Electronic System Level Design

System Level Design Approach

ASIC and System-on-Chip design are extremely challenging in the present electronics products marketplace. Companies that can convey the Electronic System Level Design with the best features, advanced costs, size, and power utilization have a distinct competitive advantage. We give customers the power and strategies that empower fast design done right the first time. Semiconductor technology is the fuel that powers electronic product development. As new and smaller semiconductor technology hubs come online, companies that can take advantage of them the soonest win. As chips become larger and more complex, companies battle with the capacity to keep up a large enough design team with the right industry and design experience. Faststream Technologies is always best for customer satisfaction in Electronic System Level Design and Methodology.

Possibility Studies

The choices taken at a possibility consider arrange are key deciding elements impacting the final item cost, gate count, power consumption, programmability, and interfaces. A detailed study with all-around contemplated decisions is fundamental to catching the functionality and connectivity of a design. For example, the decision of USB or Ethernet network has ramifications for elements as different as the processor subsystem and power supply.

Innovation Demonstrators

In a few examples, the innovation is still immature and a demonstration system is required to reduce risk, permit algorithm trials on real information or just to help additional design decisions. It may also be that financing relies upon a working model to reduce investment chance without focusing on a full improvement program.

DSP Algorithms

There can be cases where diverse filter architectures display lower cost, inactivity, or higher execution while as yet meeting the first prerequisites. This knowledge and optimization is not limited to basic filter but reaches out to all areas of digital signal processing. Choosing the DSP algorithm to fit the application is still an area requiring specialist knowledge. The ability to research and apply a novel DSP arrangement can give key resource minimization on-chip, for example, memory or multipliers. There are various tools, for example, MATLAB, and SystemC that can be utilized to map floating-point DSP into a fixed point for hardware implementation.

SoC Architecture

New digital designs invariably are a blend of software, hardware, and peripherals. With regards to software the designer has a wide choice of processor cores, some of which are technology-specific, some hard, others soft, and some offer distinctive levels of reconfigurability to enhance the necessities fit. The processor and its subsystem must be chosen to meet the prerequisites of cost, area, and power while having the computing power to perform its duties. There are numerous complex trade-offs of on-chip, cache, and off-chip memory that impact the productivity of the processor.

Our entire offering incorporates:

Concept & Feasibility studies
System specifications
Cost estimation and evaluation
Architecture and interface definition
IP selection, including Third Party IP
Implementation in VHDL or Verilog
Top-Level and Functional Verification
Synthesis
FPGA mapping and validation
Place and Route
Layout
GDSII qualification
Foundry or FPGA selection
Chip delivery and logistics

System-Level Design Advantage:

Proposed Altera affirmed design center
In-house IP Core improvement, board design, product assembly, and software design for the complete concept to product solutions
Expertise in hardware & software work partitioning for optimum performance and cost
Involvement in low, medium, and high complexity designs
Well established and proven design methodologies & review processes
In-depth project management skills for cost reductions and timely delivery
Long-term support contract for product maintenance and enhancements

What can our electronic design experts assist you with?

We can take your design from concept to specification writing and after that on to high-level FPGA/ASIC, development and integration, and additionally confirmation and documentation. Our electronic design engineers meet the most stringent prerequisites for FPGA advancement utilizing systematic ASIC design methodologies for both project and team management. Much of the time, a senior engineer will architect the design, write the specifications for the FPGA implementation, and manage the overall project. In parallel, an FPGA/ASIC verification specialist will design a test bench to confirm the system to be executed. Once the architecture of the system and verification environment are documented, both RTL and testbench development are then performed using additional resources.

In general, this means that a minimum of three or more designers work together on each FPGA improvement or ASIC design project that we deliver. The organized design approach utilized at Faststream ensures that there is a high probability of eliminating design errors, thus ensuring a high level of quality and efficiency resulting ultimately in a faster time-to-market for your product. Communication between our team members and our client is transparent at all times throughout the design process. We plan to work cooperatively with our clients and operate as a natural extension to your in-house design engineering department.

Key Offerings

ASIC Design

•Micro-architecture design
•RTL design
•Functional verification
•SoC integration
•IP Development

FPGA Design & Development

•Feasibility Study
•FPGA Device Selection
•Architecture Definition
•RTL Coding & Lint
•ASIC prototyping
•Board Validation
•Synthesis and Optimization
•Floor-planning & Timing Closure

Software Design

•Software architecture
•Platform design
•Application software
•With or without OS
•Hard real-time systems
•One-wire technology for security applications
•Ultra-low-power processors
•Embedded software for CPUs in FPGAs
•ASIC and FPGA HW driver software