Smart Security System

Scope of Services:

The advancement of intelligent and information‑based technologies serves as the foundation and driving force for enhancing and refining modern building security systems. An integrated, all‑in‑one security platform that combines intelligence with information technology has become the primary technical focus in the planning and design of security‑prevention system projects. HAIYI is advancing along the axes of networking, platformization, large‑scale deployment, and comprehensive integration, deeply cultivating this field and independently developing a system architecture and networked link framework that take intelligent security‑technology information as their core data carriers, thereby addressing a wide range of customers’ security needs.

 

Solution Example:

HYPOS ^® The T-Card smart registration system is designed for

   Epidemic Prevention and Control – Rapid Identification of Personnel Information;

   Emergency Alert – Rapidly identify onboard personnel information;

   Routine drills—assessing drill effectiveness;

   The land-based office synchronizes personnel information with the vessel.

   An intelligent security system tailored to specific needs and challenges.

It offers the following functional advantages:

  Personnel information is registered quickly, accurately, and comprehensively.

Diversified customization of information terminals;

Cloud-based storage of personnel information;

Automatic collection of location data;

Convenient for real-time terrestrial viewing;

Unaffected by ship power failure;

The information terminal is equipped with built-in precise positioning functionality.

Monitor staff safety conditions in a timely manner to ensure their personal safety.

 

 

 

 

Case One: LNG Receiving Terminal Personnel and Robot Inspection Positioning System

1. Case Background      

At a certain LNG receiving terminal in Tianjin, the extensive site area necessitates intelligent and digital solutions to enhance the efficient management of the conventional plant facilities.

 

2. Project Implementation    

Haiyi employs a self-developed GNSS-plus-Bluetooth positioning technology to achieve high-precision indoor and outdoor location tracking within the plant area, accurately pinpointing the real-time locations of inspection personnel and displaying their position data, risk‑zone information, and other relevant details on the backend management interface.

 

Digital, visual, and information‑based management of personnel behavior; real-time, accurate tracking of inspection personnel’s movement paths; precise acquisition of staff work status and location data, enabling continuous, real-time supervision.

Integration of GIS spatial geographic information technologies enables targeted, precise management, allowing for accurate oversight and efficient, rapid response to critical areas and time periods. In the event of an incident, personnel locations can be swiftly pinpointed, enabling timely command and dispatch during the optimal rescue window and helping to prevent safety accidents.

Accurate and comprehensive data storage, coupled with on‑demand regulatory inspections—covering inspection points, areas, routes, durations, records, and historical traceability.

 

3. System Architecture

 

 

Case Study Two: Communication and Personnel/Vehicle Positioning System for an Uninhabited Area in the Middle East

1. Case Background        

In the southeastern part of a certain location in the Middle East, a geological exploration project is being carried out, with plans to deploy a fleet comprising light pickup trucks, heavy-duty trucks, and seismic source vehicles to complete the survey. The area lies in an uninhabited desert region, devoid of telephone service or cellular network coverage. A system must be established to enable the camp headquarters to monitor the operational status of vehicles across the work site.

 

2. Project Implementation    

Haiyi deployed a tethered drone equipped with a self-organizing networking module as an airborne relay node, linking the remote operations fleet with the nearby ground command center to establish a self‑organizing network that covers the entire operational area. This enables the camp headquarters to monitor vehicle location, speed, acceleration, and engine‑off status in real time, communicate with personnel, and issue commands to the vehicles.

 

The command center is equipped with fixed satellite ground station data transmission and reception equipment, communication devices, and front-end operating computers. Its functions include: using front-end software to monitor the location of operational vehicles, track vehicle trajectories, facilitate vehicle communications, enable voice calls, and handle data transmission and reception.

The vehicle terminal comprises a GNSS‑based in‑vehicle positioning unit, an in‑vehicle tablet, and a wireless data transceiver, among other components. Its functions include vehicle positioning, navigation, and alarm notification via terminal software, as well as communication between the vehicle terminal and personnel on one hand, and the server and command center on the other, facilitated by ground‑based relay nodes.

 

 

Case Three: Drilling Platform Electronic Safety Supervision System

1. Case Background      

Offshore drilling platforms operate in relatively harsh environments, with complex equipment layouts and a dispersed workforce. Information exchange between the command center and drilling personnel is challenging, and relying solely on video surveillance and manual screening cannot meet safety‑production requirements.

 

2. Project Implementation    

Haiyi has partnered with China University of Petroleum to independently develop a video‑surveillance algorithm that integrates high‑precision personnel positioning. This system enables real-time monitoring and alerting of non‑compliant behaviors on site, while displaying alarm information and other relevant data on the backend management interface. In this way, it facilitates the timely and effective identification of weak links and safety hazards in production, helping to prevent and mitigate the occurrence of major accidents.

 

3. System Implementation

Video surveillance integrates AI algorithms to efficiently detect and analyze various types of violations; it provides all‑person, end‑to‑end, 24/7, and comprehensive video monitoring; and it establishes a real‑time video‑based behavioral recognition model for on‑site well operations. By leveraging deep learning algorithms for information filtering, it delivers highly accurate early warnings.

① The detection rate for fires, persons falling into the water, pipeline leaks, and other incidents reaches 99%.

② Users such as senior management, employees, and third-party personnel have corresponding access to the management interface and associated permissions.

③ When integrated with other intelligent and IoT devices on existing platforms, it exhibits advanced features, ease of use, reliability, scalability, and high levels of integration.

Personnel positioning and tracking system: By deploying intrinsically safe, explosion-proof positioning base stations on the drilling rig, the system achieves precise localization of personnel, including both horizontal and vertical positioning. Additionally, by integrating LiDAR, elevation sensors, and rotary encoders with personnel‑location data on the crane, an electronic perimeter is established.

Functional capabilities: (1) Real-time personnel location tracking; (2) Video‑based alerting for non‑compliant behaviors; (3) Electronic perimeter fencing.

Man-overboard detection: The system automatically activates upon detecting a person overboard, and can also be manually initiated. It transmits an alarm signal to nearby vessels via AIS/DSC-MOB, enabling those vessels to identify the distress situation within 5–10 seconds. Upon receiving the alarm, ships or aircraft use the GNSS positioning system to quickly determine the location of the person in the water. Rescue teams then promptly navigate to the scene based on this positioning data and successfully rescue the individual.

 

 

 

Case Study 4: Low-Altitude Methane Detection Solution—Customer Case and Feedback

1. Industry pain points

  Economic loss

Resource waste: Failure to promptly detect methane leaks results in the direct loss of resources.

Increased costs: Leaked methane requires additional treatment, raising operational expenses.

  Security risk

Explosion Risk: Methane is a highly flammable gas, posing a threat to both personnel safety and facility integrity.

Health Impacts: Long-term exposure to high concentrations of methane can adversely affect workers’ health.

  Scene constraints

Traditional testing—whether handheld or cabinet‑based—cannot meet the requirements of airborne equipment test scenarios at the air‑side.

  Regulatory pressure

Stringent environmental regulations: Methane leaks exceeding permissible limits may result in hefty fines or legal action.

 

2. Advantages of the Low-Altitude Methane Detection Solution

  Quick Inspection

Drones can rapidly cover large areas, significantly reducing the time required for manual inspections. Paired with the Dajiang Airport 2, they enable automatic battery swapping, eliminate the need for a pilot, and deliver fully automated gas‑leak inspection.

  Security

Drones can perform inspections in hazardous environments, reducing the risks associated with manual operations.

  Real-time data transmission

It can collect and analyze data in real time, promptly detecting leaks or anomalies.

  Ease of operation

Supports fully automated, high-precision inspection flight routes; with minimal manual intervention, the drone can autonomously execute imaging missions along a predefined path.

   Flexibility

The flight path and altitude can be adjusted as needed to suit different environments and terrains.

  Reduce costs

Compared with traditional inspection methods, drone-based inspections can reduce labor and equipment costs.

 

3.   Customer Business Pain Points:

Methane is odorless, invisible, and difficult to locate when leaks occur.

When hazardous gases are present, personnel safety cannot be guaranteed if they approach the source.

 

4. Our Advantages:

Equipped with the HJ-CH4, the drone can efficiently and accurately detect methane leaks during the refining process, ensuring production safety.

Non-contact detection eliminates the safety risks associated with conventional inspection methods and enhances inspection efficiency.

 

 

 

Customer Feedback