• Title/Summary/Keyword: Engine Test Facility

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Design and Manufacture of Storage Air Heater (축열식 가열기의 설계 및 제작)

  • Lee, Yang-Ji;Kang, Sang-Hun;Park, Poo-Min;Yang, Soo-Seok
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • 2006.11a
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    • pp.43-46
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    • 2006
  • Storage air heater(SAH) is a general purpose facility that is used to simulate the high altitude condition of supersonic ground test facility, thurst compensation test of rocket engine nozzle and gas turbine engine combustor test. SAH in KARI is built to simulate the total temperature of the supersonic ground test facility which has a wide flight envelope from altitude 0km, Mach 2 to altitude 25km, Mach 5 and operates up to 1300K, 3.5MPa. In this paper, we introduces the SAH in JAXA which is model of SAH in KARI and summarizes the design process and manufacture of ours.

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Design Review of Combustion Chamber/Turbo-pump Test Facility of Liquid Rocket Engine for KSLV-II (한국형발사체 액체엔진 연소기 및 터보펌프 시험설비 배치 및 설계에 대한 검토)

  • Han, Yeoung-Min;Cho, Nam-Kyung;Chung, Young-Gahp;Kim, Seung-Han;Yu, Byung-Il;Lee, Kwang-Jin;Kim, Jin-Sun;Kim, Ji-Hoon
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • 2011.04a
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    • pp.109-112
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    • 2011
  • The result of design review and arrangement of a combustion chamber test facility(CTF) and a turbo-pump real propellant test facility(TPTF) is briefly described. The development/qualification tests of combustion chamber and turbo-pump for 75ton-class liquid rocket engine will be performed in CTF and TPTF. The critical design of hydraulic-pneumatic system, control and data acquisition system, test stand cell, and auxiliary facilities in CTF and TPTF was performed.

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Infrastructure of Propulsion Test Facility of Liquid Rocket (액체로켓 추진기관 시험설비 기반시설 고찰)

  • Cho, Namkyung;Kim, Sunghyuk;Han, Yeoungmin
    • Journal of the Korean Society of Propulsion Engineers
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    • v.23 no.2
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    • pp.87-94
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    • 2019
  • Liquid rocket propulsion test facility should provide for the interface condition installed on the upper level system for the test article. In addition, safety provision should be provided to be ready for accident such as explosion which can be occurred during development stage. For this purpose infra-structures of test facilities must be constructed so that stable combustion test can be performed and be guard against accidents. In this article, various aspects for infrastructures of propulsion test facilities are investigated including architecture and civil engineering aspects, test stand, room arrangements, interfaces among facilities, fire-fighting facilities, electrical power facilities.

Investigation of Chill Down Characteristics of Liquid Oxygen Feeding System in 75 Tonf-class Liquid Rocket Engine Firing Test (75톤급 액체로켓엔진 연소시험에서의 액체산소 공급부 예냉특성 고찰)

  • Seo, Daeban;Cho, Namkyung;Han, Yeoungmin
    • Journal of the Korean Society of Propulsion Engineers
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    • v.22 no.4
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    • pp.108-116
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    • 2018
  • A firing test of the 75 tonf-class liquid rocket engine to be used as the first and second stage engines of the KSLV-II was carried out at the rocket engine test facility(RETF). Since this engine uses liquid oxygen as the oxidizer, which is a cryogenic fluid, it is essential that the chill down of the supply pipe line and engine proceed for the firing test; thus, the given inlet requirements must be met. Moreover, it is important to understand the chill down characteristics of the facility and the engine and the amount of liquid oxygen consumed in the chill down process for efficient test operation in the future. In this paper, chill down characteristics of the supply pipe and the engine were evaluated through the investigation of the chill down process of the 75 tonf-class liquid rocket engine at each stage before and after run tank pressurization. In addition, the amount of liquid oxygen consumed was also evaluated.

Design of High-Frequency Data Acquisition System for Combustor Combustion Test Facility (연소기 연소시험설비 고주파 계측 시스템 설계)

  • Ahn, Kyu-Bok;Kang, Dong-Hyuk;Choi, Hwan-Seok
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • 2012.05a
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    • pp.461-464
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    • 2012
  • The high-frequency data acquisition system of the rocket engine test facility has been updated to perform hot-firing tests of 7 ton-class liquid rocket engine combustion chambers which will be used for the third stage of the Korea space launch vehicle II. The paper deals with the design of the updated high-frequency data acquisition system and explains its main functions.

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Rocket Engine Test Facility Improvement for Hot firing test of a Combustor in the 30-tonf class (30톤급 연소기의 연소시험을 위한 설비 개량)

  • Lee Kwang-Jin;Seo Seonghyeon;Lim Byoungjik;Moon Il-Yoon;Han Yeoung-Min;Choi Hwan-Seok
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • v.y2005m4
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    • pp.313-317
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    • 2005
  • The facility improvement for hot firing test of combustion chamber having thrust of 30-tonf class and chamber pressure of 60bara were performed at ReTF in KARI. The KSR-III main engine having combustion pressure of 13bara and thrust of 12.5tonf had been successfully tested in this facility. To increase the capability of the facility, the feeding and the trust measurement system have been modified. The modification of the feeding system plays also a role of ensuring the stability of propellant supply and two step ignition sequence of combustion chamber. The one-axis thrust measurement system of up to 60tons has been newly manufactured and installed in test stand and the water/kerosene supply lines with high pressure vessel of $4m^3$ and gas nitrogen vessel of $10m^3$ have been designed for regenerative cooling system. The results of cold flow test show that this facility has been successfully improved to satisfy the requirement for hot firing test of high performance combustor.

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Introduction to Construction of Propulsion Test Facilities for KSLV-II (한국형발사체 추진기관 시험설비 구축에 대한 소개)

  • Han, Yeoung-Min;Cho, Nam-Kyung;Chung, Young-Gahp;Kim, Seung-Han;Yu, Byung-Il;Lee, Kwang-Jin;Kim, Jin-Sun;Kim, Ji-Hoon;Kim, Young-Mog
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • 2010.11a
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    • pp.343-346
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    • 2010
  • The construction plan of a combustion chamber test facility(CTF), a turbopump real propellant test facility(TPTF), a rocket engine ground/high altitude test facility(ReTF, HAReTF) and a propulsion system test complex(PSTC) for KSLV-II is briefly described. The development/qualification tests of 75ton-class liquid rocket engine system and engine component will be performed in CTF, TPTF, ReTF and HAReTF and the development test of $1^{st}/2^{nd}/3^{rd}$ propulsion systems for KSLV-II will be performed in PSTC. These propulsion test facilities will be built in NARO space center considering construction schedule, cost, safety distance and utility factor of propulsion test facilities.

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Preliminary Design of Test Facility for 75 tonf Class Liquid Rocket Engine Combustor (75톤급 액체로켓엔진 연소기 시험설비 기본설계)

  • Lim, Byoung-Jik;Kim, Jong-Gyu;Lee, Kwang-Jin;Kim, Mun-Ki;Ahn, Kyu-Bok;Kang, Dong-Hyuk;Seo, Seong-Hyeon;Han, Yeong-Min;Choi, Hwan-Seok
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • 2009.11a
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    • pp.353-358
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    • 2009
  • For the successful development of 75 tonf class liquid rocket engine, a plenty of tests on each engine component has to be performed and this is equally true for a combustor. However the test facility which is in operation at Korea Aerospace Research Institute lacks its capacity to perform fire tests of a 75 tonf class combustor at its nominal thrust. Since the test facility has to be ready prior to the start of development tests, it is very urgent to establish the test facility. The preliminary design of a test facility for a 75 tonf class combustor which was performed according to the urgent necessity is described in the paper.

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Small Turbojet Engine Test and Uncertainty Analysis (소형 터보제트 엔진 시험 및 불확도 분석)

  • Jun, Yong-Min;Yang, In-Young;Nam, Sam-Sik;Kim, Chun-Taek;Yang, Soo-Seok;Lee, Dae-Sung
    • Journal of the Korean Society for Aeronautical & Space Sciences
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    • v.30 no.5
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    • pp.118-126
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    • 2002
  • The Altitude Engine Test Facility(AETF) was built at the Korea Aerospace Research Institute and has been being operated for the gas turbine engines in the class of 3,000 lbf thrust. To enhance the confidence level of AETF to the international level, a series of studies and facility modification have been conducted to improve the measurement uncertainty and reliability. In this paper, some part of the facility evaluation tests performed with a single spool turbojet engine are introduced. Tests were performed simulating the flight conditions as steady state, sea level for various flight speeds (i.e., Mn=0.3, 0.5, 0.7, 0.9). The obtained test results are compared with the predicted values of the engine DECK. The measurement uncertainties of airflow, net thrust, fuel flow and SFC showed 0.791~0.914%, 0.851~1.706%, 1.372~7.348% and 1.642~5.205%, respectively. Thus, from this research, the improvement methods of uncertainties on AETF has been confirmed.

Performance Test of Combustor for Aeropropulsion Gasturbine Engine (항공추진용 가스터빈엔진 연소기 성능시험)

  • Park, Poo-Min;Kim, Hyung-Mo;Choi, Young-Ho;Jeon, Byoung-Ho;Yang, Su-Seok
    • Proceedings of the Korean Society of Propulsion Engineers Conference
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    • 2008.11a
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    • pp.405-406
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    • 2008
  • Combustor is one of the major component of gas turbine engine and its development is done mostly by performance test. Combustors for aviation gasturbine engines has been successfully tested at the test facility in KARI as well as for stationary gasturbine engines. Full scale combustor test requires large amount of high temperature and pressure air, so the test facility is equipped with big air compressor and heater.

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