Access control readers are permanently mounted at strategic entry points such as doors, turnstiles, and secure portals, remaining stationary throughout their operational lifecycle. They are specifically engineered to authorize or deny entry based on cryptographic credential verification. By integrating these edge devices with advanced physical access control panels, a highly secure, automated, and continuously monitored perimeter can be established for comprehensive enterprise security.
HID iCLASS SE R10 Multi-Technology RFID Card Reader 13.56MHz
The HID iCLASS SE R10 Contactless Card Reader is an elite, 13.56 MHz high-frequency edge-computing device that facilitates highly secure, cryptographically encrypted communication. Designed with an ultra-compact footprint and an aesthetically pleasing profile, it seamlessly integrates into any modern architectural environment. The internal electronics are fully potted within a weather-resistant, waterproof enclosure, ensuring flawless operation in harsh outdoor deployments. It delivers a maximum read range of 8.25 cm. The fundamental communication pipeline between the reader and the smart card relies on a mathematically complex, highly secure algorithm utilizing encrypted encoding. Due to this formidable security level, it is physically and digitally impossible to clone the credential's data and present a spoofed card to the reader.
Features
- Functions as a 13.56 MHz high-frequency contactless card reader, utilizing advanced cryptographic keys for heavily encrypted mutual authentication.
- Features a highly decorative and compact exterior. The chassis is fully waterproof (IP-rated), allowing for uncompromising deployment in harsh outdoor environments.
- Delivers a maximum, highly consistent card reading distance of up to 8.25 cm under optimal electromagnetic conditions.
- Outputs data in standard Wiegand or Clock-and-Data formats, guaranteeing universal compatibility with legacy and modern physical access control panels.
- Possesses a highly versatile, multi-technology reading engine capable of demodulating HID iCLASS, ISO 15693 CSN, ISO 14443A (MIFARE) CSN, ISO 14443B CSN, FeliCa IDm, and FIPS 201 credential structures.
- Provides immediate, intuitive feedback to the user via an integrated multi-color LED indicator array and a high-decibel audible buzzer during the reading cycle.
- Designed for highly streamlined, surface-mount installations directly onto walls, door mullions, or mechanical turnstiles.
- Fully interoperable with any card-based access control system globally that accepts industry-standard Wiegand or Clock-and-Data bitstream formatting.
HID Global Access Control Solutions & SDK
Applications
The HID iCLASS SE R10 Multi-Technology RFID Card Reader is extensively deployed in mission-critical operational sectors including corporate identity verification, government facility access, university campuses, factory turnstile integration, outdoor perimeter security, and high-security restricted zone authorization.
Execute your physical security protocols flawlessly with world-class access control readers from HID Global.
| Feature |
Description |
| Protocol |
ISO 14443A, ISO 15693, FeliCa |
| Operating Frequency |
13.56 MHz (High Frequency) |
| Maximum Read Range |
8.25 cm |
| Operating Voltage |
5 - 16 VDC (Linear power supply recommended) |
| Current Draw |
55 – 116 mA @ 12 VDC |
| LED Indicator |
Available (Multi-color) |
| Dimensions |
4.8 cm x 10.3 cm x 2.3 cm |
| Color |
Black |
| Operating Temperature |
-35 °C to +65 °C |
Blog Post: Architecting Personnel Tracking Systems
The Implementation of Personnel Tracking Systems, has transitioned from a luxury to an absolute necessity for modern enterprises. Whether optimizing factory floor efficiency, securing government buildings, or managing hospital staff, tracking systems rely on a combination of sophisticated hardware nodes and complex software backends. These systems are generally categorized into two distinct architectural methodologies: Active Personnel Tracking and Passive Personnel Tracking (which utilizes hardware like the HID R10). Understanding the fundamental technological differences between these two methodologies is critical for system integrators to design a highly effective, cost-efficient security and operational monitoring ecosystem.
Active Personnel Tracking Systems (RTLS):
Active RFID tags differ fundamentally from standard access cards because they contain an internal power source (a battery). This internal battery continuously provides the microchip with the required energy to broadcast an RF signal over vast distances, entirely independent of a reader's electromagnetic field. Active tracking systems possess a massively extended read range compared to passive RFID tags. By equipping personnel with an active wristband, an active ID badge, or an active tag, security administrators can execute highly fluid, continuous tracking.
By strategically deploying Active RFID Gateways or beacon readers throughout a facility, management can monitor exactly which floor, which zone, and which specific room a staff member occupies in real-time, along with their precise dwell time. Furthermore, advanced active tags can be integrated with telemetry sensors—such as temperature gauges, pulse monitors, or accelerometer (fall-detection) sensors—allowing for the meticulous monitoring of employee health and safety in hazardous industrial environments. However, it is vital to note that due to the complex infrastructure, continuous network load, and battery-powered tags, active systems carry a significantly higher deployment and maintenance cost than passive alternatives.
Passive Personnel Tracking Systems:
Alternatively, Passive Personnel Tracking utilizes unpowered credentials—such as UHF, HF (like the 13.56 MHz cards read by the HID R10), or LF tags and wristbands. Because these tags lack an internal battery, they rely entirely on the electromagnetic field generated by the reader to power up and transmit their data. This methodology allows personnel tracking to be executed much more cost-effectively.
Instead of tracking an individual's continuous movement in real-time through a hallway, passive systems act as strategic "chokepoints." By mounting highly secure readers at every door, turnstile, or elevator bank, administrators can track precisely how many times, and at what exact timestamp, an employee entered a specific room. More importantly, passive systems inherently provide authorization control; the system actively grants or denies access to restricted zones based on the clearance level of the personnel. Rather than real-time continuous location tracking, you generate a flawless, immutable digital ledger of their zone transitions. Compared to active systems, passive architectures are exponentially more budget-friendly and require zero battery maintenance for the credentials.
Hardware Integration and Operational Advantages:
Modern enterprises utilize a diverse array of edge devices to construct these tracking networks. Personnel tracking systems have become practically mandatory for corporations, and are widely deployed across factories, public institutions, private enterprises, open-area campuses, and retail stores. The market offers various sophisticated variations, including biometric fingerprint personnel tracking systems, facial recognition terminals, multi-technology card access systems, and hybrid multi-factor authentication systems. The integration of high-tier readers ensures that unauthorized access attempts are mathematically rejected at the edge.
The operational advantages of deploying a structured Personnel Tracking System are immense. Administratively, the system seamlessly monitors late arrivals and early departures, feeding this precise data directly into payroll software. This not only saves immense administrative time but heavily increases overall workforce efficiency. The system flawlessly tracks employees who remain for overtime shifts, ensuring that salary calculations and overtime compensation are executed rapidly and with zero mathematical error.
Furthermore, administrators can create heavily segmented authorization profiles, ensuring that specific personnel can only enter designated areas. This allows for clear delineations of responsibilities and strict enforcement of job descriptions, guaranteeing that only authorized engineers can enter manufacturing zones, or only executives can access financial archives.
Note: It is not suitable for direct use by end-users who do not possess detailed technical knowledge and hardware integration expertise.