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Compare 369 Building Blocks IP from 51 vendors (1 - 10)
  • Decision tree inference core
    • So_ip_idt core can be used create a decision tree directly in hardware. It can create DTs with univarite, multivariate and non-linear tests.
    • Creating DTs directly in hardware results in the significant increase of DT inference speed, compared with the traditional software-based approach.
    Block Diagram -- Decision tree inference core
  • General-purpose FFT core
    • The FFT is factored into Radix-4 Butterfly operations. When an odd power of two is required, a small radix-2 “follower” stage performs the final iteration. The radix-2 stage does not require a full complex rotator so its cost is minimal.
    • The Radix-4 Engine fetches one complex word of data each clock cycle. Four interleaved data words are collected then applied to the t0-t3 inputs. On successive clock cycles the engine calculates the four frequency domain outputs f0-f3. These are then stored back into the Working Buffer.
    Block Diagram -- General-purpose FFT core
  • Discrete Cosine Transform
    • This core can perform the two dimensional Discrete Cosine Transform (DCT) and its inverse (IDCT) on an 8x8 block of samples.
    • The simple, fully synchronous design allows for fast operation while maintaining a low gate count.
    • It offers high performance and many features to meet your multimedia, digital video and digital printing applications
    Block Diagram -- Discrete Cosine Transform
  • CIC Intel® FPGA IP Core
    • The CIC Intel FPGA IP core implements a Cascaded integrator-comb (CIC) filter with data ports that are compatible with the Avalon® streaming (Avalon-ST) interface
    • CIC filters (also known as Hogenauer filters) are computationally efficient for extracting baseband signals from narrow-band sources using decimation
    • They also construct narrow-band signals from processed baseband signals using interpolation.
    Block Diagram -- CIC Intel® FPGA IP Core
  • NCO Intel® FPGA IP Core
    • A numerically controlled oscillator (NCO) is a digital signal generator, which synthesizes a discrete-time, discrete-valued representation of a sinusoidal waveform
    • You can typically use NCOs in communication systems
    • In such systems, they are used as quadrature carrier generators in I-Q mixers, in which baseband data is modulated onto the orthogonal carriers in one of a variety of ways.
    Block Diagram -- NCO Intel® FPGA IP Core
  • Radar processing IP suite for Advanced Driver Assistance Systems
    • The eSi-ADAS™ is a suite of radar accelerator IP including a complete Radar co-processor engine, they enhance the overall performance and capabilities of radar  systems for automotive, drone and UAV applications that require fast and responsive situational awareness.
    • The IP has been licensed to some of the leading automotive Tier 1 and Tier 2 suppliers and is in production vehicles.
    Block Diagram -- Radar processing IP suite  for Advanced Driver Assistance Systems
  • RGB to ITU-R 601/656 Encoder
    • The DB1892AXI RGB to CCIR 601 / CCIR 656 Encoder interfaces RGB data along with synchronization signals from a LCD Controller (or any LCD display timing & control unit) to a TFT LCD Panel by-way-of a CCIR 601 / CCIR 656 interface.
    Block Diagram -- RGB to ITU-R 601/656 Encoder
  • Power-On Reset - Flexible Threshold (1­-1.3V), Ultra Low Current (100nA) - SilTerra 0.16µm CL160G
    • This macro-cell is an ultra low consumption Power-On Reset (POR) core designed for SilTerra 0.16μm CL160G CMOS technology.
    • The threshold sensing voltage can be configured from 1V to 1.3V (default is 1.15V). A hysteresis of 120mV is added to avoid false reset glitches in noisy supplies.
    Block Diagram -- Power-On Reset - Flexible Threshold (1­-1.3V), Ultra Low Current (100nA) - SilTerra 0.16µm CL160G
  • RAM 8b, 16b, and 32b data widths - TSMC 180nm
    • 8b, 16b, and 32b data widths available.
    • Up to 250MHz clock operation.
    • Read and write data busses may tie for single bus operation.
    • Available production test RTL.
    • VDD 1.6V – 2.0V.
    • Data retention to 0.9V.
    Block Diagram -- RAM 8b, 16b, and 32b data widths - TSMC 180nm
  • XMBus Verification IP
    • Supports XMBus specifications version 0.5.
    • Supports XMBus device types: Master, Slave.
    • Start, repeated start and stop for all possible transfers.
    • Supports 7bit configurable Slave address.
    Block Diagram -- XMBus Verification IP
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