DeepCover® secure NFC/RFID transponders (tags) and transceivers (readers) employ a bidirectional security model to enable the most secure contactless communication possible. Our RFID transceiver IC includes a SHA-256 secure authenticator coprocessor based on the FIPS 180-4 standard. When paired with our NFC transponder ICs, the bidirectional security model enforces two-way authentication. Each NFC tag includes a unique 64-bit ROM ID and UID that serves as an electronic serial number within the application. Our secure NFC tags and RFID readers empower new industrial and medical applications, such as slave-device secure authentication, automated device configuration, usage limit setting and sensor-tag implementation.
Also see:
DeepCover embedded security technology
Featured Technical Documents
Introduction to SHA-256 Master/Slave Authentication
Need NFC/RFID? Tomorrow is Today in this Constant State of Innovation
Technical Documentation
Featured Blogs
May 19, 2021
A combination of the ultra- low power Artificial Intelligence (AI) processor and pattern recognition models greatly enhances smart wake up by detecting one or more people in the field of view with minimum power.
March 11, 2021
The annual Assistant Excellence Conference (AEC) provides professional development for Maxim global assistants and is produced by the Maxim assistant community.
March 05, 2021
Learn about two tools to help with power design and inductor selection: Maxim's EE-Sim Design Tool and Würth's REDEXPERT.
February 23, 2021
Greatly reduce power dissipation and shrink form factor with a highly robust integrated digital output solution, the MAX14919.
January 13, 2021
This blog explores an application using a low power SIMO PMIC, the world’s smallest solution size and highest system efficiency, and the story behind it.
December 10, 2020
What does "The Dawn of the Self-aware Machine" really mean? I am sure many are thinking of the human-like robots seen in the movies as a way to further replace people on the factory floor.
October 29, 2020
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October 27, 2020
See how the industry’s first true software-configurable universal analog IO solution provides the flexibility to meet industrial automation challenges.
October 26, 2020
Maxim Integrated’s Jeff DeAngelis explains how the COVID-19 pandemic has highlighted what’s needed for manufacturing lines to adapt to changing demands.
September 17, 2020
See how secure authenticators and coprocessors make it easier for you to integrate cryptography to protect your embedded designs.
September 15, 2020
Full ultra-low power GPS solution using the MAX2769C GNSS L1 receiver, and the MAX32632 ARM Cortex M4 microcontroller
September 10, 2020
Understand the threats that cryptographic systems face and how you can guard against these threats.
September 09, 2020
Learn how easily you can design with the latest Maxim resistance temperature detectors (RTDs) and temperature sensors.
September 03, 2020
Learn how a dual-core Bluetooth Low Energy microcontroller meets the size, power, and security demands of wireless, battery-operated IoT designs.
September 01, 2020
Understand the challenges of protecting the electronic load and the advantages of a high-performance, highly integrated system power protection solution.
August 26, 2020
Learn how Maxim Integrated’s new Essential Analog mobile app makes it fast and easy to research analog ICs, order parts, get product news, and much more.
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Learn why a hardware-based approach to cryptography provides more robust protection of IoT designs than software cryptography.
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NFC/RFID Design and Development
MAX66242EVKIT Tag Evaluation Kit for the MAX66242, Requires NFC Reader
- HF Interface at 13.56MHz
- I2C with Communications with the On-Board Temperature Sensor IC (DS7505)
- User EEPROM Authenticated Memory Page Read/Write Transactions
- User EEPROM Page/Block Read/Write Transactions
- Secure Transaction that Writes “Secret Keys” and Computes Message Authentication Code
- Energy-Harvested VOUT Used to Power an LED On/Off
MAX66300-24XEVKIT Reader and Tag Evaluation Kit for the MAX66300/MAX66240/MAX66242
- A Secure, Contactless RFID Reader (MAX66300)
- 3.3V or 5V AFE Operation
- UART and SPI Interface Support Through the MAXQ610
- Configuration for Lower Power Systems with Direct Antenna Connections
- On-Board 13.56MHz and 24MHz Oscillators
- Symmetric Key-Based Secure Authentication System
- Pushbuttons for Board Reset and MAX66300 Reset
- Port Select Switch Control
- Jumpers for SPI, UART, and Control Signals
- Protected Tag Solution with Peripheral Linking (MAX66242)
- HF Interface at 13.56MHz
- User EEPROM Authenticated Memory Page Read/ Write Transactions
- User EEPROM Page or Block Read/Write Transactions
- Secure Transactions to Write Secret Keys and Compute MACs
- Energy Harvested VOUT Used to Power an LED On/Off
- I2C communication with On-Board Temperature Sensor IC, DS75S
- Also Supports MAX66240 without I2C Interface (Tag Not Included in EV Kit)
- MAX66300-24x EV System Software Available
MAX66240EVKIT Tag Evaluation Kit for the MAX66240, Requires NFC Reader
- HF Interface at 13.56MHz
- User EEPROM Authenticated Memory Page Read/Write Transactions
- User EEPROM Page/Block Read/Write Transactions
- Secure Transaction that Writes “Secret Keys” and Computes Message Authentication Code
MAX66242EVKIT Tag Evaluation Kit for the MAX66242, Requires NFC Reader
- HF Interface at 13.56MHz
- I2C with Communications with the On-Board Temperature Sensor IC (DS7505)
- User EEPROM Authenticated Memory Page Read/Write Transactions
- User EEPROM Page/Block Read/Write Transactions
- Secure Transaction that Writes “Secret Keys” and Computes Message Authentication Code
- Energy-Harvested VOUT Used to Power an LED On/Off
MAX66300-24XEVKIT Reader and Tag Evaluation Kit for the MAX66300/MAX66240/MAX66242
- A Secure, Contactless RFID Reader (MAX66300)
- 3.3V or 5V AFE Operation
- UART and SPI Interface Support Through the MAXQ610
- Configuration for Lower Power Systems with Direct Antenna Connections
- On-Board 13.56MHz and 24MHz Oscillators
- Symmetric Key-Based Secure Authentication System
- Pushbuttons for Board Reset and MAX66300 Reset
- Port Select Switch Control
- Jumpers for SPI, UART, and Control Signals
- Protected Tag Solution with Peripheral Linking (MAX66242)
- HF Interface at 13.56MHz
- User EEPROM Authenticated Memory Page Read/ Write Transactions
- User EEPROM Page or Block Read/Write Transactions
- Secure Transactions to Write Secret Keys and Compute MACs
- Energy Harvested VOUT Used to Power an LED On/Off
- I2C communication with On-Board Temperature Sensor IC, DS75S
- Also Supports MAX66240 without I2C Interface (Tag Not Included in EV Kit)
- MAX66300-24x EV System Software Available
MAX66240EVKIT Tag Evaluation Kit for the MAX66240, Requires NFC Reader
- HF Interface at 13.56MHz
- User EEPROM Authenticated Memory Page Read/Write Transactions
- User EEPROM Page/Block Read/Write Transactions
- Secure Transaction that Writes “Secret Keys” and Computes Message Authentication Code
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