A guide is presented for the preparation of a specification and test procedure for an inertial angular sensor that provides a common meeting ground of terminology and practice for manufacturers and users of an array of sensors that have been developed to meet needs not easily met by traditional spinning-rotor gyroscopes. A test procedure for verifying that the specifications have been met is given. The standard is not intended to compete with existing standards for specific devices with highly specific models and error sources, such as spring-restrained rate gyros, but to provide a uniform guide for those inertial angular sensors that have not been covered elsewhere.
- Sponsor Committee
- AES/GA - Gyro Accelerometer Panel
- Status
- Inactive-Reserved Standard
- Corrigendum
-
671-1985/Cor 1-2010
- Board Approval
- 1983-06-23
- History
-
- ANSI Approved:
- 1992-05-06
- Published:
- 1984-11-30
- Reaffirmed:
- 2008-12-10
- Inactivated Date:
- 2019-11-07
Working Group Details
- Society
- IEEE Aerospace and Electronic Systems Society
- Sponsor Committee
- AES/GA - Gyro Accelerometer Panel
- Working Group
-
SENSR_WG - Sensors Working Group
- IEEE Program Manager
- Malia Zaman
Contact Malia Zaman - Working Group Chair
- Jason Bingham
Other Activities From This Working Group
Current projects that have been authorized by the IEEE SA Standards Board to develop a standard.
P1431
Standard for Specifying and Testing Coriolis Vibratory Gyros
This standard defines requirements and test procedures for a single-axis Coriolis vibratory gyro (CVG) for use as a sensor in attitude control systems, angular displacement measuring systems, and angular rate measuring systems. Informative annexes cover CVG design features and theoretical principles of operation.
P836
Recommended Practice for Precision Centrifuge Testing of Linear Accelerometers
This recommended practice describes the conduct and analysis of precision tests for linear accelerometers using centrifuge techniques. The term “precision,” in this context, refers to tests that are conducted to evaluate accelerometer parameters, as opposed to tests conducted to establish environmental survivability only. Evaluation may take the form of determining the coefficients of the accelerometer's model equation, except for bias and scale factor, which are most accurately determined by static multiposition tests. Alternatively, evaluation may establish only that the accelerometer output complies with specific error limit criteria.
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