IP Library Patent Application 17555463
Patent Application
App. No. 17/555,463

Distributed Sensor Inertial Measurement Unit

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Quick Facts
Patent No.
US None
App. No.
17/555,463
Abstract

An inertial measurement unit with distributed sensors to provide superior accuracy for acceleration, angular velocity and in some cases orientation. By using a distributed sensor configuration, improved accuracy is possible by leveraging the geometric configuration of the sensor array. The devices and methods described below provide for a distributed sensor IMU with distributed accelerometers, in addition to optionally distributed magnetometers and a further optional gyroscope.

Claims (21)

1 . A distributed inertial measurement unit comprising:

six or more accelerometers oriented in a distributed array, each accelerometer producing an output signal, the six or more accelerometer output signals are processed by a first signal processor to produce an acceleration signal and a velocity signal;

six or more magnetometers oriented in a distributed array, each magnetometer producing an output signal, the six or more magnetometer output signals processed by a second processor to produce compass data and processed compass data, the processed compass data is applied to the first processor to produce an angular velocity prediction and centripetal acceleration signals.

2 . The distributed inertial measurement unit of claim 1 wherein the accelerometers are oriented in distributed array with each of the six or more accelerometers aligned with the vertices of a polyhedron.

3 . The distributed inertial measurement unit of claim 1 wherein the accelerometers are oriented in distributed array with each of the six or more accelerometers aligned with the surfaces of a polyhedron.

4 . The distributed inertial measurement unit of claim 1 wherein the accelerometers are oriented in distributed array with each of the six or more accelerometers aligned with the vertices and surfaces of a polyhedron.

5 . The distributed inertial measurement unit of claim 1 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices of a polyhedron.

6 . The distributed inertial measurement unit of claim 2 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices of a polyhedron.

7 . The distributed inertial measurement unit of claim 3 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices of a polyhedron.

8 . The distributed inertial measurement unit of claim 4 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices of a polyhedron.

9 . The distributed inertial measurement unit of claim 1 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices and surfaces of a polyhedron.

10 . The distributed inertial measurement unit of claim 2 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices and surfaces of a polyhedron.

11 . The distributed inertial measurement unit of claim 3 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices and surfaces of a polyhedron.

12 . The distributed inertial measurement unit of claim 4 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the vertices and surfaces of a polyhedron.

13 . The distributed inertial measurement unit of claim 1 wherein the first signal processor produces an angular velocity prediction signal and a centripetal velocity signal and the distributed inertial measurement unit further comprises:

a third signal processor operatively connected to the first signal processor to receive and process the angular velocity prediction signal and a centripetal acceleration;

a gyroscope producing a gyroscope output signal that is operatively connected to the third signal processor.

14 . The distributed inertial measurement unit of claim 1 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the surfaces of a polyhedron.

15 . The distributed inertial measurement unit of claim 2 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the surfaces of a polyhedron.

16 . The distributed inertial measurement unit of claim 3 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the surfaces of a polyhedron.

17 . The distributed inertial measurement unit of claim 4 wherein the magnetometers are oriented in distributed array with each of the six or more magnetometers aligned with the surfaces of a polyhedron.

Assignments (3)
SECURITY INTEREST Recorded Jan 21, 2026
From: EOTAK, LLC
To: KEYBANK NATIONAL ASSOCIATION, AS ADMINISTRATIVE AGENT
Reel/Frame 073538/0451 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jul 16, 2025
From: VK INTEGRATED SYSTEMS, INC.
To: EOTAK, LLC
Reel/Frame 071728/0585 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Dec 19, 2021
From: KAPOGIANIS, VASILIOS K.
To: VK INTEGRATED SYSTEMS, INC.
Reel/Frame 058425/0762 →