driveway gates

Ship or pick up from our office.

UHF Label

• RFID Tags (Labels): These are small electronic devices, often in the form of adhesive labels, cards, or embedded devices. They contain a microchip that stores unique identification data and an antenna. Most UHF tags used in access control are passive, meaning they don't have their own power source and rely on the energy emitted by the reader.
• RFID Reader: The reader emits radio waves, creating an electromagnetic field. When a UHF RFID tag enters this field, it absorbs energy from the waves, which powers its microchip.
• Data Transmission: Once activated, the tag modulates the waves to transmit its stored data (its unique ID) back to the reader.
• Data Processing and Verification: The reader captures and decodes this data, then sends it to a central access control system (often a computer with specialized software and a backend database). The system verifies the tag's unique ID against a list of authorized credentials and pre-defined access rules.
• Access Granting/Denial: If the tag is authorized, the system sends a signal to unlock a door, open a gate, or grant access. If not authorized, access is denied, and the system may trigger an alarm or log the attempted entry.
• Logging: The system typically records all entry and exit events, providing a detailed audit trail for security and management purposes.

• UHF RFID Tags/Labels: These are the physical identifiers worn by individuals or attached to vehicles/assets. They store the unique ID and are read by the system.
• UHF RFID Readers: These devices emit radio waves to power and read the data from the tags. They are strategically installed at entry/exit points (e.g., doorways, gates). Fixed readers are common for specific zones, while handheld readers offer flexibility for mobile applications like inventory or searching for tags.
• Antennas: Connected to the readers, antennas are responsible for transmitting and receiving the radio signals. The type and placement of antennas affect the read range and coverage area.
• Access Control Software/System: This is the "brain" of the system. It manages the database of authorized tags, processes the data received from readers, applies access rules, and controls the locking mechanisms. It often integrates with other security or building management systems.
• Backend Database: Stores all the information related to RFID tags, authorized users, access levels, and event logs.
• Locking Mechanisms: These are the physical devices controlled by the system, such as electronic door locks, gate barriers, or turnstiles.

• Long Read Range 📏: UHF systems can read tags from several meters away (typically 3-10 meters, and sometimes up to 25 meters or more), allowing for hands-free and rapid access, particularly useful for vehicles or large volumes of people.
• High-Speed Data Transmission and Multi-Tag Reading ⚡: They can read multiple tags simultaneously (often over 100 tags per second), significantly improving efficiency in high-traffic areas and during events.
• Enhanced Efficiency ⏱️: Automation of access eliminates manual checks, reduces queuing times, and frees up staff for other tasks.
• Improved Security 🔒: Each tag has a unique identifier, making it difficult to forge or duplicate. The system provides real-time monitoring and detailed audit trails, enhancing accountability and security. Integration with other systems like surveillance cameras can further bolster security.
• Touchless Operation 🖐️: The long read range enables touchless access, which is beneficial for hygiene, particularly in high-traffic areas or environments where physical contact should be minimized.
• Scalability 📈: UHF RFID systems can be easily scaled to accommodate a growing number of users and access points without compromising performance.
• Durability and Resistance 💪: UHF tags are often resistant to environmental factors like water, oil, and chemicals, and the data stored on their chips is protected. They can also be reused.
• Reduced Wear and Tear: As there's no physical contact with readers, the system components experience less wear and tear, leading to lower maintenance costs.