It wasn’t that bigger deal for Intel because they thought, at the time, it will be 250,000 chips will be sold for 5 years, which isn’t that many. But they were wrong. It was a 100Million computers were sold. And suddenly 8086 from being an emergency back-up was an over-night success and had a very bright future, because it was binary compatible of PC software, and so had great opportunity
Isn’t that an inspiring story?
Hi Vlsi
Your feedback has been continuously pushing us to the edge. And I really want to Thank You for all the support you have been giving over the past. Its due to this push, we are now releasing (especially for VLSI freshers), a package, which you just need to download/run. That would install all opensource EDA tools on your UNIX machine plus run a complete RTL-2-GDS on RISC-V core ‘picorv32’.
All you need to do is go to below github link, and follow simple 5 steps given in the README of below link:
In last 50 years, there are 3 lessons that we can draw. First – software advances can inspire architecture innovations. Second – when we raise the hardware/software interface, it creates opportunities for architecture innovation. Third – in our field, the way we settle these debates, isn’t by just arguing in a bar, rather people spent/invest billions of dollars to investigate their ideas and marketplace settles these debates
This paper introduces TL-V erilog and W ARP-V and then describes the formal verification of WARP-V using riscv-formal, a formal verification framework for RISC-V. Timing-abstraction and transaction-level design are showing significant benefits for hardware modeling, but this is the first demonstration of their benefits for verification modeling. As evidence of these benefits, the verification of all RISC-V configurations of WARP-V is accomplished in a single page of code.
A simple chip frequency divider but most prominently used in counter modules of a microproceesor or as standalone IC can be completely designed from Verilog code to layout . A complete chip with IO pins and labels on it can be designed with help of efabless cloud based eda tool just like a commercial IC. There are two toolbox in efabless one is CloudV for Verilog or c code & other is Open Galaxy for backend design for designing commercial like IC with zero cost involved & same can be given to Semiconductor foundries for mass production. From Preparation , synthesis to DRC cleanup using Q flow manager a Core part of IC can be obtained with log files of each stage used in this process. A innovative feature of interactive DRC under Magic tool enables the designer to rectify DRC violations on the spot. Moreover, ESD protection is also available under Opengalaxy tool for use of chip in electrosensitive applications.
Symposium V – Machine Intelligence in EDA/CAD applications- Let’s investigate a simple Wire Resistance Estimate (WiRE) model
This is common design automation problem which is used for estimating timing and power characteristics for analysis and implementation for many steps in ASIC flow. We will restrict our scope to physical implementation only, where known quantity is “length” of wire and resistance is predicted.
Question – Who doesn’t want a 3.5X improvement in their code size? I guess everyone wants efficient and effective improvement. Now these are just few tips to have the easy implementation of pipe-line. You are free to implement your ideas in TL-verilog, compile, simulate and see the improvements on your own. For few more tips, you might want to check out below course on “VSD – Pipelining RISC-
V with TL-verilog”
Well, that’s was just a demo of the powerful efabless platform. Do you want to know more about this powerful yet simple platform? Do you want to build complete SoC using this platform? We did an entire webinar on this, and here’s the copy of it.
let’s identify what has happened till date in field of EDA/CAD using Machine intelligence. The image below shows the flow diagram for designing a chip. This is what has happened (or happening) in EDA using machine intelligence.
SPI model is a master/slave model. There’s some SPI master which determines who gets to transmit and who gets to receive. The output from SPI master is called MOSI (Master Out Slave In). If you have 2 slaves, slave 1 and slave 2, as shown below, MOSI goes to all the slaves .Then you have another line MISO (Master In Slave Out). All the wires are connected, as shown in below image. Then you have a master only function called SCLK, which goes to all the slaves. Now also, there must be a slave select (SS) for S1 and a slave select for S2.
