Synonyms were used for: test
Search without synonyms: keywords:(test sections)

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    It’s Hip To Be Square - Refurbishment of the NASA Langley National Transonic Facility Test Section Plenum Door

    Roman Paryz / Donald Saxer / Kevin Harrell | NTRS
    Keywords: Test Sections , Test Facilities

    Prediction of bulk modulus and volumetric expansion coefficient of water for leak tightness test of pipelines

    Bahadori, Alireza / Vuthaluru, Hari B. | Tema Archive | 2009
    Keywords: hydrostatic test , hydrostatic test pressure , leak tightness test , test sections

    Aero-Driven Bleed-Air Applied to Roll Control

    Krishnan, Ashwin / Krishnan, Arjun / Kearney, John et al. | AIAA | 2020
    Keywords: Flight Test Vehicle , Airfoil Sections

    Millimeter Radar Instrumentation for Studying Plasma Effects Associated with Hypersonic Flight

    H. M. Musal / R. I. Primich / W. E. Blore et al. | NTIS | 1964
    Keywords: Hypersonic test vehicles , Radar cross sections , Test equipment

    Atlantic Test Range. Dynamic RCS Measurement Capability

    NTIS | 2000
    Keywords: Test and evaluation , Radar cross sections

    Rat SCAT Cross Section Measurements of 021-16, AQM-38A Target Drone

    NTIS | 1967
    Keywords: Radar cross sections , Test facilities

    RF Loading Effects of Aircraft Seats in an Electromagnetic Reverberating Environment

    T. Nguyen | NTIS | 2000
    Keywords: Test Facilities & Equipment , Absorption cross sections

    Development in Helicopter Tail Boom Strake Applications in the US

    J. C. Wilson / H. L. Kelley / C. C. Donahue et al. | NTIS | 1988
    Keywords: Test Facilities & Equipment , Cross sections

    Rat SCAT Cross Section Measurements of the 006-10 Roadrunner Target Missile

    NTIS | 1966
    Keywords: Radar cross sections , Test facilities

    WHAT IS AN AFFORDABLE STRATEGY FOR RECAPITALIZING THE AIR FORCE OF THE FUTURE

    W. A. CAPORELLIE | NTIS | 2016
    Keywords: Radar cross sections , Test equipment

    Halon Replacement Program for Aviation: Aircraft Engine Nacelle Application Phase I - Operational Parameters Study

    M. L. Kollack / J. A. Wheeler / J. M. Bennett et al. | NTIS | 1997
    Keywords: Test and evaluation , Cross sections

    Minimum Thickness of Concrete Pavement for the F-15 and C-17 Aircraft

    C. R. Gonzalez / W. R. Barker / A. Bianchini | NTIS | 2013
    Keywords: Full-scale test sections

    Cross Sectional Study of Field Independence and United States Military Air Traffic Control Specialists

    H. A. Maliko-Abraham | NTIS | 2001
    Keywords: Cross sections , Eft(Embedded figures test)

    Test Bed for Short Pulse OA Detection of Optical Directors in Amphibious Operations

    M. C. Ertem / D. A. Burchick / T. Ippolito et al. | NTIS | 1999
    Keywords: Test beds , Test and evaluation , Optical cross sections

    Projectile Dispersion of Marker Ball Launcher

    P. J. Fazio | NTIS | 2004
    Keywords: Cross sections , Test facilities

    Road Profiles

    Dixon, John C. | Wiley | 2009
    Keywords: rectangular‐roughness cornering test , stochastic roads and ISO road surface model, two linear sections

    Modelling and experimental identification of spring-damping properties of the off-road vehicle rubber tracks, rubber belts, and rubber-bushed tracks subjected to flexural vibrations

    Chołodowski, Jakub | Elsevier | 2023
    Keywords: Experimental test , the scaling factor used to calculate the reaction moment captured by the load cell installed in the test stand shown in Fig. 12, [Nm/(mV/V)] , the scaling factor used to calculate the reaction moment captured by the acceleration sensor installed in the test stand shown in Fig. 12, [kg·m2·s2·(mV)-1] , thickness of a single aluminium bar discussed in Sections 4.4 and 5.1, [mm] , length of the aluminium bar-section subjected to bending in the preliminary tests discussed in Sections 4.4 and 5.1, [mm] , the total reaction moment induced in a real track or belt subjected to a sinusoidally varying deflection angle, the total reaction moment induced in the joint model shown in Fig. 10b due to a sinusoidally varying angular displacement of the entire joint, or the reaction moment measured using the test stand in Fig. 12 or predicted with the track model in Fig. 10, [Nm] , the component of the reaction moment measured by the acceleration sensor installed in the test stand shown in Fig. 12, [Nm] , the component of the reaction moment measured by the load cell installed in the test stand shown in Fig. 12, [Nm] , the number of: springs or dampers of the model joint shown in Fig. 10b, spring or damping elements of a rheological model, or experiments in a test series , the signal of the acceleration sensor installed in the test stand shown in Fig. 12, [mV] , the signal of the load cell installed in the test stand shown in Fig. 12, [mV/V] , width of a single aluminium bar discussed in Sections 4.4 and 5.1, [mm] , the amplitude of the deflection angle exerted on the aluminium bars during the preliminary tests discussed in Sections 4.2 and 5.1, [rad, °] , the amplitude of the deflection angle exerted on a real track or belt during a cyclic bending test at the angular frequency ωp, [rad, °] , the amplitude of the reaction moment induced in the aluminium bar under sinusoidally varying deflection discussed in Sections 4.4 and 5.1, [Nm] , the amplitude of the reaction moment captured only by the load cell installed in the test bench for cyclic bending tests shown in Fig. 12, [Nm] , the amplitude of the reaction moment captured by the load cell and the acceleration sensor installed in the test bench for cyclic bending tests shown in Fig. 12, [Nm] , Y ω p , Y ωp,test , the amplitude of the reaction moment induced in a real track or belt during the cyclic bending test at the angular frequency ωp and the deflection angle amplitude Xωp, [Nm] , φ0, ω p, φ0, ω p,test , the angular frequency of excitation applied to a real track or belt in the p-th (of n) cyclic bending test, [rad/s]