Electromechanical machine room equipment state non-inductive acquisition device
Through contactless sensors and intelligent analysis algorithms, the problems of low efficiency, high cost and data silos in traditional computer room monitoring are solved, and real-time, all-weather monitoring and security protection of computer room equipment are achieved.
Patent Information
- Application Number
- CN202423003972.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-06
- Publication Date
- 2025-09-30
- Estimated Expiration
- 2034-12-06
AI Technical Summary
Traditional computer room monitoring relies on manual inspections and inductive sensors, which have problems such as low efficiency, high cost, data silos, and poor real-time performance, affecting the normal operation and status monitoring of computer room equipment.
It uses contactless sensors and intelligent analysis algorithms, including device perception units, environmental perception units and output units. It collects video and environmental data through non-contact sensors, and uses AI modules for data processing and analysis to provide real-time monitoring and alarm functions.
It achieves real-time, all-weather monitoring of computer room equipment and environment, improves operation and maintenance efficiency, reduces interference with the computer room environment, reduces data silos, and provides more comprehensive security protection.
Smart Images
Figure CN223401176U_ABST
Abstract
Description
Technical Field
[0001] The embodiment of the utility model relates to the field of intelligent monitoring technology, and in particular to a device for collecting the status of equipment in a mechanical and electrical room without any sense of interference. Background Art
[0002] As core infrastructure, computer rooms store and process large amounts of critical data and information. Traditional computer room monitoring equipment relies on manual or inductive sensors to collect data, but these methods have several drawbacks:
[0003] ●The traditional manual inspection method relies on human operation, has low monitoring efficiency, is easily affected by subjective factors, and is difficult to achieve all-weather real-time monitoring.
[0004] ●Existing monitoring equipment usually uses inductive sensors, such as temperature probes and current transformers. These devices often need to contact or be close to the equipment being measured when collecting status data. This is not only complicated to install and has high maintenance costs, but it is also easy to interfere with the computer room environment and equipment operation, affecting the normal operation of the computer room.
[0005] Data silos and analysis delays: Due to a lack of unified standards across equipment brands and systems, data from traditional monitoring equipment is difficult to integrate, leading to serious data silos and hindering operations and maintenance personnel's understanding of overall status. Furthermore, data collection methods with limited real-time performance cannot effectively predict potential equipment anomalies. Utility Model Content
[0006] Based on this, in view of the deficiencies in the prior art, the solutions of the present invention are as follows:
[0007] A device for collecting the status of equipment in a mechanical and electrical room without sensing, comprising: an equipment sensing unit (10), an environment sensing unit (20), an output unit (30) and a main control unit (40), wherein the equipment sensing unit (10) comprises a short-focus camera (50) and a long-focus camera (60) for collecting video data of equipment in the mechanical and electrical room; the environment sensing unit (20) comprises a terahertz radar (70), a temperature sensor (80), a humidity sensor (90) and a gas sensor (100) for collecting information about water accumulation, temperature and humidity, and gas content in the mechanical and electrical room environment. The output unit (30) includes an indicator light (110) and a buzzer (120) for displaying the operating status of the sensorless acquisition device and alarming abnormal conditions in the motor room; the main control unit (40) includes a power module (130), a status indication module (140), a buzzer indication module (150), an AI module (160), a switch module (170), a 485 conversion module (180) and a fill light module (190), for receiving and processing the sensing data and sending the equipment analysis data and the environment analysis data of the motor room to the display terminal.
[0008] The short-focus camera (50) and the long-focus camera (60) are POE cameras, connected to the switch module (170) of the main control unit (40) via a POE active Ethernet cable, and are used to collect video data of devices at different locations inside the computer room.
[0009] The terahertz radar (70), temperature sensor (80), humidity sensor (90) and gas sensor (100) are connected to the 485 conversion module (180) of the main control unit (40) via an RS485 communication line, and are used to collect data on water depth, temperature, humidity, and gas content of carbon monoxide and hydrogen sulfide in the computer room environment; the 485 conversion module (180) is connected to the switch module (170) via an Ethernet interface, and is used to convert RS485 data into Ethernet data.
[0010] The indicator light (110) includes an operation indicator light and a fault indicator light, and is connected to the status indication module (140) for displaying the operation status of the sensorless acquisition device; the status indication module (140) is connected to the AI module (160) via an Ethernet interface and is used to receive a status signal sent by the AI module; if the status signal is 0XAA, the switch K1 inside the status indication module (140) is connected to the electrical contact 4, and the operation indicator light of the indicator light (110) is on; if the status signal is 0X00, the switch K1 inside the status indication module (140) is connected to the electrical contact 5, and the fault indicator light of the indicator light (110) is on.
[0011] The buzzer (120) is connected to the buzzer indication module (150) and is used to alarm and prompt abnormal conditions in the electromechanical room; the buzzer indication module (150) is connected to the AI module (160) via an Ethernet interface and is used to receive an alarm signal sent by the AI module; if the alarm signal is 0XAA, the switch K2 inside the buzzer indication module (150) is closed, and the buzzer (120) emits an alarm sound.
[0012] The switch module (170) is a 5-port 100M POE switch with a steel metal shell. It is connected to the short-focus camera (50) via the POE interface 1, connected to the long-focus camera (60) via the POE interface 2, connected to the AI module (160) via the Ethernet interface 1, and connected to the 485 conversion module (180) via the Ethernet interface 2. It is used to transmit equipment and environment perception data to the AI module (160); and is connected to the display terminal via the Ethernet interface 3, and is used to transmit the computer room equipment analysis data and environment analysis data sent by the AI module (160).
[0013] The power supply module (130) converts AC 220V power input into DC12V, and is simultaneously connected to the terahertz radar (70), the temperature sensor (80), the humidity sensor (90), the gas sensor (100), the indicator light (110), the buzzer (120), the status indication module (140), the buzzer indication module (150), the AI module (160), the switch module (170), the 485 conversion module (180), and the fill light module (190) to provide a DC12V working power supply; the fill light module (190) includes a button switch K3 for manually controlling whether to enable the fill light module (190).
[0014] The embodiment of the present invention provides a device for collecting the status of electromechanical room equipment without any sense of touch, which realizes real-time monitoring of the status of electromechanical room equipment and the room environment through non-contact sensors and intelligent analysis algorithms, helps to improve the operation and maintenance efficiency of the room, and provides more comprehensive safety protection for equipment operation. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] Figure 1 This is a structural block diagram of a device for collecting the status of equipment in a mechanical and electrical room in a non-sensing manner according to the utility model; DETAILED DESCRIPTION
[0016] The present invention will be further described in detail below with reference to the accompanying drawings and examples. It should be understood that the specific embodiments described herein are intended only to illustrate the present invention and are not intended to limit the present invention. It should also be noted that, for ease of description, the accompanying drawings only illustrate portions relevant to the present invention, not all of its components.
[0017] Figure 1 This is a structural block diagram of a device for collecting the status of mechanical and electrical equipment in an electromechanical room provided in an embodiment of the present invention. Figure 1A device for collecting the status of equipment in an electromechanical room without any sense of touch is provided. The device has an aluminum alloy structure and a protection grade of IP67. The device can be mounted on a wall or on a column in an electromechanical room. The device comprises: an equipment sensing unit (10), an environment sensing unit (20), an output unit (30) and a main control unit (40). The device sensing unit (10) comprises a short-focus camera (50) and a long-focus camera (60) for collecting video data of the equipment in the electromechanical room; the environment sensing unit (20) comprises a terahertz radar (70), a temperature sensor (80), a humidity sensor (90) and a gas sensor (100) for collecting The apparatus comprises an output unit (30) including an indicator light (110) and a buzzer (120) for displaying the operating status of the sensorless acquisition device and an alarm for abnormal conditions in the electromechanical room; a main control unit (40) including a power supply module (130), a status indication module (140), a buzzer indication module (150), an AI module (160), a switch module (170), a 485 conversion module (180) and a fill light module (190) for receiving and processing the sensing data and sending the equipment analysis data and the environmental analysis data of the electromechanical room to the display terminal.
[0018] The short-focus camera (50) and the long-focus camera (60) are POE cameras, and the module sensor is Sony IMX 1 / 1.8. The short-focus camera has a focal length of 25 mm and a pixel of 5 million, and the long-focus camera has a focal length of 50 mm and a pixel of 5 million. They are connected to the switch module (170) of the main control unit (40) via a POE active Ethernet cable and are used to collect video data of devices at different locations inside the machine room.
[0019] The operating frequency band of the terahertz radar (70) is 120 GHz, the ranging range is 20 m, and the ranging accuracy is ±2 mm. The temperature range of the temperature sensor (80) is -20 to 60° C., and the resolution is 0.1° C. The resolution of the humidity sensor (90) is ±1.5% RH. The gas sensor (100) is a four-in-one sensor of CO / O2 / H2S / CH4, which is connected to the 485 conversion module (180) of the main control unit (40) via an RS485 communication line and is used to collect data on water depth, temperature, humidity, and gas content of carbon monoxide and hydrogen sulfide in the computer room environment. The 485 conversion module (180) is connected to the switch module (170) via an Ethernet interface and is used to convert RS485 data into Ethernet data.
[0020] The indicator light (110) includes an operation indicator light and a fault indicator light, and is connected to the status indication module (140) for displaying the operation status of the sensorless acquisition device; the status indication module (140) is connected to the AI module (160) via an Ethernet interface and is used to receive a status signal sent by the AI module; if the status signal is 0XAA, the switch K1 inside the status indication module (140) is closed to connect the electrical contact 4, and the operation indicator light of the indicator light (110) is on; if the status signal is 0X00, the switch K1 inside the status indication module (140) is closed to connect the electrical contact 5, and the fault indicator light of the indicator light (110) is on.
[0021] The buzzer (120) is connected to the buzzer indication module (150) and is used to alarm and prompt abnormal conditions in the electromechanical room; the buzzer indication module (150) is connected to the AI module (160) via an Ethernet interface and is used to receive an alarm signal sent by the AI module; if the alarm signal is 0XAA, the switch K2 inside the buzzer indication module (150) is closed, and the buzzer (120) emits an alarm sound.
[0022] The switch module (170) is a 5-port 100M POE rail switch with a steel metal shell. It is connected to the short-focus camera (50) through the POE interface 1, connected to the long-focus camera (60) through the POE interface 2, connected to the AI module (160) through the Ethernet interface 1, and connected to the 485 conversion module (180) through the Ethernet interface 2. It is used to transmit equipment and environmental perception data to the AI module (160); it is connected to the display terminal through the Ethernet interface 3, and is used to transmit the equipment room equipment analysis data and environmental analysis data sent by the AI module (160). The AI module (160) processor is an Intel Core i5 with a CPU frequency of 2.5GHz / 4.50GHz, 3 network ports, and 8G memory.
[0023] The power module (130) converts the AC 220V power input into DC12V, and is simultaneously connected to the terahertz radar (70), the temperature sensor (80), the humidity sensor (90), the gas sensor (100), the indicator light (110), the buzzer (120), the status indication module (140), the buzzer indication module (150), the AI module (160), the switch module (170), the 485 conversion module (180), and the fill light module (190) to provide a DC12V working power supply; the fill light module (190) includes a button switch K3 for manually controlling whether to enable the fill light module (190).
[0024] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the above examples, those skilled in the art will be able to modify the technical solutions described in the above embodiments or replace some of the technical features therein with equivalents. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.
Claims
1. A device for collecting the status of equipment in a mechanical and electrical room without any sense of touch, characterized in that: include: A device sensing unit (10), an environment sensing unit (20), an output unit (30) and a main control unit (40), wherein the device sensing unit (10) comprises a short-focus camera (50) and a long-focus camera (60) for collecting video data of equipment in an electromechanical room; the environment sensing unit (20) comprises a terahertz radar (70), a temperature sensor (80), a humidity sensor (90) and a gas sensor (100) for collecting data on water accumulation, temperature and humidity, and gas content in the electromechanical room environment; the output unit (30) includes an indicator light (110) and a buzzer (120) for displaying the operating status of the sensorless acquisition device and alarming abnormal conditions in the motor room; the main control unit (40) includes a power module (130), a status indication module (140), a buzzer indication module (150), an AI module (160), a switch module (170), a 485 conversion module (180) and a fill light module (190), for receiving and processing perception data and sending machine room equipment analysis data and environment analysis data to the display terminal.
2. The device for collecting the status of mechanical and electrical equipment in a mechanical and electrical room according to claim 1 is characterized in that: The short-focus camera (50) and the long-focus camera (60) are POE cameras, connected to the switch module (170) of the main control unit (40) via a POE active Ethernet cable, and are used to collect video data of devices at different locations inside the computer room.
3. The device for collecting the status of mechanical and electrical equipment in a mechanical and electrical room according to claim 1 is characterized in that: The terahertz radar (70), temperature sensor (80), humidity sensor (90) and gas sensor (100) are connected to the 485 conversion module (180) of the main control unit (40) via an RS485 communication line, and are used to collect data on water depth, temperature, humidity, and gas content of carbon monoxide and hydrogen sulfide in the computer room environment; the 485 conversion module (180) is connected to the switch module (170) via an Ethernet interface, and is used to convert RS485 data into Ethernet data.
4. The device for collecting the status of mechanical and electrical equipment in a mechanical and electrical room according to claim 1 is characterized in that: The indicator light (110) includes an operation indicator light and a fault indicator light, and is connected to the status indication module (140) for displaying the operation status of the sensorless acquisition device; the status indication module (140) is connected to the AI module (160) via an Ethernet interface and is used to receive a status signal sent by the AI module; if the status signal is 0XAA, the switch K1 inside the status indication module (140) is closed to connect the electrical contact 4, and the operation indicator light of the indicator light (110) is on; if the status signal is 0X00, the switch K1 inside the status indication module (140) is closed to connect the electrical contact 5, and the fault indicator light of the indicator light (110) is on.
5. The device for collecting the status of mechanical and electrical equipment in a mechanical and electrical room according to claim 1 is characterized in that: The buzzer (120) is connected to the buzzer indication module (150) and is used to alarm and prompt abnormal conditions in the electromechanical room; the buzzer indication module (150) is connected to the AI module (160) via an Ethernet interface and is used to receive an alarm signal sent by the AI module; if the alarm signal is 0XAA, the switch K2 inside the buzzer indication module (150) is closed, and the buzzer (120) emits an alarm sound.
6. The device for collecting the status of mechanical and electrical equipment in a mechanical and electrical room according to claim 1 is characterized in that: The switch module (170) is a 5-port 100M POE switch with a steel metal shell. It is connected to the short-focus camera (50) via the POE interface 1, connected to the long-focus camera (60) via the POE interface 2, connected to the AI module (160) via the Ethernet interface 1, and connected to the 485 conversion module (180) via the Ethernet interface 2. It is used to transmit equipment and environment perception data to the AI module (160); and is connected to the display terminal via the Ethernet interface 3, and is used to transmit the computer room equipment analysis data and environment analysis data sent by the AI module (160).
7. The device for collecting the status of mechanical and electrical equipment in a mechanical and electrical room according to claim 1 is characterized in that: The power supply module (130) converts AC 220V power input into DC12V, and is simultaneously connected to the terahertz radar (70), the temperature sensor (80), the humidity sensor (90), the gas sensor (100), the indicator light (110), the buzzer (120), the status indication module (140), the buzzer indication module (150), the AI module (160), the switch module (170), the 485 conversion module (180), and the fill light module (190) to provide a DC12V working power supply; the fill light module (190) includes a button switch K3 for manually controlling whether to enable the fill light module (190).