IEEE 1554 2005
$37.38
IEEE Recommended Practice for Inertial Sensor Test Equipment, Instrumentation, Data Acquisition, and Analysis
Published By | Publication Date | Number of Pages |
IEEE | 2005 | 115 |
New IEEE Standard – Active. Test equipment, data acquisition equipment, instrumentation, test facilities, and data analysis techniques used in inertial sensor testing are described in this recommended practice.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 1554™-2005, IEEE Recommended Practice for Inertial Sensor Test Equipment, Instrumentation, Data Acquisition, and Analysis |
3 | Title page |
6 | Introduction Notice to users Errata Interpretations Patents |
7 | Participants |
8 | CONTENTS |
13 | 1. Overview 1.1 Scope |
14 | 1.2 Purpose 2. Normative references 2.1 IEEE standards |
15 | 2.2 ISO standards 2.3 Nuclear radiation test standards |
16 | 3. Test planning 3.1 Classification of tests 3.2 Calibrated parameter characteristics |
17 | 3.3 Test plan outline 3.4 Test station log book |
18 | 4. General equipment 4.1 Calibration of equipment 4.2 Test station power supplies and grounds 4.3 Time and frequency standard |
19 | 4.4 Precision voltage reference 4.5 Voltmeters 4.6 Ammeters and wattmeters 4.7 Resistance references |
20 | 4.8 Magnetic field shielding 4.9 Magnetic field generation and measurement 4.10 Frequency synthesizers |
21 | 4.11 Oscilloscopes 4.12 Spectrum analyzer 4.13 Signal analyzer 4.14 Voltage- or current-to-frequency converters 4.15 Frequency counters |
22 | 4.16 Temperature controllers 4.17 Temperature-monitoring equipment 4.18 Bubble levels and tilt meters |
23 | 4.19 Autocollimator 4.20 Displacement measurement systems |
24 | 4.21 Other general commercial equipment |
25 | 4.22 Specially built equipment 5. Sensor-specific equipment |
26 | 6. Mounting fixture 6.1 Fixture mechanical design 6.2 Thermal control of fixture 6.3 Vibration fixture |
27 | 6.4 Centrifuge fixture 6.5 Radiation test fixture |
28 | 7. Test piers 7.1 Location of test piers 7.2 Vibration environment of test pier 7.3 Tilt and azimuth motion of test pier |
29 | 7.4 Active control of test pad 8. Accelerometer dividing heads (or turntables) 8.1 Use of accelerometer dividing heads |
30 | 8.2 Placement of dividing head 8.3 Thermal control on dividing head |
31 | 8.4 Alignment of dividing head and mounting fixture 8.5 Wiring to dividing head |
32 | 8.6 Rotation of dividing head 8.7 Readout of dividing head angles |
33 | 9. Rate tables 9.1 Use of rate tables 9.2 Single-axis rate table |
36 | 9.3 Two-axis rate table |
39 | 9.4 Three-axis rate tables for inertial sensor assembly (ISA) te |
42 | 10. Vibration and shock equipment 10.1 Use of vibration and shock machines 10.2 Vibrators |
46 | 10.3 Drop shock and hammer shock machines 10.4 Air guns 10.5 Shock and vibration monitors |
49 | 11. Centrifuge 11.1 Use of centrifuges 11.2 Lesser accuracy and high-speed centrifuges |
50 | 11.3 Precision centrifuge |
51 | 11.4 Double turntable centrifuge 11.5 Centrifuge instrumentation |
54 | 11.6 Other rotating inertial sensor test equipment |
55 | 12. Environmental chambers 12.1 Thermal control on a test table, vibrator, or centrifuge |
56 | 12.2 Refrigerated and heated chambers 12.3 Barometric chambers 12.4 Equipment for electromagnetic susceptibility and emissions t |
57 | 12.5 Acoustic absorption and generation 12.6 Other environmental chambers 13. Nuclear radiation effects testing 13.1 Use of nuclear radiation testing |
58 | 13.2 Basis of radiation testing requirements (radiation effects) |
59 | 13.3 TID effects testing 13.4 Ionizing dose rate effects testing |
60 | 13.5 Displacement damage effects testing (neutron and protons) |
61 | 13.6 SEE testing 13.7 TME testing |
62 | 14. Counter and frequency readouts 14.1 Counters and continuous counters |
63 | 14.2 Period readouts 14.3 Frequency readouts 14.4 Phase-locked loops (PLLs) |
64 | 14.5 Other ways of reading out frequency 15. A/D conversion readouts 15.1 Commercial voltmeters 15.2 A/D converters 15.3 Voltage- and current-to-frequency converters |
65 | 16. Temperature monitoring 16.1 General comments 16.2 Calibration of temperature readout |
66 | 16.3 Types of temperature monitors 17. Other monitoring and commanding 17.1 Analog input signals and signal conditioning 17.2 Analog output signals |
67 | 17.3 Asynchronous interfaces 17.4 Digital input and output signals 17.5 Microprocessor interfaces 17.6 IEEE 488 bus 17.7 Other interface buses |
68 | 17.8 Radio telemetry interfaces 18. Computer data acquisition, control, filtering, and storage 18.1 Real-time operation 18.2 Initialization and running of test |
70 | 18.3 Interfaces to computer backplane 18.4 Experiment control and automatic test equipment 18.5 Acquired signals |
71 | 18.6 Event recording 18.7 Real-time digital filtering |
74 | 18.8 Data storage |
75 | 18.9 Data transmission 19. Data analysis 19.1 Data file format |
76 | 19.2 Plots versus time |
78 | 19.3 Plots of one channel versus another 19.4 Polynomial and other linear least-squares-fit residual plots |
81 | 19.5 Power spectral density (PSD) |
84 | 19.6 Allan variance |
87 | 19.7 Noise processes |
90 | 19.8 Time series to verify PSD and Allan variance software |
96 | 19.9 Allan variance autofit procedure 19.10 Regression analysis and cross PSD |
97 | 19.11 Parameter estimation |
99 | 19.12 Analysis of gyroscope and accelerometer drift data 19.13 Analysis of data with varying test conditions |
104 | 19.14 Database of test results |
105 | 20. Geophysics instrumentation 20.1 Gravimeters |
106 | 20.2 Tilt and azimuth motion 20.3 Seismometers |
107 | 20.4 Gyrocompass 20.5 Surveying and global positioning system (GPS) positioning |
110 | 20.6 Star sightings |
111 | 21. Calibration of test equipment and instrumentation 21.1 Site coordinates, gravity, and components of earth’s rotatio 21.2 Time and frequency references |
112 | 21.3 Calibration of electrical equipment 21.4 Calibration of temperature-measuring instrumentation 21.5 Calibration of other equipment |
114 | Annex A (informative) Bibliography |