BittWare FPGA Boards

The Storage Networking Industry Association (SNIA) defines computation storage as “Architectures that provide Computational Storage Services coupled to storage offloading host processing and/or reducing data movement”, with two foundational constructs, Computational Storage Devices (CSx) and Computational Storage Services (CSS).

The IA-420F is built on BittWare ’s enterprise-class foundation stones: existing products and processes that are already proven through extensive validation. When it’s time to ramp to production, this means a faster turnaround and utilizing the same hardware you have been using for development. 

The IA-840F is built on BittWare ’s enterprise-class foundation stones: existing products and processes that are already proven through extensive validation. When it’s time to ramp to production, this means a faster turnaround and utilizing the same hardware you have been using for development.

The Bittware IA-860m is built on BittWare’s enterprise-class foundation stones: existing products and processes that are already proven through extensive validation. When it’s time to ramp to production, this means a faster turnaround and utilizing the same hardware you have been using for development.

The Bittware IA-780i is a compact 400G FPGA Accelerator Card. The Intel Agilex 7 I-Series FPGAs are optimized for applications that are bandwidth intensive and require high performance processor interfaces. 

The Bittware IA-440i and IA-640i are compact 400G FPGA Accelerator Cards. The Intel Agilex 7 I-Series FPGAs are optimized for applications that are bandwidth intensive and require high performance processor interfaces. 

The Bittware IA-865m is built on BittWare’s enterprise-class foundation stones: existing products and processes that are already proven through extensive validation. When it’s time to ramp to production, this means a faster turnaround and utilizing the same hardware you have been using for development.

The Bittware PCIe 5.0 NIC Card has an Intel Agilex® 7 FPGA and LMS ÜberNIC with CXL. This fully hardware-accelerated network stack finds first use in data centers for the financial services industry (FSI) and others. This is the first FPGA-powered CXL NIC.

The BittWare 520C is a PCIe accelerating OpenCL-programmable FPGA board built using the Intel Stratix 10 with F1760 NF43 package and a PCIe Gen3 x16 host interface. With fast, independent optical I/O, establish dense, directly coupled FPGA clusters.

The BittWare 520N is a PCIe accelerating OpenCL-programmable board built using the Intel Stratix 10 F1760 NF43 FPGA with four 100G QSFP Ethernet ports and a PCIe Gen3 x16 host interface. With fast, independent optical I/O, establish dense, directly coupled FPGA clusters.

The BittWare 520N-MX accelerator board built with an Intel Stratix 10 MX FPGA is well suited to 100G line rate network packet processing and compute-intensive data center applications that demand high memory bandwidths.

The Bittware 520R-MX FPGA PCIe Accelerator Board is optimized for sensor processing applications with massive real-time data ingest requirements. The FPGA is a Stratix 10 MX2100 with integrated HBM2 memory and 48 optical links for 480 Gbps Optical Input high-speed input to the FPGA, and OCuLink connectors allow for expansion.

The Bittware 520NX PCIe FPGA Accelerator Card has 8GB HBM2 and a Stratix 10 NX2100 FPGA which is AI-optimized for high-bandwidth, low-latency artificial intelligence. This revolutionary accelerator delivers a unique combination of capabilities needed to implement low latency and larger AI models.

The BittWare 385-SoC is an ARM-based System-on-Chip FPGA accelerator board built on the Intel Arria 10 SX F34. It features dual QSFP ports, two banks of 4G DDR4 SDRAM external memory, and 8-Lane PCI-Express Gen 3 in a NIC form factor.

The BittWare 510T Compute Acceleration Card is an FPGA co-processor that delivers maximum performance-per-watt for intensive compute applications such as the datacenter. In a GPU format, and with a 16-lane PCIe Gen 3 card, it is powered by dual Intel Arria 10 floating point FPGAs. 

BittWare’s A10PL4 is a low-profile PCIe x8 card based on the Intel Arria 10 GX FPGA. The Arria 10 features high density and a power-efficient FPGA fabric. Included are high-speed transceivers, hard floating-point DSP blocks, and embedded PCIe x8 Gen3.

The BittWare A10SA4 PCIe accelerator board built with a Intel Arria 10 GX 1150 FPGA is well suited to large FPGA loads in the data center. The A10SA4 supports the Open Computing Language (OpenCL™) programming model, which enables a high-level software-like development flow, which greatly simplifies FPGA development. 

The BittWare 385A is a low profile 1.5 Teraflops FPGA accelerator board built on the Intel Arria 10 1150 GX. It features dual QSFP ports, 8GB DDR4 SDRAM external memory, and 8-Lane PCI-Express Gen 3.

BittWare’s 385A-SFP is an Intel Arria 10 based FPGA network accelerator card for 8 lane, single width, PCI Express Gen 3, with six SFP+ ports, rated at 10 Gbps.

With flexibility to serve applications like 5G, RADAR, test and measurement and satellite communications, BittWare’s RFX-8440 and RFX-8441 cards feature the latest third-generation Xilinx RFSoC UltraScale+ Zynq XCZU43 in an E1156 package, a powerful single-chip adaptable radio platform providing up to 6 GHz of direct RF sampling.

BittWare 250-SoC system-on-a-chip exploits the NVMe-over-Fabric (NVMEoF) technology of the Xilinx Zynq UltraScale+ MPSoC FPGA. It also has 64-bit ARM processors.

The BittWare 250-U2 is a proxy in-line accelerator (PIA) in the U2 form factor. FPGAs enable accelerated computing, network, and database access.

The BittWare 250S+ is powered by a Xilinx KU15P Ultrascale FPGA (FFVA1156 in default configuration speed grade 2). It is a fully programmable, flash SSD, near-storage, localized FPGA accelerator with up to 4 M.2 NVMe SSDs or M.2 to U.2 SSD Cables and DDR4 or MRAM.

The BittWare XUPP3R PCIe accelerator board built with a Xilinx UltraScale+  FPGA is designed for high-performance, high-bandwidth, and reduced latency applications demanding massive data flow and packet processing. 

The BittWare XUPPL4 PCIe accelerator board built with a Xilinx UltraScale+  FPGA is designed for high-performance, high-bandwidth, and reduced latency applications demanding massive data flow and packet processing.

The BittWare XUPVV4 PCIe accelerator board built with a Xilinx UltraScale+  FPGA is designed for high-density datacenter applications. The UltraScale+ VU13P offers up to 3.8 million logic elements.

The BittWare XUPVV8 PCIe accelerator board built with a Xilinx UltraScale+ VU13P FPGA is well suited to high density applications. The UltraScale+ VU13P offers up to 3.8 million logic elements. This power density makes thermal management difficult, but Bittware solves this problem  with the Viper platform.

The BittWare XUPVVH PCIe accelerator board built with a Xilinx UltraScale+ VU35P/37P FPGA is well suited to high density data center applications that demand high memory bandwidths.

The BittWare XUPVVP PCIe accelerator board built with a Xilinx UltraScale+ FPGA is designed for ultra high power applications. The UltraScale+ VU13P offers up to 3.8 million logic elements.

Not just more gates, but better data highways, more programmable elements, and 8x GDDR6 memories delivering 4Tbps of aggregate bandwidth for the most demanding compute-intensive applications up to 41K INT8 MACs and 134 INT4 TOPS with multiple floating-point and integer numerical formats.

The Bittware AX-840p embodies AMD Xilinx Versal ACAPs FPGAs, which integrate networked, power-optimized cores on an adaptable platform for the most challenging compute and networking applications. 7nm Architecture: Versal Premium architecture combines high bandwidth and compute density on an adaptable platform.

Bittware IA-440p features AMD Xilinx Versal ACAPs that integrate networked, power-optimized cores on an adaptable platform for the most challenging compute and networking applications. The 7nm Versal Premium Architecture combines high bandwidth and compute density on an adaptable platform.