A cooling system for medical imaging device

A medical imaging and cooling system technology, applied in the field of medical instruments, can solve the problems of difficulty in ensuring the operating temperature of the system, inability to maintain the temperature stability between scans, affecting imaging effects and system life, etc. The effect of stability

Active Publication Date: 2017-12-22
SHANGHAI UNITED IMAGING HEALTHCARE
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

A more commonly used cooling method is to directly pump out the air in the scanning room to take away the heat inside the machine, but this method cannot maintain the stability of the temperature in the scanning room, and it is difficult to ensure that the system runs at the best working temperature. It is easy to bring dust and impurities in the environment into the detector, affecting the imaging effect and system life

Method used

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  • A cooling system for medical imaging device
  • A cooling system for medical imaging device
  • A cooling system for medical imaging device

Examples

Experimental program
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Effect test

Embodiment 1

[0034] see figure 1 , the positron emission tomography apparatus includes a channel for accommodating patients, the support structure 24 outside the channel is provided with detector modules 1 arranged circumferentially around the channel, and the cooling device 19 is provided at the lower part of the scanner.

[0035] figure 2 It is a cross-sectional view of a positron emission tomography imaging device. The number 8 in the figure refers to a second partition, and a plurality of detector modules 1 are arranged on one side of the second partition 8, and a guide channel is arranged on the other side.

[0036] The diversion channel is a cavity, surrounded by a plurality of side plates, wherein the second partition 8 is one of the side plates forming the cavity; a third partition is arranged in the diversion channel , the third dividing plate is formed by connecting the baffle plate 11 and the channel cover plate 20, and divides the cavity into an air inlet channel 5 and a retu...

Embodiment 2

[0040] The difference between this embodiment and the first embodiment lies in the structure of the detector module 1. In this embodiment, the detector module 1 has a hollow chamber, and a first partition 7 is arranged inside the detector module 1; the detector module 1 The side connected to the second partition 8 is a fully open structure, the front end of the first partition 7 is tightly against the outer wall of the second partition 8, and the end of the second partition 7 is provided with a fifth ventilation hole 15 , the first partition 7 divides the interior of the detector module 1 into an air inlet chamber 3 and a return air chamber 4, the air inlet chamber 3 directly communicates with the air inlet passage 5 through the second through hole 10 on the second partition 8, and the return air chamber The air chamber 4 directly communicates with the return air passage 6 through the first ventilation hole 9 on the second partition 8 , and the air inlet chamber 3 and the retur...

Embodiment 3

[0042] see Figure 5 The difference from the first embodiment above is that in this embodiment, the hollow chamber inside the detector module 1 is divided into the air inlet chamber 3 and the air return chamber 4 by the first partition 7; the front-end processing unit 21 is located in the air inlet chamber 3, the front-end processing unit 21 is installed on the inner wall of the detector module 1, the readout circuit board 2 is located in the return air cavity 4, and one end of the readout circuit board 2 is installed on the inner wall of the detector module 1 through a connector, and its The other end is not in contact with the detector module 1; the shape of the detector module 1 is approximately cuboid, and a side wall of the detector module 1 can be connected with the second partition 8, and the side wall is provided with a wall connected to the air inlet chamber 3. The third ventilation hole 12 communicates with the fourth ventilation hole 13 of the return air chamber 4, ...

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PUM

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Abstract

The invention relates to the technical field of medical instruments, in particular to a cooling system for a medical imaging device, the medical imaging device includes a detector module with a hollow chamber, and a readout circuit board and a front-end processing unit are arranged in the hollow chamber , the cooling system includes: a cooling air passage, which includes an air inlet chamber and a return air chamber, the front-end processing unit is located in the air inlet chamber, and the readout circuit board is located in the return air chamber; the guide channel includes an air inlet passage and an air return passage arranged side by side. The return air channel, the air intake channel communicates with the air intake cavity, the return air channel communicates with the return air cavity, and the cooling device is used to deliver cooling airflow to the air intake channel. The invention integrates the readout circuit board in the detector, establishes a cooling cycle system, improves the stability of the internal temperature of the detector module, has a compact structure and reasonable layout, and provides convenience for the maintenance of the detector module.

Description

technical field [0001] The invention relates to the technical field of medical instruments, in particular to a cooling system for medical imaging devices. Background technique [0002] Existing medical imaging technologies include Single-Photon Emission Computed Tomography (Single-Photon Emission Computed Tomography, SPECT), Positron Emission Tomography (Position Emission Tomography, PET) and other technologies. Medical imaging systems such as SPECT and PET include a channel for accommodating patients, and detectors surrounding the human body are arranged in the channel, so that multi-angle imaging pictures of human lesion tissues can be obtained, and more accurate lesion information can be obtained. [0003] The principle of positron emission tomography technology is: a positron emitted during the decay of positronium combines with free electrons in human tissue and annihilates, and transforms into two gamma photons with opposite directions and energy of 511KeV each. When ...

Claims

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Application Information

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Patent Type & Authority Patents(China)
IPC IPC(8): H05K7/20
CPCH05K7/20145G01T1/1648G01T1/2985A61B6/037A61B6/4488H01L31/024G01J5/061G01T1/244G01T1/249
Inventor 刘伟平孙宜兴
Owner SHANGHAI UNITED IMAGING HEALTHCARE
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