A thermoluminescence dosimeter transceiver

Abstract

The utility model discloses a kind of thermoluminescence dosimeter transceiver, it is related to radiation protection technical field, for solving the problem of low transceiving efficiency of existing TLD conventional distribution mode, taking and placing error-prone, unable to show personal information on TLD.The device includes: TLD transceiver module and the TLD storage module capable of being placed in it, both are commonly installed on the cabinet of transceiver device;TLD storage module includes: the shell with TLD inside installation, shell inside is also provided with electronic module and the display component and interface component connected with it;TLD transceiver module includes: for placing the transceiver module seat cabin of TLD storage module, the upper portion of transceiver module seat cabin is provided with electromagnetic lock, electromagnetic lock can trigger spring component and eject TLD storage module, micro-motion detection switch and interface component are provided in transceiver module seat cabin, for identifying whether TLD storage module is in seat cabin respectively, and transmission data and power supply are carried out to TLD storage module.

Description

Technical Field

[0001] This utility model belongs to the field of radiation protection technology, specifically relating to a thermoluminescent dosimeter transceiver device. Background Technology

[0002] According to relevant national laws and regulations, registrants, license holders, and employers (hereinafter referred to as enterprises) shall be responsible for arranging occupational exposure monitoring and evaluation for their employees. Occupational exposure evaluation should primarily be based on individual monitoring. Employees engaged in radioactive work must undergo individual dose monitoring; external exposure monitoring mainly uses thermoluminescent dosimeters (hereinafter referred to as TLDs).

[0003] When staff enter the radiation control area, the company needs to distribute TLDs (Total Discharge Readers) for radiation dose detection to each staff member in advance. The distributed TLDs must be labeled with the user's name, company, and other information for easy retrieval and management later. The current standard method of distribution to all staff is as follows: TLD managers distribute TLDs to all staff entering the radiation control area on a periodic basis, usually every two months. After the expiration date, the TLDs are collected and read. When not in use, the TLDs are stored on shelves for staff to retrieve themselves. However, this standard practice has introduced the following unresolved issues:

[0004] 1. The registration of sending and receiving TLDs is done manually, which is inefficient and prone to errors;

[0005] 2. After distribution, TLDs are placed on shelves, making it easy for staff to pick up or put down the wrong items.

[0006] 3. TLDs need to be reused, and personal information of users cannot be displayed on the TLD.

[0007] Currently, there are many types of thermoluminescent dosimeter transceivers on the market, but they all have certain drawbacks. For example, a smart cabinet for electronic dosimeter transceivers and its control method (patent number: CN118015759A) has a complex mechanical structure, high cost, poor stability, and limited storage space, requiring regular manual replenishment. Another example is a personal dosimeter management transceiver device and method (patent number: CN 118397764A), which cannot intuitively display personnel information, has low security in its storage method, and is prone to accidental removal by personnel. Utility Model Content

[0008] The purpose of this invention is to provide a thermoluminescent dosimeter transceiver device that solves the problems of low transmission and reception efficiency, easy errors in picking and placing, and inability to display personal information on the TLD in the existing conventional distribution method.

[0009] The technical solution adopted by this utility model to solve its technical problem is: a thermoluminescent dosimeter transceiver device, which includes: a TLD transceiver module and a TLD storage module that can be placed therein, both of which are installed on the cabinet of the transceiver device; the TLD storage module includes: a housing in which the TLD is installed, and an electronic module and a display component and an interface component connected thereto are also arranged inside the housing; the TLD transceiver module includes: a transceiver module cabin for placing the TLD storage module, an electromagnetic lock is arranged above the transceiver module cabin, the electromagnetic lock can trigger a spring component to pop out the TLD storage module, and a micro-motion detection switch and an interface component are arranged inside the transceiver module cabin, which are respectively used to identify whether the TLD storage module is in the cabin, and to transmit data and supply power to the TLD storage module.

[0010] The above-mentioned thermoluminescent dosimeter transceiver device includes a housing comprising a front housing and a middle housing in which a TLD is placed, and an electronic module placed between the middle housing and the rear housing to form a sealed device.

[0011] In the aforementioned thermoluminescent dosimeter transceiver device, the electronic module and the interface component's storage module magnetic interface are connected to the display component's e-ink screen. Data is transmitted through the storage module magnetic interface, and the relevant data information is displayed on the e-ink screen.

[0012] In the aforementioned thermoluminescent dosimeter transceiver device, the spring component includes a spring rod disposed inside the transceiver module cabin and a compression spring at one end of the inner side of the spring rod. When the TLD storage module is inserted into the cabin, it can push the spring rod to compress the compression spring. When the TLD storage module reaches the limit position, the spring rod can engage with the limit hole inside the transceiver module cabin.

[0013] In the aforementioned thermoluminescent dosimeter transceiver device, the electromagnetic lock, in its holding state, applies a downward force to the spring rod from top to bottom, causing it to engage in the limiting hole. When the electromagnetic lock receives a trigger signal, it contracts, the spring rod disengages from the limiting hole, and the compressed spring triggers the release of potential energy to eject the TLD storage module.

[0014] In the aforementioned thermoluminescent dosimeter transceiver device, the interface component inside the transceiver module cabin is a magnetic interface for the transceiver module, one end of which is connected to the cabinet and the other end is connected to the interface component of the TLD storage module to transmit power and data to it.

[0015] In the aforementioned thermoluminescent dosimeter transceiver device, one side of the transceiver module's cabin entrance is connected to a rotating hinge. When the TLD storage module is inserted into the TLD transceiver module, the rotating hinge opens; after the TLD storage module is removed from the TLD transceiver module, the rotating hinge closes.

[0016] The aforementioned thermoluminescent dosimeter transceiver device is further equipped with a biometric device on its cabinet, which can generate electrical signals and personal information data through facial recognition or card swiping.

[0017] Compared with existing technologies, the beneficial effects of this utility model are as follows: The thermoluminescent dosimeter transceiver device provided by this utility model, on the one hand, achieves dynamic allocation and management of TLDs through structural design, reducing the number of TLDs used; in a cluster management mode, it improves space utilization through reasonable layout. On the other hand, by displaying the personnel information of the current TLD allocation cycle in real time and monitoring the usage status of the TLDs in real time, it improves the standardization of TLD management and the efficiency of sending and receiving, reducing the risk of personnel mistaking and the cost of manual management. Attached Figure Description

[0018] Figure 1 The diagram shown is a schematic of the storage module structure of a thermoluminescent dosimeter transceiver device according to this utility model.

[0019] Figure 2 The diagram shown is a schematic diagram of the transceiver module structure of a thermoluminescent dosimeter transceiver device according to this utility model;

[0020] Figure 3 The diagram shown is a schematic representation of the actual application of the thermoluminescent dosimeter transceiver device described in this utility model.

[0021] Explanation of reference numerals: 1. Front housing; 2. TLD; 3. Middle housing; 4. Ink screen; 5. Electronic module; 6. Rear housing; 7. Plastic buckle; 8. Magnetic interface for storage module; 9. Electromagnetic lock; 10. Micro-motion detection switch; 11. Spring rod; 12. Compression spring; 13. Magnetic interface for transceiver module; 14. Rotating hinge; 15. Transceiver module cabin; 16. TLD storage module; 17. Biometric device; 18. Transceiver cabinet. Detailed Implementation

[0022] To address the problems of low transmission and reception efficiency, error-prone retrieval, and inability to display personal information on the TLD using existing conventional TLD distribution methods, this utility model provides a thermoluminescent dosimeter transceiver device. For example... Figures 1-3 As shown, the device includes a TLD transceiver module and a TLD storage module 16 that can be placed therein, both of which are mounted on the cabinet 18 of the transceiver device.

[0023] The TLD storage module 16 includes a TLD2 installed inside a housing, which comprises a front housing 1, a middle housing 3, and a rear housing 6. The front housing 1 and the middle housing 3 form a single structure for housing the TLD2; the TLD2 can be inserted by opening the front housing 1. The rear housing 6, the middle housing 3, and the plastic clips 7 form a sealed structure for storing the electronic module 5. The electronic module 5 is connected to the storage module magnetic interface 8 of the interface component and the e-ink screen 4 of the display component. Data is transmitted via the storage module magnetic interface 8, and the e-ink screen 4 displays the distribution information of the TLD2, which may include the staff name, unit, etc. The e-ink screen 4 and the storage module magnetic interface 8 are respectively installed at the front and rear ends of the TLD storage module 16.

[0024] The TLD transceiver module includes a transceiver module housing 15 for housing the TLD storage module 16. An electromagnetic lock 9 is located above the housing 15. When the electromagnetic lock 9 receives a relevant signal, it triggers a spring component to eject the TLD storage module 16. Inside the housing 15 are a micro-motion detection switch 10 and an interface component. The micro-motion detection switch 10 identifies whether the TLD storage module is inside the housing. When the TLD storage module is inserted into the housing, it moves closer to the micro-motion detection switch 10. As the TLD storage module reaches its limit, it contacts the micro-motion detection switch 10, triggering a feedback signal. The system uses this feedback signal to determine whether the TLD storage module has been properly positioned and secured. The interface component inside the housing 15 is a transceiver module magnetic interface 13, one end of which connects to the cabinet 18, and the other end connects to the storage module magnetic interface 8 of the TLD storage module 16, transmitting power and data to it.

[0025] The spring assembly includes a spring rod 11 located inside the transceiver module cabin 15 and a compression spring 12 at one end of the spring rod. When the TLD storage module 16 is inserted into the cabin, it pushes the spring rod 11 to compress the compression spring 12. When the TLD storage module 16 reaches its limit, the spring rod 11 engages with a limiting hole inside the transceiver module cabin 15. In the holding state, the electromagnetic lock 9 applies a downward force to the spring rod 11 from top to bottom, causing it to engage in the limiting hole. When the electromagnetic lock 9 receives a trigger signal, it retracts, the spring rod 11 disengages from the limiting hole, and the compression spring 12 releases its potential energy, ejecting the TLD storage module. One side of the transceiver module cabin 15's inlet / outlet is connected to a rotating hinge 14. When the TLD storage module is inserted into the TLD transceiver module, the rotating hinge 14 opens; after the TLD storage module is removed from the TLD transceiver module, the rotating hinge 14 closes to prevent dust and foreign objects from entering, thus improving the device's lifespan.

[0026] The cabinet 18 of the transceiver unit is also equipped with a biometric identification device 17, which can generate electrical signals and personal information data through facial recognition or card swiping. One end of the magnetic interface 13 is connected to the cabinet to receive the personal information signal generated by the biometric identification device 17, and the other end is connected to the magnetic interface 8 of the storage module to transmit the received personal information signal to the e-ink screen, while charging the e-ink screen 4. Since the content of the e-ink screen 4 will not disappear after power is cut off, the information on the e-ink screen 4 will not be affected even if power is cut off after the personal information signal has been transmitted.

[0027] Example:

[0028] Multiple TLD transceiver modules 16 are concentrated in the transceiver unit cabinet 18.

[0029] Staff members use the biometric device 17 on the receiving and sending device cabinet 18 to transmit the electrical signal generated by face scanning or card swiping to the electromagnetic lock 9, causing the electromagnetic lock 9 to retract, the spring rod 11 to disengage from the limiting hole, and the compressed spring 12 to release potential energy to pop out the TLD storage module 16 for staff to use. At the same time, the generated electrical signal will transmit the staff's personal information to the electronic module 5 through the magnetic interface 13, so that the relevant information will be displayed on the e-ink screen 4.

[0030] When the TLD storage module is removed, the rotating hinge 14 falls down, preventing foreign objects from entering and also alerting other personnel that the TLD storage module 16 has been used. The micro-motion detection switch 10 generates a feedback signal and transmits it to the transceiver cabinet 18, indicating that the TLD storage module 16 has been removed.

[0031] When the staff returns the TLD storage module 16, the TLD storage module 16 opens the rotating hinge 14, pushing the spring rod 11 inward until the spring rod 11 is engaged in the limit hole. After the TLD storage module 16 is fully inserted, the spring rod 11 contacts the micro-motion detection switch 10, generating a feedback signal to the transceiver cabinet 18 software, indicating that the TLD storage module 16 has been returned. The built-in software of the transceiver cabinet 18 can also be connected to a computer, displaying the transceiver records of the transceiver cabinet 18 in real time. Administrators can check the usage status of the TLD storage module 16 in real time via a remote server.

[0032] It should be noted that the combination of the technical features in the embodiments of this utility model is not limited to the combination methods recorded in the embodiments of this utility model or the combination methods recorded in specific embodiments. All technical features recorded in this utility model can be freely combined or combined in any way, unless there is a contradiction between them.

[0033] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications or equivalent substitutions made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A thermoluminescent dosimeter transceiver device, characterized in that, The device includes a TLD transceiver module and a TLD storage module (16) that can be placed therein, both of which are mounted on the cabinet (18) of the transceiver device. The TLD storage module (16) includes a housing in which a TLD (2) is installed. An electronic module (5) and a display component and an interface component connected thereto are also provided inside the housing. The TLD transceiver module includes a transceiver module cabin (15) for placing the TLD storage module (16). An electromagnetic lock (9) is provided above the transceiver module cabin (15). The electromagnetic lock (9) can trigger a spring component to pop out the TLD storage module (16). A micro-motion detection switch (10) and an interface component are provided inside the transceiver module cabin (15) to identify whether the TLD storage module is in the cabin and to transmit data and supply power to the TLD storage module, respectively.

2. The thermoluminescent dosimeter transceiver device according to claim 1, characterized in that, The housing includes a front housing (1) and a middle housing (3) in which a TLD (2) is placed, and an electronic module (5) is placed between the middle housing (3) and the rear housing (6) to form a sealing device.

3. A thermoluminescent dosimeter transceiver device according to claim 1 or 2, characterized in that, The electronic module (5) is connected to the magnetic interface (8) of the storage module of the interface component and the e-ink screen (4) of the display component. Data is transmitted through the magnetic interface (8) of the storage module, and the relevant data information is displayed on the e-ink screen (4).

4. The thermoluminescent dosimeter transceiver device according to claim 1, characterized in that, The spring component includes a spring rod (11) disposed inside the transceiver module cabin (15) and a compression spring (12) at one end of the inner side of the spring rod. When the TLD storage module (16) is inserted into the cabin, it can push the spring rod (11) to compress the compression spring (12). When the TLD storage module (16) reaches the limit, the spring rod (11) can engage with the limit hole inside the transceiver module cabin (15).

5. The thermoluminescent dosimeter transceiver device according to claim 4, characterized in that, When the electromagnetic lock (9) is in the holding state, it can exert a downward force on the spring rod (11) from top to bottom, so that it is locked in the limiting hole. When the electromagnetic lock (9) receives a trigger signal, the electromagnetic lock (9) retracts, the spring rod (11) disengages from the limiting hole, and the compressed spring (12) triggers the release of potential energy to pop out the TLD storage module.

6. The thermoluminescence dosimeter transceiver device according to claim 1, characterized in that, The interface component inside the transceiver module cabin (15) is the transceiver module magnetic interface (13), one end of which is connected to the cabinet (18), and the other end is connected to the interface component of the TLD storage module (16) to transmit power and data to it.

7. The thermoluminescence dosimeter transceiver device according to claim 1, characterized in that, The transceiver module cabin (15) has one side inside the entrance connected to a rotating hinge (14). When the TLD storage module is inserted into the TLD transceiver module, the rotating hinge (14) opens. After the TLD storage module is removed from the TLD transceiver module, the rotating hinge (14) closes.

8. The thermoluminescence dosimeter transceiver device according to claim 1, characterized in that, The cabinet (18) of the transceiver is also equipped with a biometric device (17), which can generate electrical signals and personal information data through facial recognition or card swiping.

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