Do you own a computer? Do you feel a sense of uncertainty about whether it is worth investing in the new technology? All these uncertainties can be solved when you know that QuickLogic pASIC 3 Family is the best computer available in the market. This blog will discuss some of its features and how they can benefit your workflow.
QuickLogic pASIC 3 Family is a fantastic computer built on innovative technology that makes your work easy. It comes with a 4th gen Intel Broadwell i7 Processor, turbo up to 3.1GHz, 8GB DDR3L RAM, and 256GB SSD storage. In addition, its software is entirely new and can be read easily according to the user’s needs.
The very first thing we notice about this computer is its performance. Its speed is really fast. Even though it has 8GB RAM, it can process many things at once. In addition, you won’t have a problem moving around your applications because of its 256GB SSD storage. The system will load applications faster than you think, and with just a single click on your mouse, you will be able to use them easily.
Evolution of FPGA technology
FPGA was a new concept in the field of computers. It is a software-configurable silicon device that can perform various functions. Moreover, it is flexible enough for one circuit to perform many different tasks as needed.
It wasn’t as strong as what we have today in its early days, but with improvements in technology, we were able to advance in the field and make more functional solutions that help us work better. One example is QuickLogic pASIC 3 Family, which has taken the FPGA technology to another level using Field Programmable Gate Arrays (FPGAs). These devices are used to speed up computation and can become high-performing processors.
The same technology is helpful in other systems, such as the Xilinx Zynq-7000 All Programmable SoC (AP SoC), which has an FPGA and a processor core on the same device. We can program the FPGA at will without soldering new logic gates or rewiring any interconnects. This feature makes it a lot more efficient than its predecessors.
High demand for FPGAs in new applications
FPGAs are helpful in diverse applications, including communications like routers, military uses, and gaming consoles. They are also beneficial in different fields such as signal processing, computer vision, and embedded control system applications.
In the field of data centers, they help control the power and cooling of servers. However, many other applications use FPGAs. For example, these devices are helpful in servers, multimedia, telecommunications, and industrial control systems.
FPGAs have brought new demands for their performance, RayMing PCB and Assembly is investing their research and development. The technology is now readily available for everyone to afford with new hardware or a monthly subscription plan from Data Plane Development Incorporated (DPDI).
How does it work?
It acts as an instrument with an oscillating frequency that you can control using software or hardware. This will do to send frequency signals to the FPGA’s pins, and it will control which signal gets in. These FPGA pins can connect to different parts of our system by using software, or you could use a computing device.
The first thing you need to know about the QuickLogic pASIC 3 Family is how to use it. You may want to get into the process of designing your computer, but there are many benefits in getting someone to design one for you. The hardware and software are updated regularly to work with many different applications.
We will be providing you with a step-by-step process on how you can design your computer. So if you don’t want to take the time to do this, we can help you design it for a low monthly fee. It is one of the best ways to save your money upfront, and in the long run, it will save you a lot of hassle. We will explain all these things in more detail when we get into the next section.
A custom-designed computer should come with all the specifications needed to complete its tasks efficiently. You need to choose between the different performance levels it can afford to offer. It also often comes with a touch screen, making it easier for you to use.
QuickLogic pASIC 3 History
This Family is one of his many inventions and the first to get introduced to the public. He created this computer on FPGA technology and new architecture that makes it scalable and resilient.
The first version of QuickLogic pASIC 3 came out in 2014 with some great features such as high-speed performance, easy access to new features, and easy upgrades to future applications. This led to it being one of the fastest computers of its kind.
In September 2016, a new version of QuickLogic pASIC 3 was released, which could utilize FPGAs in hardware. This made it one of the best choices for those who want a lot of versatility and better performance.
In March 2018, we saw a new QuickLogic pASIC 3 with some very strong improvements. It improved all its hardware and software capabilities and was even able to go beyond expectations by making it ten times faster than what it used to be before.
How does it work?
The main components installed on this system are CPU, GPU, RAM, and hard drives. These are all needed to complete the tasks required from your computer in everyday use.
We have seen that QuickLogic pASIC 3 is an ideal solution for many purposes, but networking, web development, and computer security appliances are the most popular ones. In addition, it’s a very powerful system that can help create new platforms and hardware.
The hardware of this system is also flexible enough to be used in different applications. Therefore, you do not need to worry about compatibility issues. It can serve many purposes, and it can even be helpful in several ways to increase its overall performance.
Some people use it as they would with any computer, while others leverage its security capabilities. The system can also be helpful to increase the overall performance of any computer.
QuickLogic pASIC 3 Features
300 MHz Counter speeds:
The high-performance device will give you access to much processing power and speed. You can now expect that your system will run applications at the same speed that you do.
The performance of this system will also depend on how many cores are present in it. QuickLogic pASIC 3 can support the number of cores is approximately 32, with a maximum speed of 300 MHz and a latency of 1.25ns.
The clock rate is always affected by the number of cores in your system, but this device can go as high as 300 MHz, which makes it one of the best devices of its kind.
400 MHz Data path speeds:
The QuickLogic pASIC 3 Data Path is responsible for handling all the data to be processed, so this feature is of utmost importance.
Under six ns input + logic cell + output total delays:
The response time for these operations is quick, and it only takes about six nanoseconds. You will be able to run the most intensive applications and a lot of available processing power.
6 global clock/control networks:
The QuickLogic pASIC 3 has a maximum of six global clock/control networks. This will help the system run very efficiently because the number of tasks you can handle can increase instantly.
Two array clock/control networks:
The QuickLogic pASIC 3 has two array clock/control networks, which means it can keep running very efficiently. It will be able to manage the data from the back end.
8 high-drive input/distributed network pins:
The QuickLogic pASIC 3 has up to eight high-drive input/distributed network pins. This will help the system run parallel tasks very efficiently, and you can expect that the system will be able to keep running at a high rate of speed.
308 bidirectional I/O pins:
The input/output pins are up to 308. This will help the system have a lot of operations running simultaneously without slowing down much.
You will be able to control the input and output of each pin individually. This is an excellent feature to have when handling applications that require a lot of processing power. In addition, it can help the system to run parallel tasks very effectively.
The PCI buses will give you a lot of flexibility, and you will be able to use the device at any level of speed. This is an excellent feature because you can use it in all applications.
The QuickLogic pASIC 3 interfaces with both 5.0 V and 3.3 V devices. You can now expect that the system will support several great applications.
Comprehensive design tools:
The design tools can be as user-friendly as possible, so using them should not be too much hassle.
Variable-grain logic cells:
On the QuickLogic pASIC 3, you will be able to use variable grain logic cells. This means that we have a lot of choices when it comes to performance and speed. However, you can switch them based on your requirements, and this feature is also beneficial when creating networks or distributing them.
Complete pin-out stability and 100% routable:
The QuickLogic pASIC 3 is a very user-friendly device. You will be able to use it to create applications you need without having any problems.
0.35 µm four-layer metal non-volatile CMOS:
This is an excellent feature because you will be able to use the QuickLogic pASIC 3 even in small and compact devices.
Sixty thousand usable PLD gates:
You will also have up to 60,000 usable PLD gates. This will give you a lot of processing power, which is something that all kinds of users will appreciate. You can now create your applications without having any problems.
AC characteristics: logic 1=: 2.0 V to VCC; logic 0=: 0.8 V to VCC
DC characteristics: Non-volatile; VCC=: 3.0 V to 5.0 V; VSS=: 0.0 V to 0.8 V
Power Supply: 3.3V, ± 0.3V
Power Consumption: active: < 60 mW; standby: < 40 mW
To calculate delay, the clock system is assumed to be running at 50% of the data rate. So, if data is generated every 20 ns, this is the time it takes to generate a single word: 25 ns. So then k=0.5/20 ns=1.6 nS
The following table gives the minimum and maximum delay time for each logic direction for each type of pin and address:
Pin Min delay Max delay Input 1 1.3 2 Input 2 2 5 Input 3 3 6 Output 1 0.8 1 Output 2 0.8 1 Output 3 0.8 1 ROTDI input/output 0.8 0.8
Min delay is the minimum time required for a rising edge to propagate from pin to output for a given address. It takes the same time for a falling edge to propagate from the output back to the pin. The maximum delay represents the worst-case propagation time from the output pin to the input pin.
Max delay (min delay) is 393 ns (300 MHz) * 25 ns/word * 1 word = 9 ms. Thus, multiple words (a frame) will complete in 9 ms if there are two physical clock phases, which reduces further as each phase has half the data rate of an individual phase. This means that k is [0.5/N] where N=2. Thus, the maximum max delay would be k/N rather than k.
The maximum JTAG speed depends on the output clock’s data rate and the number of word transfers that we can do in 125 ns. Thus, to calculate max JTAG I/O speed, we know that 125ns equals [0.5/N] where N=4. The minimum k for a good value for N is [1/k]. An 8-bit I/O cell can achieve this maximum speed if we meet the following conditions:
τ = 125 ns (under normal operation)
Note: To meet this condition, all four input pins need to accept the same word at a time.
ASICs and Microprocessors pose many design challenges. However, they are very similar in a way since they both contain “Logic Gates.” Therefore, the process that needs following in ASIC design is similar to designing an IC. Therefore, many consideration needs consideration when creating these logic designs.
Step 1: Preliminary Design Work for ASIC Designs
Designers begin with a low level of abstraction and create the schematic, layout, part, and package descriptions for pre-layout tasks. After finishing this, the designer can then move on to the next step by creating a logical view of control signals and interconnections. This is called block transfer design.
Step 2: Logical View Creation
We create the logical view after finishing the block level design. The main components of this stage include the following:
- Designers have a general idea of how the circuits are connected and what signals are present. This is most likely not at a level that can be simulated but has enough information to generate masks for photomasks
- This will cover all the design components such as I/O pins, memory blocks, clock distribution network, etc. It will also include any extra circuitry or modules needed for special purposes or features
- Simulators analyze the design and check for timing errors, functionality, or any potential errors
- The next step is to make necessary changes to the circuit to correct any errors found
- Once all errors are corrected, the layout can begin.
Step 3: Physical Layout Creation
Physical layout creation is a process of building up the physical layers of a chip using cells for each block and macrocells for each large functional block in the circuit design, such as memory blocks and bus controllers. Each cell consists of hard macros of gates that represent subcircuits or blocks in their entirety and soft macros which represent small portions of circuits like logic gates or registers.
Step 4: Layout for Placement Creation
After laying out the design, it is time to consider where we place each pin of the IC. A process known as placement creates a uniform layout across the chip. This means that ICs with different functionality will result in different layouts due to available resources. However, they are still in the same way on the chip.
Step 5: Floorplanning and Routing
After placement is complete, floorplanning begins. This involves arranging I/O pins to meet specific pin budgets or other design specifications, such as the maximum distance between pins. This is also the time to consider how routing resources will be helpful. This involves two main steps. First, all cells with an I/O port need to be assigned a specific routing net group. Second, create a list of connections between these ports and other pins in the layout (which may require intermediate routing stages).
Step 6: Design Rule Checking and Finalization
This step determines whether the design meets the design rule specifications. It also ensures that everything is finished and completed so that masks can be created for each photomask layer and sent off for creation. During this step, we gather timing reports to see if we meet the timing requirements.
Step 7: Mask Creation
Create the necessary mask layers for each photomask. Usually, this includes a top layer, a second layer for metal interconnect and the third layer for diffusion etch. Etching helps create diffusion regions used in the doping process of transistors in ICs. We often call these ‘photoresist’ masks since they require light exposure to create the mask.
Step 8: Wafer Process and IC Testing
After ICs have been made and packaged, they must pass multiple tests. This ensures that they are functional and correct. Again, an outside company or agency does this step.
Step 9: Final Engineering and Tape-Out
The final step in the process of IC design is the creation of a completed IC design file to manufacture more physical chips. This includes ordering masks, creating a netlist, and other necessary files to create more ICs. This is also known as tape-out since ICs become ‘tape’ that we can send to factories.
A major issue with an ASIC is a large amount of time used for fabrication. It may take about four months for a new ASIC to complete due to how long it can take the machines to fabricate an IC. The cost of creating an ASIC is about $500,000 for each chip that arises due to charges for photomasks and wafers. This does not include labor or other research costs associated with designing an IC.
The main advantage of using an ASIC is that it tends to have lower power consumption than a microprocessor. This is because the chip is simpler, which means less energy is helpful. This reduces the costs of making the ICs, thus lowering costs for both hardware and software companies. This can lead to more profitable and cost-effective products for customers.
Although it may take longer for an ASIC design to complete, new chips can be created faster than microprocessors can be updated, thus making them more effective and more usable by hardware manufacturers.
We can also refer to ASICs as Flash-based Microprocessors because they use flash memory. The difference between this type of microprocessor and a normal one is that it is similar to an EEPROM in that we must erase it before re-writing data. This flash memory runs at either 1.8 V or 3.3 V and has an operating frequency of 50 MHz or 100 MHz.
A Schottky diode is necessary when designing ASICs that use flash memory because they are much easier to fabricate than avalanche diodes. Avalanche diodes take ten times longer to manufacture, require more voltage and consume more power.
QuickLogic pASIC3 Family Limitations
ASICs have their own set of limitations. For example, they may not be as flexible as a regular microprocessor and are more expensive to make. ASICs that use flash memory also have problems such as being slower and having smaller storage capacity than others.
As ASICs become more complex, it is becoming harder to review data from all of the different connections on the chip at once while they are still in the process of being designed. This means that designers must reduce the complexity of their design when creating an ASIC. It will be harder to find errors inside the chip if too much goes on in it at once.
There are many ways to design an ASIC. Even though the process is expensive and time-consuming, it is still a quicker and more affordable way to create new chips than using a microprocessor. Designing an ASIC correctly can save a lot of money and become much more efficient than a microprocessor could ever be.
QuickLogic pASIC3 Family devices
The QuickLogic pASIC 3 is a powerful microcomputer that can be helpful for many different purposes. The main components installed on this device are CPU, GPU, RAM, and hard drives. These are all needed to complete the tasks required from your computer in everyday use.
We have seen that QuickLogic pASIC 3 is an ideal solution for many purposes, but networking, web development, and computer security appliances are the most popular ones. In addition, it’s a very powerful system that can be helpful to create new platforms and hardware.
The QuickLogic pASIC three can be helpful in many different applications, and it is very easy to setup. Even the most technologically untrained people will have no problem operating this device, making it a very versatile solution and a very popular one.
The QuickLogic pASIC 3 is a system you can use as an Internet firewall or a media server. It can help create other types of solutions and systems, but the most important thing is that you will use it in many ways to create something new.
It’s an ideal solution for many different people, and the examples that we have mentioned here are just some of the most popular ones.