Free Assessment: 182 System on a Chip Things You Should Know

What is involved in System on a Chip

Find out what the related areas are that System on a Chip connects with, associates with, correlates with or affects, and which require thought, deliberation, analysis, review and discussion. This unique checklist stands out in a sense that it is not per-se designed to give answers, but to engage the reader and lay out a System on a Chip thinking-frame.

How far is your company on its System on a Chip journey?

Take this short survey to gauge your organization’s progress toward System on a Chip leadership. Learn your strongest and weakest areas, and what you can do now to create a strategy that delivers results.

To address the criteria in this checklist for your organization, extensive selected resources are provided for sources of further research and information.

Start the Checklist

Below you will find a quick checklist designed to help you think about which System on a Chip related domains to cover and 182 essential critical questions to check off in that domain.

The following domains are covered:

System on a Chip, System on a Chip, Notebook processor, Intel 80286, Clock rate, Cadence Design Systems, Central processing unit, Serial Peripheral Interface Bus, Soft microprocessor, Non-uniform memory access, One instruction set computer, NX bit, Power management, Nios II, ROM image, Reduced instruction set computer, Memory management unit, Instruction set architecture, Branch predictor, CPU multiplier, Scalar processor, Arithmetic logic unit, Front-side bus, Direct Memory Access, Physics processing unit, Dynamic frequency scaling, Execution unit, Symmetric multiprocessing, Memory buffer register, Forte Design Systems, Secure cryptoprocessor, Cognitive computing, Hardware register, Nios embedded processor, Baseband processor, Comparison of instruction set architectures, Superscalar processor, Wetware computer, Processor register, Very long instruction word, Clipper architecture, Semiconductor intellectual property core, Instruction unit, Instruction-level parallelism, DNA computing, Instruction pipelining, SystemVerilog DPI:

System on a Chip Critical Criteria:

Co-operate on System on a Chip tasks and change contexts.

– For faster system modelling, we do not want to enter EDS kernel for every change of every net or bus: so is it possible to pass larger objects around, or even send threads between components, like S/W does ?

– Higher-level entry forms are ideally needed, perhaps schedulling within a thread at compile-time and between threads at run time ?

– What is the support needed at the hardware and system software level to support such reconfiguration?

– Other standard payloads (e.g. 802.3 frame or audio sample) might be expected ?

– Can we consider higher-dimensional interconnect (non examinable) ?

– Do we want to model every contention point and queuing detail ?

– Boolean equivalence: do two functions produce the same output?

– Right-hand sides may range over rich operators e.g. mux ?

– Do a pair of designs follow the same state trajectory ?

– Are we interested for all input combinations?

– How long to hold bus before re-arbitration ?

– How to generate clock enable conditions ?

– What will it do with transport models?

– Why a System-on-a-Chip Audio Encoder?

– Is it synchronous or asynchronous?

– What does this achieve?

– Where are SoCs Headed?

– Is there a workaround?

– How much improvement?

– More than one clock?

System on a Chip Critical Criteria:

Air ideas re System on a Chip management and gather practices for scaling System on a Chip.

– For correct behaviour of synchronous edge-triggered hardware, the progagation delay of D-types must be greater than their hold time. Question : How can we ensuse this in a technology-neutral model that does not have any specific numerical delays ?

– Switching speed is dominated by electron mobility (drift velocity) in transistor gates. We can improve by shifting to faster materials, such as GaAs, or just by making the gates smaller. How small can we go: what is the silicon end point ?

– Synchronous or asynchronous (turn-taking) composition. If a pair of circuits are combined, do they share a common clock or take it in turns to move?

– System Architecture for On-Chip Networks: What system architecture (topology, routing, flow control, interfaces) is optimal for on-chip networks?

– The boolean equivalence problem is do two functions produce the same output. However, are we interested for all input combinations?

– Another common question that needs checking is sequential equivalence. Do a pair of designs follow the same state trajectory ?

– Evaluation and Driving Applications for On-Chip Networks: How should on-chip networks be evaluated?

– Transactions may execute in a different sequence from reality: sequential consistency compromised ?

– Does it fully-define an actual implementation (this is overly restrictive) ?

– Can we automatically create RTL glue logic from port specifications ?

– From which edge of the clock is data propagated to the output?

– Process Challenge Can you integrate what you need ?

– When Will Dick Tracy s Watch Be Available?

– Higher-level: Behavioural or Logical ?

– What is a SoC?

Notebook processor Critical Criteria:

Coach on Notebook processor risks and point out Notebook processor tensions in leadership.

– Does System on a Chip create potential expectations in other areas that need to be recognized and considered?

– How will you measure your System on a Chip effectiveness?

– Why is System on a Chip important for you now?

Intel 80286 Critical Criteria:

Grade Intel 80286 management and forecast involvement of future Intel 80286 projects in development.

– What tools do you use once you have decided on a System on a Chip strategy and more importantly how do you choose?

– What are our needs in relation to System on a Chip skills, labor, equipment, and markets?

– Is the scope of System on a Chip defined?

Clock rate Critical Criteria:

Set goals for Clock rate projects and find out what it really means.

– What are the success criteria that will indicate that System on a Chip objectives have been met and the benefits delivered?

– Is there a System on a Chip Communication plan covering who needs to get what information when?

– What other jobs or tasks affect the performance of the steps in the System on a Chip process?

Cadence Design Systems Critical Criteria:

Have a session on Cadence Design Systems issues and customize techniques for implementing Cadence Design Systems controls.

– what is the best design framework for System on a Chip organization now that, in a post industrial-age if the top-down, command and control model is no longer relevant?

– How do we manage System on a Chip Knowledge Management (KM)?

Central processing unit Critical Criteria:

Canvass Central processing unit governance and gather Central processing unit models .

– Where do ideas that reach policy makers and planners as proposals for System on a Chip strengthening and reform actually originate?

– Which individuals, teams or departments will be involved in System on a Chip?

Serial Peripheral Interface Bus Critical Criteria:

Match Serial Peripheral Interface Bus decisions and innovate what needs to be done with Serial Peripheral Interface Bus.

– What are the business goals System on a Chip is aiming to achieve?

– Do we all define System on a Chip in the same way?

Soft microprocessor Critical Criteria:

Define Soft microprocessor adoptions and question.

– Which customers cant participate in our System on a Chip domain because they lack skills, wealth, or convenient access to existing solutions?

– What are the Key enablers to make this System on a Chip move?

Non-uniform memory access Critical Criteria:

Infer Non-uniform memory access adoptions and give examples utilizing a core of simple Non-uniform memory access skills.

– What are your current levels and trends in key measures or indicators of System on a Chip product and process performance that are important to and directly serve your customers? how do these results compare with the performance of your competitors and other organizations with similar offerings?

– What are your key performance measures or indicators and in-process measures for the control and improvement of your System on a Chip processes?

– Do several people in different organizational units assist with the System on a Chip process?

One instruction set computer Critical Criteria:

Reorganize One instruction set computer strategies and perfect One instruction set computer conflict management.

– Is maximizing System on a Chip protection the same as minimizing System on a Chip loss?

– When a System on a Chip manager recognizes a problem, what options are available?

NX bit Critical Criteria:

Mine NX bit adoptions and find the ideas you already have.

– How do we know that any System on a Chip analysis is complete and comprehensive?

– How much does System on a Chip help?

Power management Critical Criteria:

Contribute to Power management planning and remodel and develop an effective Power management strategy.

– What are the key elements of your System on a Chip performance improvement system, including your evaluation, organizational learning, and innovation processes?

– What is Effective System on a Chip?

Nios II Critical Criteria:

Study Nios II adoptions and diversify disclosure of information – dealing with confidential Nios II information.

– Do System on a Chip rules make a reasonable demand on a users capabilities?

– How do we go about Securing System on a Chip?

– Is System on a Chip Required?

ROM image Critical Criteria:

Use past ROM image projects and clarify ways to gain access to competitive ROM image services.

– Will System on a Chip deliverables need to be tested and, if so, by whom?

– How can skill-level changes improve System on a Chip?

Reduced instruction set computer Critical Criteria:

Investigate Reduced instruction set computer management and adjust implementation of Reduced instruction set computer.

– Does System on a Chip analysis isolate the fundamental causes of problems?

– Are assumptions made in System on a Chip stated explicitly?

Memory management unit Critical Criteria:

Inquire about Memory management unit adoptions and overcome Memory management unit skills and management ineffectiveness.

– Can we add value to the current System on a Chip decision-making process (largely qualitative) by incorporating uncertainty modeling (more quantitative)?

– How likely is the current System on a Chip plan to come in on schedule or on budget?

Instruction set architecture Critical Criteria:

Review Instruction set architecture adoptions and suggest using storytelling to create more compelling Instruction set architecture projects.

– What are your most important goals for the strategic System on a Chip objectives?

– How do we maintain System on a Chips Integrity?

Branch predictor Critical Criteria:

Brainstorm over Branch predictor adoptions and use obstacles to break out of ruts.

– For your System on a Chip project, identify and describe the business environment. is there more than one layer to the business environment?

– What prevents me from making the changes I know will make me a more effective System on a Chip leader?

CPU multiplier Critical Criteria:

Think carefully about CPU multiplier failures and gather practices for scaling CPU multiplier.

– Among the System on a Chip product and service cost to be estimated, which is considered hardest to estimate?

Scalar processor Critical Criteria:

Examine Scalar processor goals and correct Scalar processor management by competencies.

– Who is responsible for ensuring appropriate resources (time, people and money) are allocated to System on a Chip?

– Are there any disadvantages to implementing System on a Chip? There might be some that are less obvious?

Arithmetic logic unit Critical Criteria:

Depict Arithmetic logic unit visions and question.

– Record-keeping requirements flow from the records needed as inputs, outputs, controls and for transformation of a System on a Chip process. ask yourself: are the records needed as inputs to the System on a Chip process available?

– Do we have past System on a Chip Successes?

Front-side bus Critical Criteria:

Depict Front-side bus decisions and devote time assessing Front-side bus and its risk.

– Do those selected for the System on a Chip team have a good general understanding of what System on a Chip is all about?

– Will System on a Chip have an impact on current business continuity, disaster recovery processes and/or infrastructure?

– Is there any existing System on a Chip governance structure?

Direct Memory Access Critical Criteria:

Pay attention to Direct Memory Access decisions and define Direct Memory Access competency-based leadership.

– What management system can we use to leverage the System on a Chip experience, ideas, and concerns of the people closest to the work to be done?

– How can we incorporate support to ensure safe and effective use of System on a Chip into the services that we provide?

Physics processing unit Critical Criteria:

Reorganize Physics processing unit issues and find out.

– Does the System on a Chip task fit the clients priorities?

– Is a System on a Chip Team Work effort in place?

Dynamic frequency scaling Critical Criteria:

Air ideas re Dynamic frequency scaling results and summarize a clear Dynamic frequency scaling focus.

– Who sets the System on a Chip standards?

Execution unit Critical Criteria:

Study Execution unit goals and budget the knowledge transfer for any interested in Execution unit.

– What will be the consequences to the business (financial, reputation etc) if System on a Chip does not go ahead or fails to deliver the objectives?

– Have you identified your System on a Chip key performance indicators?

Symmetric multiprocessing Critical Criteria:

Do a round table on Symmetric multiprocessing engagements and handle a jump-start course to Symmetric multiprocessing.

– In the case of a System on a Chip project, the criteria for the audit derive from implementation objectives. an audit of a System on a Chip project involves assessing whether the recommendations outlined for implementation have been met. in other words, can we track that any System on a Chip project is implemented as planned, and is it working?

Memory buffer register Critical Criteria:

Have a session on Memory buffer register tasks and observe effective Memory buffer register.

– Do we monitor the System on a Chip decisions made and fine tune them as they evolve?

– What business benefits will System on a Chip goals deliver if achieved?

– How can we improve System on a Chip?

Forte Design Systems Critical Criteria:

Familiarize yourself with Forte Design Systems planning and probe the present value of growth of Forte Design Systems.

– How will we insure seamless interoperability of System on a Chip moving forward?

– What are the record-keeping requirements of System on a Chip activities?

– Can Management personnel recognize the monetary benefit of System on a Chip?

Secure cryptoprocessor Critical Criteria:

Demonstrate Secure cryptoprocessor decisions and summarize a clear Secure cryptoprocessor focus.

– How can you negotiate System on a Chip successfully with a stubborn boss, an irate client, or a deceitful coworker?

– How to deal with System on a Chip Changes?

Cognitive computing Critical Criteria:

Transcribe Cognitive computing tasks and prioritize challenges of Cognitive computing.

– What new services of functionality will be implemented next with System on a Chip ?

– Is the System on a Chip organization completing tasks effectively and efficiently?

Hardware register Critical Criteria:

Collaborate on Hardware register issues and modify and define the unique characteristics of interactive Hardware register projects.

Nios embedded processor Critical Criteria:

Extrapolate Nios embedded processor risks and explain and analyze the challenges of Nios embedded processor.

– What is the purpose of System on a Chip in relation to the mission?

– What are the usability implications of System on a Chip actions?

Baseband processor Critical Criteria:

Meet over Baseband processor tasks and give examples utilizing a core of simple Baseband processor skills.

Comparison of instruction set architectures Critical Criteria:

Understand Comparison of instruction set architectures strategies and revise understanding of Comparison of instruction set architectures architectures.

– Think about the functions involved in your System on a Chip project. what processes flow from these functions?

Superscalar processor Critical Criteria:

Analyze Superscalar processor engagements and adjust implementation of Superscalar processor.

– Have all basic functions of System on a Chip been defined?

– What are current System on a Chip Paradigms?

Wetware computer Critical Criteria:

Accommodate Wetware computer adoptions and correct better engagement with Wetware computer results.

– Do you monitor the effectiveness of your System on a Chip activities?

– Are accountability and ownership for System on a Chip clearly defined?

– What are the long-term System on a Chip goals?

Processor register Critical Criteria:

Focus on Processor register visions and perfect Processor register conflict management.

Very long instruction word Critical Criteria:

Sort Very long instruction word visions and reinforce and communicate particularly sensitive Very long instruction word decisions.

– Will new equipment/products be required to facilitate System on a Chip delivery for example is new software needed?

– How do mission and objectives affect the System on a Chip processes of our organization?

– Are there System on a Chip problems defined?

Clipper architecture Critical Criteria:

Sort Clipper architecture projects and adjust implementation of Clipper architecture.

– In a project to restructure System on a Chip outcomes, which stakeholders would you involve?

– What is the source of the strategies for System on a Chip strengthening and reform?

Semiconductor intellectual property core Critical Criteria:

Jump start Semiconductor intellectual property core visions and figure out ways to motivate other Semiconductor intellectual property core users.

– How do you incorporate cycle time, productivity, cost control, and other efficiency and effectiveness factors into these System on a Chip processes?

Instruction unit Critical Criteria:

Analyze Instruction unit strategies and improve Instruction unit service perception.

– What are the barriers to increased System on a Chip production?

Instruction-level parallelism Critical Criteria:

Be clear about Instruction-level parallelism adoptions and point out Instruction-level parallelism tensions in leadership.

– Think about the kind of project structure that would be appropriate for your System on a Chip project. should it be formal and complex, or can it be less formal and relatively simple?

– What are your results for key measures or indicators of the accomplishment of your System on a Chip strategy and action plans, including building and strengthening core competencies?

– How do we keep improving System on a Chip?

DNA computing Critical Criteria:

Understand DNA computing leadership and spearhead techniques for implementing DNA computing.

Instruction pipelining Critical Criteria:

Inquire about Instruction pipelining management and improve Instruction pipelining service perception.

SystemVerilog DPI Critical Criteria:

Inquire about SystemVerilog DPI quality and define what our big hairy audacious SystemVerilog DPI goal is.

– What are our System on a Chip Processes?

– How to Secure System on a Chip?


This quick readiness checklist is a selected resource to help you move forward. Learn more about how to achieve comprehensive insights with the System on a Chip Self Assessment:’s-Guide/

Author: Gerard Blokdijk

CEO at The Art of Service |

Gerard is the CEO at The Art of Service. He has been providing information technology insights, talks, tools and products to organizations in a wide range of industries for over 25 years. Gerard is a widely recognized and respected information expert. Gerard founded The Art of Service consulting business in 2000. Gerard has authored numerous published books to date.

External links:

To address the criteria in this checklist, these selected resources are provided for sources of further research and information:

System on a Chip External links:

System on a Chip Explained – What is SoC? Smartphone …

System on a Chip External links:

System on a Chip Explained – What is SoC? Smartphone …

Intel 80286 External links:

What is Protected Mode – Intel 80286? Webopedia Definition

Clock rate External links:

Clock Rate command – 6227 – The Cisco Learning Network

Cycles, Instructions and Clock Rate – Problem 1.5 – YouTube

Cadence Design Systems External links:

CDNS – Cadence Design Systems Inc Stock quote – CNNMoney…

Central processing unit External links:

What is CPU (Central Processing Unit)? – Computer Hope…

Central processing unit
http://A central processing unit (CPU) is the electronic circuitry within a computer that carries out the instructions of a computer program by performing the basic arithmetic, logical, control and input/output (I/O) operations specified by the instructions. The term has been used in the computer industry at least since the early 1960s.

Central Processing Unit – Home | Facebook

Serial Peripheral Interface Bus External links:

Serial Peripheral Interface Bus – bildr

The Serial Peripheral Interface Bus | EEWeb Community

Serial Peripheral Interface Bus – YouTube

Soft microprocessor External links:

[PDF]DS5001FP 128k Soft Microprocessor Chip – Maxim …

Non-uniform memory access External links:

Non-Uniform Memory Access (NUMA): Overview – Petri

Non-Uniform Memory Access – EzyLinux | EzyLinux

Non-Uniform Memory Access – Nekochan

One instruction set computer External links:

One instruction set computer Facts for Kids | …

Subleq — a one instruction set computer – unnikked

One Instruction Set Computer – Drexel University

NX bit External links:

What Is The NX Bit? – YouTube

Windows 10 Upgrade Problem – NX Bit |Intel Communities

Power management External links:

Follow the Charge – power management solutions from Eaton

Power Innovations International | Power Management …

Nios II External links:

Quartus Nios II | Florida State University Libraries

[PDF]Nios II Classic Processor Reference Guide – Altera

CPUlator Nios II System Simulator

ROM image External links:

GitHub – eagle0wl/kksn_ripper: ROM image ripper

Rom image not loaded, Rom Image update denied! msi gt72s …

Reduced instruction set computer External links:

Reduced Instruction Set Computer – Nekochan

Reduced Instruction Set Computer Architectures for …

[PDF]The design of a reduced instruction set computer …

Memory management unit External links:

Fieldbus Memory Management Unit – Acronyms and …

Using a Memory Management Unit – YouTube

Instruction set architecture External links:

RISC-V Foundation | Instruction Set Architecture (ISA)

Instruction set architecture
http://An instruction set, or instruction set architecture (ISA), is the part of the computer architecture related to programming—including the native data types, instructions, registers, addressing modes, memory architecture, interrupt and exception handling—and external I/O.

Instruction Set Architecture (ISA) – Kent State University

CPU multiplier External links:

What is a cpu multiplier – YouTube

Perfect Dark Gameplay using the 3.0x CPU multiplier – …

Scalar processor External links:


What is SPARC (Scalar Processor ARChitecture)?

Arithmetic logic unit External links:

What is Arithmetic Logic Unit –

Arithmetic Logic Unit Flashcards | Quizlet

What is ALU (Arithmetic Logic Unit)? – Computer Hope

Direct Memory Access External links:

Direct Memory Access – DMA (simplified) – YouTube

Direct Memory Access (DMA) –

Direct Memory Access (DMA) –

Physics processing unit External links:

Patent US7895411 – Physics processing unit – Google Patents

Dynamic frequency scaling External links:


Execution unit External links:

Execution Unit Games (@executionunit) | Twitter

Execution Unit

Microprocessor 8086 Tuto 5-Execution Unit – YouTube

Symmetric multiprocessing External links:

Symmetric Multiprocessing (SMP) –

Symmetric multiprocessing – YouTube

Symmetric Multiprocessing Architecture – YouTube

Memory buffer register External links:

What is memory buffer register? – Quora


Forte Design Systems External links:

Forte Design Systems – Home | Facebook

Forte Design Systems | Crunchbase

Secure cryptoprocessor External links:


Cognitive computing External links:

Cognitive Computing Consortium

What is cognitive computing? – Definition from …

“Cognitive Computing” by Haluk Demirkan, Seth Earley et al.

Hardware register External links:

PJRC MP3 Player, Memory Map and Hardware Register List

VisualGDB – Editing Hardware Register definitions

Nios embedded processor External links:

[PDF]AN 189: Simulating Nios Embedded Processor Designs

NIOS Embedded Processor -ALTERA p1 – YouTube

Baseband processor External links:

Reverse engineering a Qualcomm baseband processor …

[PDF]Certain Baseband Processor Chips and Chipsets, …

Superscalar processor External links:

[PDF]A First-Order Superscalar Processor Model

What is meaning superscalar processor? – Quora

Superscalar Processor Organization – YouTube

Wetware computer External links:

Sferro – Wetware Computer – YouTube

Wetware Computer | Girlfriend Records

Processor register External links:

What is a Processor Register? – Definition from …

Very long instruction word External links:

Very Long Instruction Word – Quora

[PDF]Very Long Instruction Word (VLIW) Architectures

[PDF]Reconfigurable Very Long Instruction Word (VLIW) …

Clipper architecture External links:

Clipper Architecture | Facebook

Semiconductor intellectual property core External links:

Semiconductor intellectual property core – Unionpedia, …

Semiconductor intellectual property core –

Semiconductor intellectual property core
http://In electronic design a semiconductor intellectual property core, IP core, or IP block is a reusable unit of logic, cell, or integrated circuit layout design that is the intellectual property of one party. IP cores may be licensed to another party or can be owned and used by a single party alone. The term is derived from the licensing of the patent and/or source code copyright that exist in the design. IP cores can be used as building blocks within application-specific integrated circuit designs or field-programmable gate array logic designs.

Instruction-level parallelism External links:

[PDF]Chapter 3 Instruction-Level Parallelism and Its …

What is Instruction-Level Parallelism? Webopedia …

[PDF]Instruction-Level Parallelism and Its Exploitation …

DNA computing External links:

The next step in DNA computing: GPS mapping? — ScienceDaily

DNA Computing – MIT Technology Review

Swarming Behavior Programmed by DNA Computing …

Instruction pipelining External links:

[PDF]Teaching Basics of Instruction Pipelining with …

Instruction Pipelining –

Instruction Pipelining –

SystemVerilog DPI External links:

SystemVerilog DPI Tutorial – Doulos

WWW.TESTBENCH.IN – Systemverilog DPI

SystemVerilog DPI-C example – EDA Playground

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