The ADSP-21160M DSP is a SHARC processor that is optimized for applications such as telephony, medical imaging, radar/sonar electronics, communications, 3D graphics and imaging. The ADSP-21160M features a Single-Instruction-Multiple-Data (SIMD) architecture.Using two computational units (ALU, Barrel Shifter, MAC, Register files), the ADSP-21160M can have a five fold performance increase versus the ADSP-2106x on a range of DSP algorithms. It is code compatible with ADI's popular first generation ADSP-2106x SHARC DSPs. Like other SHARCs, the ADSP-21160M is a 32-bit processor that is optimized for high performance DSP applications. The ADSP-21160M includes an 80 MHz core for processing both 32-bit fixed-point and (32-bit, 40-bit) floating-point data types, a dual-ported 4 Mbit on-chip SRAM, an integrated I/O processor with multiprocessing support, and multiple internal busses to eliminate I/O bottlenecks.The ADSP-21160M is optimized for multiprocessing topologies; SHARC supports multiprocessing via link ports or an external port. In the diagram below, both cluster and link port multiprocessing is shown. Over the external port up to six 21160Ms may be connected together without any additional support logic. The arbitration for this shared bus is integrated on-chip. Each SHARC in the cluster has access to every SHARC's internal memory. Through the external port connection, optional external memory may be shared as well.The six link ports are another way to gluelessly connect a multiprocessing system. Both, the links and the cluster can be used simultaneously and systems with hundreds of SHARC DSPs can be developed using both peripherals.Maximize Speed, Minimize Size The ADSP-21160M is offered in a 27mm x 27mm 400-ball PBGA (Plastic Ball Grid Array) package 40% smaller than processors in this performance class.More Processing Per WattIn addition to small size and high performance, the 21160M's power dissipation enables new levels of MFLOPS per watt. The ADSP-21160M typical power dissipation is 2 watts, enabling 240 MFLOPS of performance per watt. This allows designers to use multiple processors on a PCI card within the PCI power limit of 25 watts. With eight 21160M DSPs, providing 480 MFLOPS each, a standard PCI card design can obtain 3.84 GFLOPS performance and leave 9 watts for other circuitry.The ADSP-21160M is supported by hundreds of readily available third-party hardware and software products and ADI's powerful VisualDSP++ development system, allowing for fast and easy development, debug and deployment.

The ADL5391 draws on three decades of experience in advanced analog multiplier products. It provides the same general mathematical function that has been field proven to provide an exceptional degree of versatility in function synthesis:VW = α × (VX x VY)/1 V + VZThe most significant advance in the ADL5391 is the use of anew multiplier core architecture, which differs markedly fromthe conventional form that has been in use since 1970. Theconventional structure that employs a current mode, translinearcore is fundamentally asymmetric with respect to the X and Yinputs, leading to relative amplitude and timing misalignmentsthat are problematic at high frequencies. The new multiplier coreeliminates these misalignments by offering symmetric signalpaths for both X and Y inputs. The Z input allows a signal to beadded directly to the output. This can be used to cancel a carrieror to apply a static offset voltage.The fully differential X, Y, and Z input interfaces are operationalover a ±2 V range, and they can be used in single-ended fashion.The user can apply a common mode at these inputs to varyfrom the internally set VPOS/2 down to ground. If these inputsare ac-coupled, their nominal voltage will be VPOS/2. These inputinterfaces each present a differential 500 Ω input impedance up toapproximately 700 MHz, decreasing to 50 Ω at 2 GHz. The gainscaling input, GADJ, can be used for fine adjustment of the gainscaling constant (α) about unity.The differential output can swing ±2 V about the VPOS/2common-mode and can be taken in a single-ended fashion aswell. The output common mode is designed to interface directlyto the inputs of another ADL5391. Light dc loads can be groundreferenced; however, ac-coupling of the outputs is recommendedfor heavy loads.The ENBL pin allows the ADL5391 to be disabled quickly to astandby mode. It operates off supply voltages from 4.5 V to 5.5 Vwhile consuming approximately 130 mA.The ADL5391 is fabricated on Analog Devices, Inc. proprietary,high performance, 65 GHz, SOI complementary, SiGe bipolarIC process. It is available in a 16-lead, RoHS compliant, LFCSPand operates over a −40°C to +85°C temperature range.Evaluation boards are available.Applications Wideband multiplication and summing High frequency analog modulation Adaptive antennas (diversity/phased array) Square-law detectors and true rms detectors Accurate polynomial function synthesis DC capable VGA with very fast control

The Blackfin® Processor family has been expanded to address the need for embedded Controller Area Network (CAN) connectivity. This connectivity is powerful when utilized in conjunction with the high performance 16-/32-bit Blackfin embedded processor core,the flexible cache architecture, the enhanced DMA subsystem, and the Dynamic Power Management (DPM) functionality. System designers can take advantage of the combined control and signal processing capabilities of the processor core across a wide range of end applications.The ADSP-BF534 is a functional extension of the popularADSP-BF531 / ADSP-BF532 / ADSP-BF533 processors and is ideally suited for a variety of CAN networked applications. The ADSP-BF534 offers a high performance series for embedded applications such as automotive safety, automotive body control, automotive driver assistance, automotive entertainment, and industrial factory automation. This processor is ideally suited for a broad range of industrial, instrumentation, and medicalapplications that allow for scalability and CAN network connectivity that utilize a mix of control, plus signal processing in the end product for robust systems

The Blackfin® Processor family has been expanded to address the need for embedded Controller Area Network (CAN) connectivity. This connectivity is powerful when utilized in conjunction with the high performance 16-/32-bit Blackfin embedded processor core,the flexible cache architecture, the enhanced DMA subsystem, and the Dynamic Power Management (DPM) functionality. System designers can take advantage of the combined control and signal processing capabilities of the processor core across a wide range of end applications.The ADSP-BF534 is a functional extension of the popularADSP-BF531 / ADSP-BF532 / ADSP-BF533 processors and is ideally suited for a variety of CAN networked applications. The ADSP-BF534 offers a high performance series for embedded applications such as automotive safety, automotive body control, automotive driver assistance, automotive entertainment, and industrial factory automation. This processor is ideally suited for a broad range of industrial, instrumentation, and medicalapplications that allow for scalability and CAN network connectivity that utilize a mix of control, plus signal processing in the end product for robust systems

The Blackfin® Processor family has been expanded to address the ever-increasing need for pervasive embedded network connectivity. This connectivity is powerful when utilized in conjunction with the high performance 16-/32-bit Blackfin embedded processor core, the flexible cache architecture, the enhanced DMA subsystem, and the Dynamic Power Management (DPM) functionality. System designers can take advantage of the combined control and signal processing capabilities of the processor core across a wide range of end applications through the scalability of the pin and code compatibility of these new family members. The ADSP-BF536 and ADSP-BF537 are a functional extension of the popular ADSP-BF531 / ADSP-BF532 / ADSP-BF533 processors, and they are ideally suited for a variety of networked applications. The ADSP-BF537 is the higher performance series member, with more embedded memory enabling higher throughput needs for embedded applications suchas video security/surveillance and industrial-environment-based distributed control/factory automation applications. The ADSP-BF536 offers exceptional performance and is designed for low cost connected devices such as remote monitoring devices, VoIP, point-of-sale terminals, and biometrics/security applications. Both devices are ideally suited for a broadrange of industrial, instrumentation, medical, and consumer appliance applications— allowing for scalability based upon the required network bandwidth and mix of control, plus signal processing needed in the end product.

Metering Systems on a Chip - SoC Residential Energy Meter IC

Digital Signal Processors & Controllers - DSP, DSC 16-Bit 25MIPS 5V 2 Serial Ports

The DC2274A-B USB dongle demo board which serves as an Access Point Mote, connecting a SmartMesh IP™ wireless sensor network with a VManager network manager. VManager is a software-based manager that enables: Large Networks – thousands of nodes Increased Bandwidth through Multiple Access Points Hot Failover Gateway Redundancy The DC2274A-B SmartMesh IP USB Manager incorporates the LTP5902-IPM SmartMesh IP Module, pre-programmed with SmartMesh IP Access Point Mote software. It provides a USB connection for both power and software access to the Access Point Mote API UART and CLI UART ports.The DC2274A-B is available individually or as part of the DC9021B SmartMesh IP Starter Kit, which includes five wireless mesh nodes. With a SmartMesh IP Starter Kit, a user can setup a wireless mesh network in minutes and quickly evaluate the network performance in their own application environment.

The HMC726 is an AND/NAND/OR/NOR function designed to support data transmission rates of up to 13 Gbps, and clock frequencies as high as 13 GHz. The HMC726 may be easily configured to provide any of the following logic functions: AND, NAND, OR and NOR. All input signals to the HMC726 are terminated with 50 Ohms to ground on-chip, and maybe either AC or DC coupled.The differential outputs of the HMC726 may be either AC or DC coupled. Outputs can be connected directly to a 50 Ohm to ground terminated system, while DC blocking capacitors may be used if the terminating system is 50 Ohms to a non-ground DC voltage. The HMC726 operates from a single -3.3V DC supply, dissipates only 230 mW, and is available in a ceramic RoHS compliant 3?3 mm SMT package.APPLICATIONS RF ATE Applications Broadband Test & Measurement Serial Data Transmission?up to 13 Gbps Digital Logic Systems up to 13 GHz

The HMC728 is a 2:1 Selector designed to support data transmission rates of up to 13 Gbps, and selector port operation of up to 13 GHz. The selector routes one of the two single-ended inputs to the differential output upon assertion of the proper select port. All single-ended input signals to the HMC728 are terminated with 50 ohms to ground on-chip, and may be either AC or DC coupled.The outputs of the HMC728 may be operated either differentially or single-ended. Outputs can be connected directly to a 50 ohm terminated system, while DC blocking capacitors may be used if the terminating system is 50 ohms to a non-ground DC voltage. The HMC728 operates from a single -3.3V DC supply and is available in a ceramic RoHS compliant 3x3 mm SMT package.APPLICATIONS 2:1 Multiplexer up to 13 Gbps F ATE Applications Broadband Test & Measurement Serial Data Transmission up to 13 Gbps Redundant Path Switching Built-in Test