19b. TELEPHONE NUMBER (include area code) 586-282-0681 Standard Form 298 (Rev. 8-98) Prescribed by ANSI Std. Z39.18 For Official Use Only (FOUO) 2

Contents Objectives... 4 Requirements... 4 Special equipment... 4 Site requirements... 4 Procedure... 4 Test Condition 1: Level ground, zero longitudinal inclination... 4 Test Conditions 2 & 3: 15 degree longitudinal inclinations, positive and negative... 5 Test Conditions 4 & 5: 20 degree longitudinal inclinations, positive and negative... 5 Test Conditions 6 & 7: 25 degree longitudinal inclinations, positive and negative... 6 Test Conditions 8 & 9: 30 degree longitudinal inclinations, positive and negative... 6

Objectives The purpose of this test is to measure voltage and current of active drive motors under repeatable test conditions. Several positive and negative slope conditions are included. Requirements Special equipment Datalogger Stopwatch Ambient temperature measurement device Site requirements Incline surfaces at 15, 20, 25, and 30 degrees with grass or equivalent surface Procedure Repeat each of the following test conditions 3 times. This results in 3 separate trials of Test Condition 1, Test Condition 2/3, Test Condition 4/5, Test Condition 6/7, and Test Condition 8/9. Test Condition 1: Level ground, zero longitudinal inclination 3. Using the OCU, drive the robot to an open, flat area with 0 degree slope and set the vehicle speed to Creep. 5. Drive in the forward direction for approximately 15 seconds at full throttle. 7. Drive in reverse for approximately 15 seconds at full throttle. 10. Drive in the forward direction for approximately 15 seconds at full throttle. 12. Drive in reverse for approximately 15 seconds at full throttle. 15. Drive in the forward direction for approximately 15 seconds at full throttle. 17. Drive in reverse for approximately 15 seconds at full throttle. US Army / TARDEC / Ground Vehicle Robotics 4

Test Conditions 2 & 3: 15 degree longitudinal inclinations, positive and negative 3. Using the OCU, drive the robot to the base of the 15 degree hill and set the vehicle speed to Creep. 5. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 7. Drive down hill in reverse for approximately 15 seconds at full throttle. 10. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 12. Drive down hill in reverse for approximately 15 seconds at full throttle. 15. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 17. Drive down hill in reverse for approximately 15 seconds at full throttle. Test Conditions 4 & 5: 20 degree longitudinal inclinations, positive and negative 3. Using the OCU, drive the robot to the base of the 20 degree hill and set the vehicle speed to Creep. 5. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 7. Drive down hill in reverse for approximately 15 seconds at full throttle. 10. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 12. Drive down hill in reverse for approximately 15 seconds at full throttle. 15. Drive up hill in the forward direction for approximately 15 seconds at full throttle. US Army / TARDEC / Ground Vehicle Robotics 5

17. Drive down hill in reverse for approximately 15 seconds at full throttle. Test Conditions 6 & 7: 25 degree longitudinal inclinations, positive and negative 3. Using the OCU, drive the robot to the base of the 25 degree hill and set the vehicle speed to Creep. 5. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 7. Drive down hill in reverse for approximately 15 seconds at full throttle. 10. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 12. Drive down hill in reverse for approximately 15 seconds at full throttle. 15. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 17. Drive down hill in reverse for approximately 15 seconds at full throttle. Test Conditions 8 & 9: 30 degree longitudinal inclinations, positive and negative 3. Using the OCU, drive the robot to the base of the 30 degree hill and set the vehicle speed to Creep. 5. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 7. Drive down hill in reverse for approximately 15 seconds at full throttle. US Army / TARDEC / Ground Vehicle Robotics 6

10. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 12. Drive down hill in reverse for approximately 15 seconds at full throttle. 15. Drive up hill in the forward direction for approximately 15 seconds at full throttle. 17. Drive down hill in reverse for approximately 15 seconds at full throttle. US Army / TARDEC / Ground Vehicle Robotics 7

Robot Drive Motor Characterization Log Sheet a. Test Condition 1: Level ground, zero longitudinal inclination b. Test Conditions 2 & 3: 15 degree longitudinal inclinations, positive and negative c. Test Conditions 4 & 5: 20 degree longitudinal inclinations, positive and negative d. Test Conditions 6 & 7: 25 degree longitudinal inclinations, positive and negative e. Test Conditions 8 & 9: 30 degree longitudinal inclinations, positive and negative US Army / TARDEC / Ground Vehicle Robotics 8