IP Catalog > Wireless IP Cores

Wireless IP Cores

Wireless IP cores are specialized hardware modules designed to provide efficient and reliable wireless communication capabilities for a wide range of applications. These cores enable the integration of wireless standards such as Wi-Fi, Bluetooth, Zigbee, LTE, and 5G into embedded systems and devices, streamlining the development of connected solutions.

Explore our vast directory of Wireless IP cores below.

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Search (321)
Compare 321 Wireless IP Cores from 77 vendors (1 - 10)
  • Ka-Band (24 - 33GHz) Zero-IF Transceiver
    • The ALTUS28TR is a highly integrated, mmWave, agile transceiver offering high performance and configurability for target applications in an advanced SiGe BiCMOS process technology.
    • This silicon intellectual property (SIP) delivers a versatile combination of high performance and low power consumption.
    Block Diagram -- Ka-Band (24 - 33GHz) Zero-IF Transceiver
  • NFC-V tag IP supporting ISO15693-3
    • The 180SMIC_NFCV_01 is a tag IC that works with NFCV technology.
    • When connected to an antenna designed according to the IC parameters, the tag is able to accumulate energy and exchange information with the reader.
    • The IC is compliant with is ISO/IEC 15693-3 standard and NFC Forum NFC-V.
    Block Diagram -- NFC-V tag IP supporting ISO15693-3
  • NFC wireless interface supporting ISO14443 A and B with EEPROM on SMIC 180nm
    • The IP block provides the physical layer implementation of ISO 14443 interface. In particular, it includes the necessary functional devices for receiving data on the connected antenna, for the response load modulation, received and transmitted data (de)framing and parallel interface to external CPU.
    • This IP also can be used for adding NFC functionality to mobile devices and other applications to perform high-level RFID protocol tasks.
    Block Diagram -- NFC wireless interface supporting ISO14443 A and B with EEPROM on SMIC 180nm
  • NFC wireless interface supporting ISO14443 A and B on SMIC 180nm
    • The IP block provides the physical layer implementation of ISO 14443 interface. In particular, it includes the necessary functional devices for receiving data on the connected antenna, for the response load modulation, received and transmitted data (de)framing and parallel interface to external CPU.
    • This IP also can be used for adding NFC functionality to mobile devices and other applications to perform high-level RFID protocol tasks.
    Block Diagram -- NFC wireless interface supporting ISO14443 A and B on SMIC 180nm
  • Multi-constellation and Multi-frequency Correlators Soft GNSS IP for high sensitivity and high accuracy GNSS receivers
    • 64 parallel GNSS signal tracking channels with accurate and precise measurements
    • Massive and wide bandwidth correlators enable fast acquisition and high precision
    • Supports all signals in L1, L2, L5 and S band frequencies from GPS, GALILEO, GLONASS, BeiDou, QZSS, IRNSS, and SBAS constellations
    • Efficient and generic PRN code handling architecture to support future signal structures
    Block Diagram -- Multi-constellation and Multi-frequency Correlators Soft GNSS IP for high sensitivity and high accuracy GNSS receivers
  • UHF RFID tag IP with 3.6kBit EEPROM and -18dBm sensitivity
    • 130GF_RFID_EPCGen2_01 IP is intended for use in passive UHF transponder applications.
    • IP derives its operating power from an RF electromagnetic field generated by a reader, which is received and rectified by the IP.
    • The tag IP sends the answer back to the reader using a backscatter modulation technique.
    Block Diagram -- UHF RFID tag IP with 3.6kBit EEPROM and -18dBm sensitivity
  • UHF RFID tag IP with 512bit EEPROM and -19dBm sensitivity
    • 180SMIC_RFID_EPCGen2_01 IP is intended for use in passive UHF transponder applications.
    • IP derives its operating power from an RF electromagnetic field generated by a reader, which is received and rectified by the IP.
    • The IP tag sends the answer back to the reader using a backscatter modulation technique.
    Block Diagram -- UHF RFID tag IP with 512bit EEPROM and -19dBm sensitivity
  • NTN System Test Bench
    • Allows end-to-end testing of NB-IoT NTN system in lab environment.
    • supports 3GPP® Release 17 and 18 standards.
    • supports LEO transparent or regenerative modes of operation.
    • multiple-instancing and virtualisation to simulate UE community.
    Block Diagram -- NTN System Test Bench
  • NTN eNodeB System Test Bench
    • Allows end-to-end testing of NB-IoT NTN system in lab environment.
    • supports 3GPP® Release 17 and 18 standards.
    • supports LEO transparent or regenerative modes of operation.
    • multiple-instancing and virtualisation to simulate UE community.
    Block Diagram -- NTN eNodeB System Test Bench
  • Bluetooth Dual Mode v5.4 / IEEE 15.4 PHY/RF IP in GF 22nm (Silicon Proven)
    • Bluetooth v5.4 Dual-Mode RF IP for Universal BT Audio Streaming
    • Flexible modem compatible with Bluetooth, 802.15.4-2011, and other modulations
    • Supports 3rd party Link Layer & Protocol Stack SW
    • Low Power Modes of Operation:
    Block Diagram -- Bluetooth Dual Mode v5.4 / IEEE 15.4 PHY/RF IP in GF 22nm (Silicon Proven)
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