▲Real time linkage and rapid response：

The all-in-one machine can achieve real-time correlation between gas data and video images. For example, when the concentration of combustible gas reaches 25% of the lower explosive limit (LEL), the system will not only sound an alarm, but also automatically switch to the video footage of the relevant area, and even activate the recording function to provide real-time and comprehensive on-site information for the emergency command center. This greatly shortens response time and improves emergency response efficiency compared to traditional modes that require manual verification of alarm points and retrieval of videos.

▲Simplify deployment and reduce costs：

Deploying an all-in-one device means installing only one set of equipment, rather than two independent systems. This not only reduces the complexity of wiring, power supply, and installation, but also lowers the cost of initial procurement and later maintenance. For scenarios such as limited space operations that require rapid deployment, the portability and integration advantages of all-in-one machines are particularly prominent. For example, the ERUN series explosion-proof handheld deployment ball integrates gas detection, video surveillance, meteorological environment monitoring, and self-organizing network communication technology. It is ready to use and supports rapid deployment, significantly improving on-site deployment efficiency.

▲Information integration and decision optimization：

The all-in-one machine integrates different types of data (gas concentration, video images, and even environmental parameters such as temperature, humidity, wind speed, etc.) into one platform, providing managers with more comprehensive situational awareness through data fusion and intelligent analysis. This helps to more accurately assess the risk level and develop more scientific emergency plans. For example, in the "General Technical Requirements for Gas Detection and Alarm Instruments in Workplace Environment" (GB 12358-2024), the technical requirements for gas detection and alarm instruments are clearly defined, and integrating video surveillance into it can better meet the needs of on-site safety management.

▲Improve homework safety：

Especially in confined space operations, all-in-one machines can effectively solve the problems of communication blind spots and monitoring blind spots. Through the two-way voice intercom function, on-site operators can communicate in real-time with the command center to ensure timely and accurate information transmission. This is crucial for ensuring the safety of workers' lives. According to the requirements of the "Safety Regulations for Limited Space Operations in Industrial and Commercial Enterprises" (Emergency Management Order No. 13 of the People's Republic of China), enterprises should strengthen the safety management of limited space operations, and integrated equipment is an effective tool to improve management level.

★High precision multi gas sensor：

Integrated machines are usually equipped with various types of high-precision sensors such as electrochemical, catalytic combustion, infrared, PID, etc., which can simultaneously detect multiple flammable or toxic and harmful gases, such as CO, H2S, CH4, VOC, etc. For example, some devices can support simultaneous detection of 1 to 12 or more gases, covering over 70 gas types, ensuring comprehensive monitoring of complex environments. The response time (T90) of the sensor is usually within 30 seconds, ensuring rapid response to changes in gas concentration.

★High definition video and thermal imaging technology：

Built in high-definition camera with a resolution of 1080P or even higher, ensuring the clarity of video images. Some all-in-one machines also integrate thermal imaging cameras, which can provide clear images in low visibility environments such as nighttime or smoke, which is crucial for fire rescue and leak source localization. Video transmission typically uses H.264 or H.265 encoding to optimize bandwidth usage.

★Multimodal communication and self-organizing network capability：

To ensure data transmission in complex environments, all-in-one machines typically support multiple communication methods, including 4G/5G, WiFi, Bluetooth, LoRa, and MESH ad hoc networks. MESH self-organizing network technology is particularly suitable for communication blind spots, where devices can forward data to each other to form a stable communication network, ensuring real-time transmission of data and video. For example, in underground pipe galleries or large factory areas, traditional wireless signals may be obstructed, but self-organizing network technology can effectively solve this problem, with a data transmission success rate of over 99%.

★Intelligent analysis and warning：

By combining artificial intelligence and big data technology, the all-in-one machine can intelligently analyze the collected gas data and video images. For example, identifying abnormal behavior, personnel falling, flames and smoke through video analysis, and linking it with gas exceeding alarm to achieve multi-dimensional warning. This intelligent analysis capability greatly reduces the burden of manual monitoring and improves the accuracy and timeliness of early warning.

★Durable and Explosion proof Design：

Considering the harsh working environment, all-in-one machines usually adopt dust-proof and waterproof designs with IP66 or even higher protection levels, and have explosion-proof certifications (such as Ex ib IIC T4 Gb) to ensure stable operation in high temperature, humidity, dust or explosive gas environments. The battery life of the device is also crucial, generally supporting 8-12 hours of continuous operation to meet long-term work requirements.

▲Limited space homework：

This is one of the most typical application scenarios. According to data from emergency management units, accidents occur frequently in confined space operations. In 2019, a gas poisoning accident occurred, resulting in 7 deaths. The all-in-one machine can monitor the concentration of toxic and harmful gases and oxygen in a limited space in real time, and monitor the internal situation through video. It also supports two-way voice intercom, greatly improving the safety of operations and complying with relevant requirements such as the "Technical Specification for Safety of Limited Space Operations" (GBZ/T 222-2009).

▲Petrochemical industry：

Petrochemical enterprises involve a large amount of flammable, explosive, and toxic gases. Integrated machines can be used for leak monitoring and video surveillance in key areas such as tank areas, pipelines, and reaction vessels, achieving early warning and accident tracing. For example, the market size of gas detection equipment is expected to reach 5.34 billion US dollars in 2023 and 13.356 billion US dollars by 2031, with a compound annual growth rate of 12.34%. This indicates that the demand for gas detection equipment in the market continues to grow, and all-in-one machines as a solution will occupy an important position.

▲Fire rescue and emergency response：

In emergency rescue sites such as fires and hazardous chemical leaks, the all-in-one machine can be quickly deployed, providing on-site gas concentration, thermal imaging videos, and environmental information to help the command center comprehensively grasp the situation and formulate scientific rescue plans. Its portability and rapid deployment capability enable rescue personnel to perform tasks more safely and efficiently.

▲Urban underground pipe galleries and tunnels：

These enclosed spaces are prone to the accumulation of toxic and harmful gases, and communication is restricted. The all-in-one machine can achieve continuous monitoring of the gas environment and personnel activities in the pipe gallery through self-organizing network technology, ensuring the safety of inspection and maintenance personnel.

▲Industrial park and factory boundary monitoring：

Used for monitoring gas emissions around industrial parks or factory boundaries, combined with video surveillance, to achieve real-time monitoring and tracing of environmental pollution sources, meeting environmental regulatory requirements.