NOTE: bladeRF 2.0 micro xA5 is out of stock. bladeRF 2.0 micro xA4 should be available in stock in 2 to 3 weeks around April 15th, 2022.
bladeRF micro xA5 was introduced as a temporary replacement for the bladeRF 2.0 micro xA4. Now that the bladeRF 2.0 micro xA4 is coming back in stock, there are currently no plans to manufacture more bladeRF 2.0 micro xA5.
- bladeRF xA5 (77KLE Cyclone V FPGA)
- USB 3.0 SS cable
- Product Datasheet
- Getting Started guide on bladeRF wiki
- EU Declaration
- bladeRF 2.0 micro Brief
- Mechanical DXF File
- Software Support and Additional Resources
The bladeRF 2.0 micro xA5 is the next generation Software Defined Radio (SDR) offering a frequency range of 47MHz to 6GHz, 61.44MHz sampling rate, and 2×2 MIMO streaming. Packed into a small form factor, the bladeRF 2.0 micro was designed for high performance as well as mobile applications. Through libbladeRF the bladeRF 2.0 micro is compatible with GNURadio, GQRX, SDR-Radio, SDR#, gr-fosphor, SoapySDR, and more on Windows, Linux and macOS.
The RF shield cap protects sensitive RF components from Electromagnetic Interference (EMI) and provides additional thermal dissipation, allowing the bladeRF 2.0 micro to operate in challenging environments.
All of the RF SMA ports are capable of providing power over bias-tee circuitry to wideband amplifiers and pre-amps. Power to bias-tee peripherals is fully software controllable, providing maximal operational flexibility. Currently, the official bias-tee peripherals include the BT-100, a wideband power amplifier for TX, and the BT-200, a wideband low noise amplifier for RX.
At the core of the bladeRF 2.0 micro is the latest generation Cyclone V FPGA from Intel (formerly Altera). The xA5 features a 77KLE FPGA of which about 60KLE are available and user programmable. Optionally, to accelerate modems in HDL and for additional FPGA space, consider the bladeRF xA9, which features the largest-in-class FPGA of any single SDR with 301KLE of which about 292KLE are available and user programmable.
An advanced clocking architecture allows the bladeRF 2.0 micro to receive and provide its 38.4MHz fundamental clock from and to other devices. Additionally, an on-board PLL allows the bladeRF 2.0 micro to tame its VCTCXO to a 10MHz reference signal. The xA5 features a highly accurate and stable oscillator. The on-board DAC sets the frequency trim of the oscillator to a factory calibrated value.
The Power Distribution Network (PDN) of the bladeRF 2.0 micro features an intricate combination of low noise and high efficiency switch mode and linear power regulators. While the bladeRF 2.0 micro can be run solely from USB bus power, an external power source can be supplied to ensure maximal linear performance of bias-tee peripherals. The PDN features an auto selection and hold-over circuitry to optimize power draw between USB bus and external DC power.
The bladeRF 2.0 micro can run in headless without needing to be connected to a PC or SBC. The on-board flash is large enough to hold any size FPGA image for the xA5.
High speed, low latency and increased power delivery over a single cable: USB 3.0 Superspeed is the perfect interface for a wide bandwidth radio front end to modern computers. The Cypress FX3 microcontroller is the ideal solution with a powerful ARM9 processor and enough bandwidth to saturate the full duplex 5Gbps USB 3.0 link.
An Altera Cyclone V FPGA provides the interface between the FX3 and RF transceiver. This FPGA has single-cycle access embedded memory, hard 18×18 multipliers for dedicated DSP and many general logic elements ready to be programmed.
The Analog Devices AD9361 is a fully integrated, high performance RF transceiver. Made for next generation wireless protocols, this transceiver is capable of handling anything from simple FM audio to the latest 5G LTE standard to whatever the future may hold.
The bladeRF’s design has been tested and verify to meet our very high standards. Every device is capable of effortlessly and faithfully transceiving even the highest order modulations. At peak RF performance, the bladeRF can occupy 2×2 56MHz of bandwidth over its operating frequency range without significant distortions and EVMs around 1%.