5G is the current major challenge for researchers working on the future of wireless systems. We’ve written many articles on the subject, such as the recently announced NTT Docomos’s trial experiments, the required business model innovations, and European movements, with 5G-Infrastructure-PPP as a prominent example. There’s a lot more useful information in our blog, including a massive MIMO tutorial that tackles the subject from theoretical angle. We’ve also put a lot of attention to describing the technical challenges facing massive MIMO.
In this post, I’d like to map out the potential key technology enablers considered for 5G and where Nutaq can assist you.
|Massive MIMO||Titan MIMO- Massive MIMO Testbed||Scalable system, with up to 100×100 MIMO
Over-the-air, real-time processing
Massive MIMO reference design (on roadmap*)
|mmWave||Titan MIMO-X Massive MIMO Testbed
|Supports RF up to 20 GHz with 100 MHz bandwidth
30 to 90 GHz roadmap, with above 100 MHz bandwidth
Unique baseband units capable of handling such large amounts of data in real-time
|Cognitive radio||PicoSDR||Radios that can reconfigure themselves in real time (software-defined radios, or SDR).
Radios that are aware of their wireless environment and can respond to it intelligently (cognitive radios).
Used in one of the largest open cognitive radio lab on the planet: CorteXlab
|New modulation schemes and new waveforms||PicoSDR||Mixed PC/FPGA architecture for implementing the most demanding and real-time part of your algorithms in the FPGA-PHY layer
Enables PC (GNU Radio or C code) handle the less demanding operations MAC layer and above.
|Device-to-Device communication||ZeptoSDR||Built for low-power, portable, advanced wireless protocols on production-ready components
High quality radio provides the performance needed for 3GPP prototyping
No VHDL coding skills required to use FPGAs
Having powerful hardware is not enough. Nutaq’s focus is to make the FPGAs easy to use, regardless of whether you have VHDL coding skills or not. Figure 1 shows our software offering based on the PicoSDR example, but the general idea remains. The Board Support Development Kit (BSDK) is used when you program the FPGA in VHDL with Xilinx ISE/Platform Studio (XPS). The Model-Based Design Kit (MBDK) is when you program the FPGA from a Simulink flow graph with the Xilinx System Generator tools.
Figure 1: A software tool suite that contains all of the necessary IP cores, I/O interfaces, and stand-alone APIs needed to enable the immediate development of applications on the hardware
All of these solutions are designed to accelerate your 5G research. They let you focus on the most important of your work: algorithm exploration and innovation. Stop wasting your time putting together different pieces of vendor equipment, drivers, IP cores, etc. Above all, Nutaq understands the value behind researcher-friendly tools for rapid prototyping, even without the necessity of writing HDL code. Contact Nutaq today to discuss how we can save you time, money and bring your innovative ideas into reality.