high-temperature propulsion components laboratory title...muthuvel murugan, ph.d., (410) 278 -7903,...

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APPROVED FOR PUBLIC RELEASE; DISTRIBUTION IS UNLIMITED Title S&T Campaign: Sciences for Maneuver Energy and Propulsion Power/Energy Conversion Anindya Ghoshal, Ph.D., (410) 278-7358, [email protected] Muthuvel Murugan, Ph.D., (410) 278-7903, [email protected] Michael J. Walock, Ph.D., (410) 278-9018, [email protected] SCM 005 High-Temperature Propulsion Components Laboratory Research Facilities Provides capabilities to research high-temperature materials and components for propulsion systems (such as gas turbine engines, rocket engines, and next generation unmanned aerial system engines) to improve power density, efficiency, and durability Supporting Equipment Hot particulate ingestion rig (HPIR), with maximum sustaining temperature of 1650 °C (3000 °F) Hot gas mass flows 0.14 – 0.34 kg/s (0.3–0.75 lbs/s) Impinging velocities of 150 – 1050 m/s (0.3 – 0.8 M; 490 – 3445 ft/s) Sand/salt ingestion rates of 1 – 200 g/min (0.13 – 26.5 lbs/hr) via dual feeder system; water-based dust collection system Laser Doppler velocimeter (LDV) and particle imaging velocimeter (PIV) for measurements of particulate velocities and distributions within hot gas flows IR camera for thermal imaging up to 2000°C Single and dual wavelength pyrometers for temperature measurements from 260° – 3000 °C (500° – 5400 °F) Button cell flame testing rig (BCFTR) Maximum sustained temperatures up to 2820 °C (5110 °F) and 3160 °C (5720 °F) with oxy-propane and oxy- acetylene, respectively Motorized sample carousel holds up to eight samples Thermomechanical fatigue rig Capable of 100 kN (22-kip) loads 1500°C (2732°F) max sustaining temperature In- and out-of-phase thermomechanical cycling and creep testing capability High-temperature air-jet erosion rig (HAJET) Maximum sustained temperature of 1000°C (1830°F) Erodent flow rates from 1 – 5 g/min (0.13 – 0.65 lbs/hr), at velocities from 30 – 150 m/s (98 – 492 ft/s) Varying angle of attack: 15° – 90° Digital C-mode scanning acoustic microscope (C-SAM) Confocal laser scanning microscrope (C-LSM) Scanning electron microscope (SEM), with energy dispersive x-ray spectrometer (EDS) Digital Image Correlation (DIC) System Thermomechanical Fatigue Rig C-SAM BCFTR Capabilities Particulate accumulation (adherence), erosion, sand- glazing, and CMAS-formation testing of advanced high- temperature bulk materials and coatings under near- operational conditions Rapid prototyping of advanced high-temperature materials with high thermal gradients Thermomechanical peak sustained load fatigue, survivability, and durability testing of high-temperature ceramics, polymer-woven composites, metal alloys, and advanced thermal/environmental barrier coatings (T/EBCs) Surface, near-surface, and subsurface nondestructive materials characterization and evaluation of new and advanced propulsion materials Non-intrusive laser-based 1-D, 2-D and 3-D point and planar/volumetric measurements of velocity and turbulence distribution in hot flows HAJET HPIR Exposed Thermal Barrier Coatings C-LSM SEM-EDS DIC LDV

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Page 1: High-Temperature Propulsion Components Laboratory Title...Muthuvel Murugan, Ph.D., (410) 278 -7903, muthuvel.murugan.civ@mail.mil Michael J. Walock, Ph.D., (410) 278-9018, michael.j.walock.civ@mail.mil

APPROVED FOR PUBLIC RELEASE; DISTRIBUTION IS UNLIMITED

TitleTitleS&T Campaign: Sciences for Maneuver

Energy and PropulsionPower/Energy Conversion

Anindya Ghoshal, Ph.D., (410) 278-7358, [email protected] Murugan, Ph.D., (410) 278-7903, [email protected] Michael J. Walock, Ph.D., (410) 278-9018, [email protected]

SCM 005

High-Temperature Propulsion Components Laboratory

Research FacilitiesProvides capabilities to research high-temperature materials and components for propulsion systems (such as gas turbine engines, rocket engines, and next generation unmanned aerial system engines) to improve power density, efficiency, and durability

Supporting Equipment• Hot particulate ingestion rig (HPIR), with maximum

sustaining temperature of 1650 °C (3000 °F)• Hot gas mass flows 0.14 – 0.34 kg/s (0.3–0.75 lbs/s)• Impinging velocities of 150 – 1050 m/s (0.3 – 0.8 M; 490

– 3445 ft/s)• Sand/salt ingestion rates of 1 – 200 g/min (0.13 – 26.5

lbs/hr) via dual feeder system; water-based dust collection system

• Laser Doppler velocimeter (LDV) and particle imaging velocimeter (PIV) for measurements of particulate velocities and distributions within hot gas flows

• IR camera for thermal imaging up to 2000°C • Single and dual wavelength pyrometers for temperature

measurements from 260° – 3000 °C (500° – 5400 °F)• Button cell flame testing rig (BCFTR)

• Maximum sustained temperatures up to 2820 °C (5110 °F) and 3160 °C (5720 °F) with oxy-propane and oxy-acetylene, respectively

• Motorized sample carousel holds up to eight samples• Thermomechanical fatigue rig

• Capable of 100 kN (22-kip) loads• 1500°C (2732°F) max sustaining temperature• In- and out-of-phase thermomechanical cycling and

creep testing capability• High-temperature air-jet erosion rig (HAJET)

• Maximum sustained temperature of 1000°C (1830°F)• Erodent flow rates from 1 – 5 g/min (0.13 – 0.65 lbs/hr),

at velocities from 30 – 150 m/s (98 – 492 ft/s)• Varying angle of attack: 15° – 90°

• Digital C-mode scanning acoustic microscope (C-SAM)• Confocal laser scanning microscrope (C-LSM)• Scanning electron microscope (SEM), with energy

dispersive x-ray spectrometer (EDS)• Digital Image Correlation (DIC) System

Thermomechanical Fatigue Rig

C-SAM

BCFTR

Capabilities• Particulate accumulation (adherence), erosion, sand-

glazing, and CMAS-formation testing of advanced high-temperature bulk materials and coatings under near-operational conditions

• Rapid prototyping of advanced high-temperaturematerials with high thermal gradients

• Thermomechanical peak sustained load fatigue, survivability, and durability testing of high-temperature ceramics, polymer-woven composites, metal alloys, andadvanced thermal/environmental barrier coatings (T/EBCs)

• Surface, near-surface, and subsurface nondestructive materials characterization and evaluation of new and advanced propulsion materials

• Non-intrusive laser-based 1-D, 2-D and 3-D point and planar/volumetric measurements of velocity and turbulence distribution in hot flows

HAJET

HPIR Exposed Thermal Barrier Coatings

C-LSM

SEM-EDS

DIC

LDV