IP Library Granted Patent US 8,058,619
Granted Patent B2
US 8,058,619 · App. 12/413,041 · Granted Nov 15, 2011

Radiation detector

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Quick Facts
Patent No.
US 8,058,619
App. No.
12/413,041
Granted
Nov 15, 2011
Kind
B2
Abstract

A radiation detector comprises a tool housing. The tool housing has a substantially cylindrical tubular shape. A radiation sensor generates a signal in response to detecting radiation. The radiation sensor is locatable within the tool housing. A signal processor is operably connectable with the radiation sensor. The signal processor receives the signal from the radiation sensor and generates an electrical signal as a function of the signal received. The signal processor is locatable within the tool housing. A flex-sleeve supports at least one of the radiation sensor and signal processor within the tool housing. The flex-sleeve comprises a substantially cylindrical portion and a coaxially extending polygonal portion for engagement and supportive interaction with the cylindrical portion.

Claims (22)

1. A radiation detector comprising:

a tool housing, the tool housing having a substantially cylindrical tubular shape;

a radiation sensor for generating a signal in response to detecting radiation, the radiation sensor locatable within the tool housing;

a signal processor operably connectable with the radiation sensor and for receiving the signal from the radiation sensor and generating an electrical signal as a function of the signal received, the signal processor locatable within the tool housing; and

a flex-sleeve for supporting at least one of the radiation sensor and signal processor within the tool housing, the flex-sleeve comprising a substantially cylindrical portion and a coaxially extending polygonal portion for engagement and supportive interaction with the cylindrical portion.

2. The radiation detector of claim 1 wherein the cylindrical portion and the polygonal portion of the flex-sleeve are formed from a single piece of resilient sheet material.

3. The radiation detector of claim 1 wherein one of the cylindrical portion and the polygonal portion of the flex-sleeve surrounds at least a portion of the other of the cylindrical portion and the polygonal portion of the flex-sleeve.

4. The radiation detector of claim 1 wherein the cylindrical portion of the flex-sleeve is located radially within the polygonal portion of the flex-sleeve.

5. The radiation detector of claim 1 wherein the flex-sleeve supports both the radiation sensor and signal processor within the tool housing.

6. The radiation detector of claim 1 wherein the cylindrical portion of the flex-sleeve is longer than the polygonal portion of the flex-sleeve.

7. The radiation detector of claim 1 further including a friction reducing material on at least a portion of one of the polygonal portion of the flex-sleeve and tool housing.

8. The radiation detector of claim 1 wherein the polygonal portion of the flex-sleeve is free of sharp edges and burrs that could otherwise tend to damage the tool housing during relative movement therebetween.

9. A radiation detector comprising:

a tool housing, the tool housing having a substantially cylindrical tubular shape;

a radiation scintillator sensor comprising a crystal material for generating a light signal as a function of radiation detected, the radiation scintillator sensor being locatable within the tool housing;

a photomultiplier tube operably connectable with the radiation scintillator sensor and for receiving the light signal from the radiation scintillator sensor and generating an electrical signal as a function of the light signal received, the photomultiplier tube being locatable within the tool housing; and

a flex-sleeve for supporting at the radiation scintillator sensor and photomultiplier tube within the tool housing, the flex-sleeve comprising a substantially cylindrical portion and a coaxially extending polygonal portion for engagement and supportive interaction with the cylindrical portion, and one of the cylindrical portion and the polygonal portion of the flex-sleeve surrounds at least a portion of the other of the cylindrical portion and the polygonal portion of the flex-sleeve.

10. The radiation detector of claim 9 wherein the cylindrical portion and the polygonal portion of the flex-sleeve are formed from a single piece of resilient sheet material.

11. The radiation detector of claim 9 wherein the cylindrical portion of the flex-sleeve is located radially within the polygonal portion of the flex-sleeve.

12. The radiation detector of claim 9 wherein the cylindrical portion of the flex-sleeve is longer than the polygonal portion of the flex-sleeve.

13. The radiation detector of claim 9 further including a friction reducing material on at least a portion of one of the polygonal portion of the flex-sleeve and tool housing.

14. The radiation detector of claim 9 wherein the polygonal portion of the flex-sleeve is free of sharp edges and burrs that could otherwise tend to damage the tool housing during relative movement therebetween.

Assignments (2)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2020
From: GENERAL ELECTRIC COMPANY
To: BAKER HUGHES OILFIELD OPERATIONS, LLC
Reel/Frame 051707/0737 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 16, 2020
From: GENERAL ELECTRIC COMPANY
To: BAKER HUGHES OILFIELD OPERATIONS, LLC
Reel/Frame 051619/0862 →