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Diode Bridge GBU808
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Diode Bridge GBU808
*8A *800V *Single Phase *Rectifier IC Chip
Exit push button SSPB101
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Exit push button SSPB101
The Exit push button SSPB101 is a wired push button commonly used in access control systems, particularly where doors are secured by magnetic locks or other electronic locking mechanisms. 🚪 It functions as a manual activation device, allowing users to exit a secured area by simply pressing the button. When pressed, it sends an electrical signal to release the lock, enabling the door to open. Here's a breakdown of its key features and applications: Key Features and Functionality- Manual Activation: The SSPB101 is activated by physically pressing the button, providing a straightforward and reliable method for egress.
- Access Control Integration: It's designed to seamlessly integrate with existing access control systems, working in conjunction with devices like magnetic locks, electric strikes, or gate operators.
- Momentary Contact: Typically, the button provides a momentary signal, meaning the lock is released only while the button is pressed or for a set duration (e.g., 30 seconds) after being pressed, as determined by the access control panel.
- Redundancy and Safety: Exit push buttons like the SSPB101 often serve as a crucial backup exit method in case the primary access control system (like a card reader or keypad) malfunctions. They are also frequently required by building and fire safety codes to ensure a safe and reliable exit path during emergencies.
- Durability: These buttons are generally constructed from high-quality materials to withstand frequent use in various environments.
- Commercial Buildings: Offices, retail stores, and other commercial spaces use them for controlled entry and easy exit.
- Residential Buildings: Apartment complexes and other multi-unit dwellings may utilize them for common areas or specific entry/exit points.
- Industrial Settings: Warehouses and factories benefit from their simple and robust functionality.
- Areas with Magnetic Locks: Any location where doors are secured with magnetic locks heavily relies on exit push buttons for egress.
- Emergency Egress: They provide a fail-safe mechanism to unlock doors during emergencies like fires, even if other access control components fail.
- Accessibility: They offer a convenient and accessible way for individuals with mobility limitations to exit.
Sliding gate V-Groove nylon wheels -SLGWNS250
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Sliding gate V-Groove nylon wheels -SLGWNS250
*Double bearing *Max 250 Kg *98 mm Diameter (4") x 44 mm Width (1-3/4") (Heavy-duty bolts, nuts, and washers are included)
Sliding gate operator gear rack -SLGR2
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Sliding gate operator gear rack -SLGR2
The Sliding Gate Operator Gear Rack SLGR2 is a specific type of toothed bar used in conjunction with a sliding gate operator (motor) to convert its rotational power into the linear motion needed to open and close a sliding gate. Let's break down what SLGR2 likely refers to and its characteristics: Function of a Gear Rack:- Linear Motion: The Sliding Gate Operator Gear Rack SLGR2 is essentially a straight "rack" of teeth that meshes with a small circular gear called a pinion, which is attached to the shaft of the sliding gate operator's motor.
- Power Transmission: As the pinion spins, its teeth engage with the teeth of the gear rack, pushing or pulling the gate horizontally along its track. This is how the motor physically moves the gate.
- Length: The Sliding Gate Operator Gear Rack SLGR2 is specified as being 340 mm (millimetres) in length. This is a relatively short segment. Sliding gates often require multiple sections of gear rack to be joined together to span the entire length of the gate, as most gates are much longer than 340mm.
- Mounting Holes: It has "2 Holes". These holes are pre-drilled for easy attachment to the bottom frame of the sliding gate using screws or bolts.
- Material: While the exact material for this specific SLGR2 is not explicitly stated in all listings, gear racks are commonly made from:
- Steel (most common): Offers high strength, durability, and resistance to wear, making it suitable for heavy gates and high-traffic applications. Often galvanized or treated for corrosion resistance.
- Nylon with a Steel Core: A popular alternative. The nylon exterior provides quieter operation and good corrosion resistance, while the internal steel core offers the necessary strength and stability for the gate's weight and movement. This is a good balance of properties.
- Less commonly, other plastics or stainless steel are used for specific applications.
- "Module": While not explicitly stated for SLGR2, gear racks (and their mating pinions) adhere to a "module" standard (e.g., Module 2, Module 4). The module defines the size of the teeth and the spacing between them, ensuring that the gear rack properly meshes with the pinion gear of the specific sliding gate operator it's intended for. The SLGR2 would have a specific module that matches the operators sold by Royal Gate.
Magnetic Contact Switch – Wired
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Magnetic Contact Switch
A magnetic contact switch, often simply called a magnetic contact or door/window sensor, is a simple yet highly effective security device that detects when a door, window, gate, or any movable barrier is opened or closed. How it Works: It consists of two main parts:- The Sensor Unit (with a Reed Switch): This part contains a reed switch. A reed switch is a small, hermetically sealed (airtight) glass capsule with two tiny, flexible magnetic metal reeds (or contacts) inside. These reeds are usually made of a ferromagnetic material. This sensor unit is typically mounted on the stationary part of the opening (e.g., the door frame, window frame, or gate post).
- The Magnet Unit: This part contains a small, permanent magnet. This unit is mounted on the moving part of the opening (e.g., the door itself, the window sash, or the gate panel).
- Closed Position (Circuit Complete): When the door/window/gate is closed, the magnet unit is in very close proximity to the sensor unit. The magnetic field from the permanent magnet pulls the two tiny reeds inside the glass capsule together, causing them to make electrical contact. This completes an electrical circuit, indicating that the opening is secured.
- Many common contacts are "Normally Open" (NO), meaning the circuit is open when the magnet is away and closes when the magnet is near.
- Some are "Normally Closed" (NC), meaning the circuit is closed when the magnet is near and opens when the magnet is away. This is very common in security systems, as an "open" circuit triggers an alarm.
- Opened Position (Circuit Broken/Changed): When the door/window/gate is opened, the magnet moves away from the reed switch. As the magnetic field weakens, the reeds spring back to their original position, breaking the electrical contact. This change in the circuit (from closed to open, or open to closed, depending on the type) signals the connected system (e.g., a car alarm, home security system, or gate control panel) that the opening has occurred.
- Security Systems (Homes, Businesses, Vehicles): This is the most prevalent use. Magnetic contacts are placed on:
- Doors and Windows: To detect unauthorized entry. When a door or window is opened, it triggers the alarm.
- Garage Doors/Overhead Doors: Larger, more robust magnetic contacts are used for garage doors.
- Gates: Used on pedestrian gates or even main driveway gates (sometimes in conjunction with the gate opener's own limit switches) to monitor their open/closed status for security purposes.
- Safes and Vaults: To detect if they have been opened.
- Vehicle Doors/Trunks/Hoods: While vehicles have internal sensors, magnetic contacts can be added for enhanced security on specific compartments or custom modifications.
- Access Control Systems: To monitor entry and exit points, log access events, or control other devices based on door status.
- Automation Systems: To trigger actions based on the status of a movable part. Examples include:
- Turning lights on/off when a door opens.
- Indicating when a cabinet door is ajar.
- Position sensing in industrial machinery.
- Appliance Safety: Some appliances use magnetic contacts to ensure a lid is closed or a guard is in place before operation.
- Surface Mount: Most common, easily screwed or adhered to the surface of the frame and door.
- Recessed/Flush Mount: Designed to be drilled into the frame and door for a more discreet, hidden installation.
- Heavy Duty/Overhead Door Contacts: Larger and more rugged, built for the heavier use and larger gaps often found with garage or industrial doors.
- Wired vs. Wireless:
- Wired: Physically connected to the alarm panel via wires, offering high reliability.
- Wireless: Contain a small battery and a radio transmitter to send signals wirelessly to the alarm panel, offering easier installation.
Mercury Level Switch
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Mercury Level Switch
A mercury level switch is a type of electrical switch that uses a small amount of liquid mercury to open or close an electrical circuit based on its position or the level of a liquid. Essentially, the mercury acts as a conductive bridge between electrical contacts. How it Works The core component of a mercury level switch is a sealed glass or metal capsule containing one or more electrical contacts and a small, free-moving drop of mercury. When the switch or the liquid it's monitoring changes its tilt or level:- Tilt Switches: Gravity pulls the mercury to the lowest point within the capsule. If the tilt is sufficient, the mercury will flow to connect two or more contacts, completing an electrical circuit. Tilting it in the opposite direction moves the mercury away, breaking the circuit.
- Float Switches: In liquid level applications, the mercury switch is often integrated with a float mechanism. As the liquid level rises or falls, the float moves, which in turn tilts the mercury switch, causing the mercury to connect or disconnect the contacts.
- Displacement Switches: Some designs use a "plunger" that dips into a pool of mercury, raising the mercury level to contact an electrode and complete the circuit.
- Thermostats: In older thermostats, they controlled heating and cooling systems.
- Sump Pumps: Used to automatically turn on the pump when water levels rise.
- Appliances: Found in washing machines (for lid switches and load balancing), chest freezers (for lid lights), and some gas appliances like ovens and water heaters (as flame sensors).
- Automotive Industry: Previously used for trunk lid lights, ride control, and anti-lock braking systems.
- Industrial Settings: Utilized in liquid level control and safety systems.
- Roll Sensing/Tip-over Warnings: For construction equipment or other vehicles operating on uneven terrain.
- Durability and Reliability: The sealed contacts prevent oxidation, leading to a long lifespan.
- Quiet Operation: No abrupt snapping of contacts.
- No Contact Erosion: Mercury's liquid nature prevents the wear and tear seen in mechanical contacts.
- Spark-Free: They don't produce sparks when making or breaking circuits, making them suitable for hazardous environments.
- Toxicity of Mercury: This is the primary and most significant disadvantage. Mercury is a highly toxic substance, posing serious environmental and health risks if released.
- Environmental Concerns: Improper disposal of mercury switches can lead to widespread contamination. Due to these concerns, the use of mercury switches has been largely phased out in many applications, especially in new products.
- Sensitivity to Gravity/Orientation: While an advantage for tilt sensing, it makes them unsuitable for portable or mobile devices where orientation changes or vibrations could cause false readings.
- Limited Functionality: Most mercury switches provide only a simple on/off function.
UHF Card
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UHF Card
UHF (Ultra High Frequency) Card Access Control is a system that uses Ultra High Frequency Radio-Frequency Identification (UHF RFID) technology for managing and controlling access to various areas. Unlike traditional access control systems that require a close proximity tap or swipe, UHF systems leverage the longer read range of UHF RFID to provide hands-free, faster, and more efficient access. How it Works ⚙️ The core components of a UHF Card Access Control system are:- UHF Cards/Tags: These are typically cards, key fobs, or even vehicle tags embedded with a UHF RFID inlay. They contain a unique identification number or other encoded data.
- UHF Readers: These devices emit radio waves in the UHF frequency range (typically 860-960 MHz). When a UHF card/tag enters the reader's range, the tag is powered by the radio waves and transmits its unique data back to the reader.
- Antennas: Integrated within or connected to the readers, these are responsible for transmitting and receiving the radio signals.
- Access Control Software/System: This software receives the data from the reader, verifies the tag's credentials against a database, and then grants or denies access based on predefined rules. If access is granted, it sends a signal to unlock a door, open a gate, etc.
- Tag enters field: A person with a UHF card or a vehicle with a UHF tag approaches the reader.
- Reader transmits signal: The UHF reader continuously emits radio waves.
- Tag responds: The passive UHF tag, powered by the reader's signal, transmits its unique ID back.
- Data received and processed: The reader captures the tag's data and sends it to the access control system.
- Access granted/denied: The system verifies the credentials and, if authorized, activates the access point (e.g., opens a barrier). This entire process happens wirelessly and often within milliseconds.
- Long Read Range: Unlike Low Frequency (LF) and High Frequency (HF) RFID systems, UHF can read tags from several meters away (up to 10-15 meters or more depending on the setup). This allows for hands-free access, such as for vehicles entering a parking lot or individuals walking through a gate without stopping.
- High-Speed Data Transmission and Multiple Tag Reading: UHF readers can read many tags simultaneously and quickly (hundreds of tags per second). This is crucial for high-traffic areas, reducing bottlenecks and improving efficiency.
- Convenience and Efficiency: Users don't need to physically present or swipe a card, leading to a smoother and faster access experience. This is especially beneficial in applications like vehicle access, parking management, and large event entry.
- Enhanced Security: UHF tags are difficult to counterfeit, and the systems often incorporate encryption and password protection to prevent unauthorized access and data manipulation. Real-time tracking capabilities can also enhance security oversight.
- Scalability and Centralized Management: Cloud-based UHF access control platforms allow administrators to manage users, permissions, and access points remotely and in real-time, making it easy to scale for larger organizations or multiple locations.
- Durability and Cost-Effectiveness (Long Term): UHF components are generally robust and durable, leading to lower maintenance and replacement costs over time compared to traditional systems.
- Low Frequency (LF) RFID (125-134 kHz):
- Read Range: Very short (typically a few centimeters).
- Characteristics: Less susceptible to interference from metal and liquids.
- Common Uses: Animal identification, car immobilizers, older access control systems where close proximity is acceptable.
- High Frequency (HF) RFID (13.56 MHz):
- Read Range: Short (up to 1 meter).
- Characteristics: Good for secure data transfer and applications requiring closer interaction. Often used with Near Field Communication (NFC).
- Common Uses: Contactless payments (e.g., Apple Pay, Google Pay), smart cards for building access, public transport ticketing, library systems.
- Ultra High Frequency (UHF) RFID (860-960 MHz):
- Read Range: Long (several meters up to 15+ meters).
- Characteristics: Ideal for long-range, high-speed identification of multiple items. More susceptible to interference from metals and liquids than LF/HF, though specialized tags and antenna designs can mitigate this. The industry standard for passive UHF RFID is often referred to as RAIN RFID.
- Common Uses: Vehicle access control, inventory management, supply chain tracking, asset tracking, automated toll collection, large-scale personnel tracking.
UHF Tag
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UHF Tag
A UHF (Ultra-High Frequency) tag access control system is a security solution that uses radio frequency identification (RFID) technology operating in the ultra-high frequency range (typically 860-960 MHz) to control and monitor entry and exit of individuals or vehicles to restricted areas. 🛂 It's an automated system that identifies an individual or object with a unique RFID tag and, based on pre-defined permissions, grants or denies access. Unlike traditional barcode systems, UHF RFID doesn't require a direct line of sight between the tag and reader, allowing for longer read ranges and the ability to read multiple tags simultaneously. How It Works A UHF tag access control system generally consists of four main components:- UHF RFID Tags: These are small electronic devices containing a microchip and an antenna. The microchip stores data, such as a unique identifier or user information. Passive UHF tags, the most common type, are powered by the electromagnetic field emitted by the reader. Active tags have their own battery, enabling longer read ranges and continuous data transmission.
- UHF RFID Readers: These devices emit radio waves to create an electromagnetic field. When a UHF tag enters this field, it absorbs energy (for passive tags) and uses it to power its microchip. The tag then modulates the waves to transmit its stored data back to the reader. Readers can be fixed at entry points (like doors or gates) or handheld.
- Antennas: Integrated with the reader, antennas are responsible for transmitting and receiving the radio signals. Their design and placement are crucial for optimizing read performance and range.
- Access Control Software/Server: This is the "brain" of the system. The reader sends the decoded tag data to the software, which compares it against a database of authorized users and their assigned access levels. If the credentials match, the software sends a signal to unlock the door, open a gate, or trigger another access action. This software also logs all access events, providing an audit trail.
- Long Read Range: UHF systems can read tags from several meters away, making them ideal for applications like vehicle access control where you don't need to stop and present a card.
- High Read Speed and Multi-Tag Reading: They can quickly read multiple tags at once, which is beneficial in high-traffic areas or for tracking numerous assets simultaneously.
- Automation and Efficiency: Automated identification eliminates the need for manual checks, speeding up entry and exit processes.
- Enhanced Security: By identifying individuals and logging access events, these systems improve security and accountability. Features like encryption and unique IDs help prevent unauthorized access and cloning.
- Durability: UHF tags are often designed to be robust and can withstand various environmental conditions, making them suitable for outdoor or industrial use.
- Scalability: Systems can be easily expanded to cover more access points or accommodate a larger number of users.
- Vehicle Access Control: Automatically granting access to parking lots, gated communities, or corporate campuses without requiring drivers to stop and swipe a card.
- Building and Room Access: Controlling entry to offices, secure areas, or sensitive facilities for employees and authorized personnel.
- Event Management: Using RFID-enabled wristbands or badges for quick and efficient entry to concerts, theme parks, or VIP areas.
- Asset Tracking: While primarily for access, the same technology can track the movement of valuable assets within a controlled environment.
- Personnel Tracking: Monitoring the presence and movement of staff within a facility for safety or operational purposes.
- Interference: Performance can be affected by certain materials like metal and liquids in the environment, which can interfere with radio waves.
- Cost: Initial installation costs can be higher compared to simpler access control methods due to the specialized hardware and software.
- Regulatory Compliance: UHF frequencies are not globally harmonized, meaning system components must comply with regional radio regulations.
- Security Risks: While secure, like any digital system, there's a potential for sophisticated cloning or hacking attempts if not properly secured with encryption and robust protocols.
Card Holder
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Card Holder
A UHF/RFID card holder is a specialized enclosure designed to hold and protect UHF (Ultra-High Frequency) RFID cards, often used for access control, vehicle identification, and logistics.
These holders typically consist of a durable material with a slot or pocket to securely accommodate the card, and may feature a mounting mechanism like suction cups for windshield attachment.
They enable convenient and reliable use of UHF RFID cards in various applications, such as parking systems, building access, and asset tracking, by providing a designated place for the card and facilitating easy scanning by RFID readers.
Relay Mini PCB 8-Pin 1A
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Relay Mini PCB 8-Pin 1A
A Relay Mini PCB 8-Pin 1A is a small, electronic switch designed to be mounted directly onto a Printed Circuit Board (PCB). It has eight pins for connections and its contacts can safely switch a maximum current of 1 Ampere (1A). Key Characteristics- Miniature Size: The "Mini" in its name indicates its compact dimensions, making it suitable for circuits where space is limited.
- PCB Mountable: It's designed for through-hole soldering onto a PCB, integrating seamlessly into electronic designs.
- 8-Pin Configuration: These pins serve various purposes, including connecting the coil (which activates the relay) and the switch contacts (which control the electrical load).
- 1A Current Rating: This is the maximum current that can safely flow through the relay's contacts when they are closed.
- Coil Voltage: The relay's coil operates on a specific DC voltage (e.g., 3V, 5V, 12V, 24V). Applying this voltage to the coil creates a magnetic field that mechanically opens or closes the contacts.
- Contact Configuration: Many 8-pin mini PCB relays are DPDT (Double Pole, Double Throw), meaning they have two sets of contacts, each with both normally open (NO) and normally closed (NC) positions. This allows for versatile switching operations.
- Isolation: Relays provide electrical isolation between the control circuit (coil) and the load circuit (contacts), enhancing safety and preventing interference.
- Remote Control Systems: Used to switch power to devices based on signals from a remote.
- Communication Equipment: For routing or switching signals in telecommunications and data networks.
- Automatic Control Systems: In automation processes to control motors, lights, or other actuators.
- Household Appliances: Found in various home electronics to manage power to different components.
- Automotive Systems: Employed in vehicles to control functions like lights, locks, and windows.
- Instrumentation and Measurement Devices: For precise signal routing and control in sensitive equipment.
RFID Card Access Control
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RFID Card Access Control
RFID card access control is a system that uses Radio Frequency Identification (RFID) technology to manage and control access to physical spaces. It provides a secure and convenient way to grant or deny entry to authorized individuals, replacing traditional keys or swipe cards. This system works by wirelessly communicating between an RFID card (or tag) and an RFID reader. How it Works- RFID Card (Tag): Each authorized individual carries an RFID card, key fob, or even a smartphone with an embedded RFID chip. This chip contains a unique identification code and sometimes other encrypted data.
- RFID Reader: Readers are installed at entry points (doors, gates, elevators, etc.). They constantly emit a radio frequency field.
- Communication: When an RFID card enters the reader's field, the card's antenna captures energy from the reader's signal. This energizes the microchip on the card, allowing it to transmit its unique data back to the reader.
- Data Verification: The RFID reader decodes the information from the card and sends it to a central access control server or control panel. This server compares the card's data with a secure database of authorized users and their access permissions.
- Access Grant/Denial: If the credentials match an authorized profile, the system sends a signal to an electronic lock mechanism, allowing entry. If not, access is denied. This entire process typically happens in milliseconds.
- Audit Trail: The system also records detailed access information, including the time, date, and specific access point used, providing a valuable audit trail for security purposes.
- RFID Cards/Tags: These are the credentials held by users, typically in the form of plastic cards, key fobs, or even integrated into mobile devices. They contain a microchip and an antenna.
- RFID Readers (Interrogators): Devices installed at entry points that emit radio waves to communicate with the tags and read their data.
- Access Control Panel/Server: This is the "brain" of the system. It receives data from the readers, verifies user credentials against a database, and controls the electronic locks. It can be cloud-based or local.
- Electronic Locks: Devices that secure the entry points and are controlled by the access control system (e.g., magnetic locks, electric strikes).
- Access Control Software: Software used to manage user profiles, set access levels, monitor events, and generate reports.
- Passive RFID Tags: Most common for access control. They don't have an internal battery and are powered by the electromagnetic field emitted by the reader. They have a shorter read range (a few centimeters to a meter).
- Active RFID Tags: These tags have their own power source (battery), allowing for a much longer read range (up to several hundred meters) and the ability to broadcast signals periodically. They are typically more expensive.
- Semi-Passive RFID Tags: These tags have a battery to power the chip but only transmit data when activated by a reader's signal, offering improved sensitivity and performance over passive tags.
- Convenience: Offers contactless and keyless entry, making it fast and easy for users to gain access. Cards can often be read from inside a wallet or bag.
- Enhanced Security: Provides unique identification and can utilize encrypted communication, making tags difficult to duplicate. Lost cards can be immediately deactivated, preventing unauthorized use.
- Efficiency: Streamlines entry and exit processes, reducing wait times, especially in high-traffic areas.
- Flexibility & Scalability: Easily allows for adjusting access permissions for different users, areas, or time frames. Systems can be expanded or modified as needs change.
- Integration: Can be integrated with other security systems like CCTV, alarms, and time attendance systems for comprehensive security management.
- Audit Trails: Provides real-time tracking of who enters and exits, offering valuable data for security monitoring and incident investigation.
- Durability: RFID components generally experience less wear and tear compared to traditional mechanical locks or swipe card systems.
- Skimming: In theory, unauthorized readers could attempt to read card information if they get close enough, though modern RFID cards often use one-time codes and encryption to mitigate this risk.
- Cloning: If the security protocols are weak, an RFID card's information could potentially be cloned.
- Electromagnetic Interference: Other electronic devices or metal/liquid objects can sometimes interfere with RFID signals, impacting performance.
UHF Label
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UHF Label
A UHF (Ultra-High Frequency) label access control system uses radio-frequency identification (RFID) technology operating in the ultra-high frequency range (typically 860-960 MHz) to manage and control access to specific areas, buildings, or resources. It's a touchless, automated system that offers long-range reading capabilities and the ability to identify multiple items simultaneously, making it highly efficient for various applications like vehicle access, personnel tracking in large facilities, and event management. 🛂 How it Works The core principle of a UHF label access control system relies on the communication between RFID tags (labels) and RFID readers. Here's a breakdown of the process:- 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.
