Intelligent tool cabinet for offshore oilfield
By designing an intelligent tool cabinet on the offshore oilfield platform and combining it with RFID and face recognition modules, the problem of intelligent tool management is solved, efficient and accurate tool management is achieved, loss and misplacement are avoided, and the tool adapts to the offshore environment.
Patent Information
- Application Number
- CN202422176956.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-05
- Publication Date
- 2025-09-26
- Estimated Expiration
- 2034-09-05
AI Technical Summary
The lack of intelligent tool management on offshore oil production platforms leads to safety hazards caused by lost or left tools, and traditional tool cabinets cannot efficiently manage the use and maintenance of tools.
An intelligent tool cabinet for offshore oil fields was designed. It adopts a main cabinet and auxiliary cabinet structure, and is equipped with a data acquisition and control module, a temperature and humidity control module, and a power supply and data transmission module. Combined with an RFID identification antenna and a face recognition module, it realizes intelligent management and keyless control of tools.
It improves the accuracy and efficiency of tool management, avoids loss and misplacement, adapts to the shaking and high humidity environment at sea, has a stable structure, is easy to operate, and meets the requirements of various test environments.
Smart Images

Figure CN223383467U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of tool cabinets, and more particularly to an intelligent tool cabinet for offshore oil fields. Background Art
[0002] In the production process of offshore oil production platforms, tool management mostly uses traditional tool cabinets, which lack intelligent management capabilities and cannot collect tool storage status information. However, with the increasing number and variety of tools in the production process, including not only maintenance tools but also various high-precision measuring instruments and intelligent integrated tools, the use and maintenance of tools have also been put forward extremely high requirements. In particular, as the operating tools become more and more intelligent, their cost is becoming more and more expensive.
[0003] When it comes to tool return and inventory, especially for specialized operating tools for critical equipment, if left behind on-site or lost in operating equipment, it can pose a serious safety hazard to the production process. Therefore, offshore oil production companies face significant challenges in quickly and conveniently issuing and returning, locating and inventorying, and maintaining these operating tools, while ensuring accurate, timely, and efficient tool management. Utility Model Content
[0004] The utility model overcomes the deficiencies in the prior art and provides an intelligent tool cabinet for offshore oil fields.
[0005] The purpose of this utility model is achieved through the following technical solutions.
[0006] An intelligent tool cabinet for an offshore oil field comprises: a main cabinet and a sub-cabinet, which are fixedly connected to each other. A data acquisition control module, a temperature and humidity control module, and a power supply and data transmission module are provided in each of the main cabinet and the sub-cabinet. A management control module is circuit-connected to the data acquisition control module and the temperature and humidity control module via the power supply and data transmission module. The data acquisition control module and the temperature and humidity control module are correspondingly arranged in storage boxes of the main cabinet and the sub-cabinet. A display control module, an early warning module, a face recognition module, and a monitoring module are provided on the outer wall of the main cabinet. The display control module, the early warning module, the face recognition module, and the monitoring module are respectively connected to the power supply and data transmission module. The power supply and data transmission modules correspondingly arranged on the main cabinet and the sub-cabinet are connected to each other.
[0007] A plurality of partition setting bases are equidistantly arranged in the storage box, and a detachable partition is provided on the partition setting base, and the detachable partition is detachably connected to the partition setting base.
[0008] The storage box is equipped with a cabinet door, and the opening and closing of the cabinet door is controlled by the face recognition module.
[0009] The cabinet door is made of hollow transparent electromagnetic shielding film.
[0010] Cabinet fixing devices are provided at the bottom of the main cabinet and the auxiliary cabinet.
[0011] An RFID identification antenna is arranged in the storage box, and a data acquisition control module is connected to the RFID identification antenna circuit.
[0012] The number of auxiliary cabinets is one or more. When the number of auxiliary cabinets is greater than one, the auxiliary cabinets are fixedly connected to form an auxiliary cabinet group, and the auxiliary cabinet group is fixedly connected to the main cabinet.
[0013] The beneficial effects of the utility model are:
[0014] This solution obtains tool storage information through the RFID read-write controller and records tool status information through the data acquisition and controller module, realizing intelligent management of offshore oil platform tools, greatly improving the accuracy and efficiency of tool management, and improving the efficiency of tool management; this device realizes keyless management of tool cabinets through the live face recognition module; the power supply and data transmission module realizes the connection between the main cabinet and the auxiliary cabinet, realizes the scalability of the cabinet, and realizes unified intelligent control of the auxiliary cabinet.
[0015] Based on this, this device can be expanded into a smart tool cabinet within a sub-cabinet to accommodate the turbulent and high-humidity environments of the sea. Its robust structure, simple operation, and comprehensive and accurate data are all key features of this device. Its design fully considers the application scenarios of offshore oil production platforms and can meet the requirements of various testing environments. Furthermore, it saves time during actual tool management, prevents operators from misplacing tools, and improves the accuracy and efficiency of tool inventory. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 It is a structural diagram of the utility model;
[0017] Figure 2 Internal structure diagram of the storage box of the main cabinet and auxiliary cabinet;
[0018] Figure 3 This is the system principle diagram of the utility model;
[0019] In the figure: 1. Main cabinet; 2. Auxiliary cabinet; 3. Cabinet door; 4. Removable partition; 5. Cabinet fixing device; 101. Display control module; 102. RFID identification antenna; 103. Early warning module; 104. Face recognition module; 105. Monitoring module; 106. Power supply and data transmission module; 107. Temperature and humidity control module; 108. Data acquisition and control module. DETAILED DESCRIPTION
[0020] Example
[0021] An intelligent tool cabinet for offshore oil fields includes: a main cabinet 1 and a sub-cabinet 2, which are fixedly connected to each other. A data acquisition control module 108, a temperature and humidity control module 107, and a power supply data transmission module 106 are provided in each of the main cabinet 1 and the sub-cabinet 2. A management control module is circuit-connected to the data acquisition control module 108 and the temperature and humidity control module 107 via the power supply data transmission module 106. The data acquisition control module 108 and the temperature and humidity control module 107 are correspondingly arranged in storage boxes of the main cabinet 1 and the sub-cabinet 2. A display control module 101, an early warning module 103, a face recognition module 104, and a monitoring module 105 are provided on the outer wall of the main cabinet 1. The display control module 101, the early warning module 103, the face recognition module 104, and the monitoring module 105 are respectively connected to the power supply data transmission module 106. The power supply data transmission modules 106 correspondingly arranged on the main cabinet 1 and the sub-cabinet 2 are connected to each other.
[0022] A plurality of partition bases are equidistantly arranged in the storage box, and a detachable partition 4 is provided on the partition base. The detachable partition 4 is detachably connected to the partition base.
[0023] The storage box is provided with a cabinet door 3 , and the cabinet door 3 is controlled to open and close by the face recognition module 104 .
[0024] The cabinet door 3 is made of a hollow transparent electromagnetic shielding film.
[0025] Cabinet fixing devices 5 are provided at the bottom of the main cabinet 1 and the auxiliary cabinet 2 .
[0026] An RFID identification antenna 102 is provided in the storage box, and a data acquisition control module 108 is connected to the RFID identification antenna 102 circuit.
[0027] The number of the auxiliary cabinets 2 is one or more. When the number of the auxiliary cabinets 2 is greater than one, the auxiliary cabinets 2 are fixedly connected to form two auxiliary cabinet groups, and the two auxiliary cabinet groups are fixedly connected to the main cabinet 1 .
[0028] The working principle of this utility model is as follows: Figure 1 and Figure 2 shown.
[0029] The main cabinet 1 and auxiliary cabinets 2 are designed to meet the actual application requirements of offshore oil production platforms, and the number of auxiliary cabinets 2 can be increased based on actual usage needs. Furthermore, the main cabinet 1 and auxiliary cabinets 2 are connected using fasteners to ensure the tightness of the connection between the main cabinet 1 and the auxiliary cabinets 2. The main cabinet 1 is powered and transmits data with the auxiliary cabinets 2 via the power supply and data transmission module 106. At the same time, each module installed in the main cabinet 1 and the auxiliary cabinet 2 is connected to the management and control module through the power supply and data transmission module 106, so that each module can be monitored by the host computer.
[0030] The modules provided on both the main cabinet 1 and the auxiliary cabinet 2 are a data acquisition and control module 108 , a temperature and humidity control module 107 , and a power supply and data transmission module 106 .
[0031] The data acquisition control module 108 is used for tool inventory, data recording and analysis functions, and tool inspection and maintenance prompt functions, so as to identify the status of tools in the tool box.
[0032] The temperature and humidity control module 107 is used to detect the temperature and humidity in the storage box in real time, transmit the data to the management control module for processing, and adjust the temperature and humidity in the cabinet to adapt to the humidity control of the offshore platform.
[0033] The power supply and data transmission module 106 is used for information data transmission between the main cabinet 1 and the auxiliary cabinet 2 and for power supply between modules.
[0034] Furthermore, the main cabinet 1 is provided with a display control module 101 , an early warning module 103 , a face recognition module 104 and a monitoring module 105 .
[0035] The display control module 101 is used to implement the interface interaction function.
[0036] This embodiment uses a 14-inch touch-integrated industrial computer model LB-SX14 as a carrier device for the display control module 101 and the data acquisition control module 108.
[0037] The warning module 103 is used to implement a misplacement voice prompt function.
[0038] The face recognition module 104 is used to realize personnel recognition and locker opening functions.
[0039] In this embodiment, a living body recognition device of model M30 is used.
[0040] The monitoring module 105 is used to realize the function of recording the information of people around the tool cabinet.
[0041] like Figure 3 As shown, during operation, each module transmits information via the power supply and data transmission module 106, with overall control being provided by the management and control module. The management and control module can be controlled by a host computer or a PLC controller. In the figure, the data acquisition and control module 108 includes a tool cabinet door lock control panel, a multifunctional RFID tag reader / writer, an IC card reader, and an RFID reader. The tool cabinet door lock control panel controls the cabinet's electronic lock, while the multifunctional RFID tag reader / writer, IC card reader, and RFID reader are used to read tool tags, employee ID cards, and tool warranty information, respectively.
[0042] Furthermore, both the main cabinet 1 and the auxiliary cabinet 2 utilize a double-door structure, secured to the surroundings by a fixing plate assembly 5, typically employing an L-shaped fixture. The cabinet doors 3 utilize a hollow, transparent electromagnetic shielding film. This high-strength, transparent electromagnetic shielding film allows operators to easily inspect the status of tools within the cabinet and withstands the turbulence of offshore oil platforms.
[0043] In this embodiment, the cabinet bodies of the main cabinet body 1 and the auxiliary cabinet body 2 are composed of an aluminum frame to form a frame body, and a stainless steel plate is filled in the frame body to form a cabinet body. The disassembly function of the partition 4 enables the tool cabinet to adjust the upper and lower heights of the partition according to the specific tool situation to form cabinet spaces of different sizes.
[0044] During work, the operator inputs instructions through the display control module 101 and transmits the instructions to the management control module. The upper computer opens the cabinet door 3 and takes out the tools through the data acquisition control module 108. When the tools need to be returned, they are placed on the top of the removable partition 4. At this time, the RFID antenna 102 of the data acquisition control module 108 scans the RFID tag on the tool on the removable partition 4 to realize the tool tag information writing and reading functions, thereby determining the return information.
[0045] In this embodiment, a JH-IV intelligent constant temperature dehumidifier is used as the temperature and humidity control module 107. The temperature and humidity control module 107 controls the temperature and humidity inside the cabinet, thereby facilitating drying of the tools and the cabinet, thus preventing the lifespan of the tools from being affected by the humid environment at sea. Furthermore, the activated carbon provided helps eliminate odors inside the main cabinet 1, thereby preventing the development of odors after prolonged storage of the tools.
[0046] The above embodiments of the present invention are described in detail. However, the above contents are only preferred embodiments of the present invention and should not be considered to limit the scope of implementation of the present invention. All equivalent changes and improvements made within the scope of the present invention should still fall within the scope of the patent coverage of the present invention.
Claims
1. An intelligent tool cabinet for offshore oil fields, characterized in that: include: The main cabinet and the auxiliary cabinet are fixedly connected. The main cabinet and the auxiliary cabinet are both equipped with a data acquisition control module, a temperature and humidity control module and a power supply data transmission module. The management control module is circuit-connected with the data acquisition control module and the temperature and humidity control module through the power supply data transmission module. The data acquisition control module and the temperature and humidity control module are correspondingly arranged in the storage boxes of the main cabinet and the auxiliary cabinet. A display control module, an early warning module, a face recognition module and a monitoring module are provided on the outer wall of the main cabinet. The display control module, the early warning module, the face recognition module and the monitoring module are respectively connected to the power supply data transmission module. The power supply data transmission modules correspondingly arranged on the main cabinet and the auxiliary cabinet are connected to each other. A plurality of partition setting bases are equidistantly arranged in the storage box. A detachable partition is provided on the partition setting base, and the detachable partition is detachably connected to the partition setting base.
2. The offshore oilfield intelligent tool cabinet according to claim 1, characterized in that: The storage box is provided with a cabinet door, and the cabinet door is controlled to open and close by the face recognition module.
3. The offshore oilfield intelligent tool cabinet according to claim 2, characterized in that: The cabinet door is a hollow transparent electromagnetic shielding film cabinet door.
4. The offshore oilfield intelligent tool cabinet according to claim 1, characterized in that: Cabinet fixing devices are provided at the bottom of the main cabinet and the auxiliary cabinet.
5. The offshore oilfield intelligent tool cabinet according to claim 1, characterized in that: An RFID identification antenna is provided in the storage box, and the data acquisition control module is connected to the RFID identification antenna circuit.
6. The offshore oilfield intelligent tool cabinet according to claim 1, characterized in that: The number of the auxiliary cabinets is one or more. When the number of the auxiliary cabinets is greater than one, the auxiliary cabinets are fixedly connected to form an auxiliary cabinet group, and the auxiliary cabinet group is fixedly connected to the main cabinet.