Overview
hellaPHY™ RSTD IP core addresses new FCC E911 indoor location accuracy requirements, and opens the door for low-cost IoT wireless network positioning solutions.
hellaPHY RSTD, is an advanced signal processing algorithm that was developed to improve LTE wireless network indoor and outdoor location accuracy and offers extreme performance in an efficient low-power DSP implementation. The algorithm has been demonstrated to outperform advanced super-resolution algorithms at a fraction of the complexity. It is designed to be a drop-in replacement for existing Reference Signal Time Difference (RSTD) algorithms in User Equipment(UE) chipsets and can be customized for any unique DSP or interface requirements. The hellaPHY RSTD IP core is designed to support advanced LTE features contemplated by operators as well as for LTE Release 14 including PRS muting, CRS plus PRS transmit diversity, and fractional Ts reporting. The hellaPHY RSTD IP core is scalable and can support CAT-M through CAT-15.
hellaPHY RSTD can also support indoor commercial applications and will help operators develop new features to enhance their user experience. The potential for new applications that can rely on a very low-cost and low power positioning using hellaPHY RSTD are enormous. In particular, with the emergence of IoT, where the cost and power of traditional GNSS based positioning solutions become more prohibitive, hellaPHY RSTD offers a low cost and accurate off-the-shelf solution.
Learn more about Channel Coding IP core
This paper covers some practical aspects of designing the LDPC decoder starting from comparison between different techniques, different decoders parameters or standards, the effect of those parameters on the LDPC performance, also it discusses the algorithm selection process, and floating point implementation process.
We describe our SoC implementation of a baseband subsystem for a high performance 4G terminal. Our architecture, called FAUST, is based on distributed synchronization and asynchronous communication. We highlight how we have actually implemented these two
Satellite modems structure Internet access
DisplayPort uses Secondary Data Packets (SDPs), which are transported over the Main-Link that are not main video stream data. This allows it to carry audio and video simultaneously. The VIP supports audio transmission both in the original mode as defined in the specification as well as just as any other SDP being transmitted.
In this paper, a typical research case will be described on how to extend an existing SoC architecture of baseband processor on 3G terminal to the player on network multimedia compressed with MPEG-4, especially on how to build an effectively multi-layer a
