CPU & Compiler Specifics for NEC V850/V850E/V850ES Cores Using
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JTAG Programmer Overview for Hercules-Based Microcontrollers
Application Report SPNA230–November 2015 JTAG Programmer Overview for Hercules-Based Microcontrollers CharlesTsai ABSTRACT This application report describes the necessary steps needed by the third party developers to create a JTAG-based flash programmer for the Hercules™ family of microcontrollers. This document does not substitute the existing user guides on JTAG access to the target systems and how to program the Flash memory, but rather serves as a central location to reference these documents with clarifications specific to the implementation of the Hercules family of microcontrollers. Contents 1 Introduction ................................................................................................................... 2 2 Hercules JTAG Scan Architecture......................................................................................... 2 3 Creating the Firmware to Program the Flash Memory ................................................................ 22 4 Flash Verification ........................................................................................................... 23 5 References .................................................................................................................. 23 List of Figures 1 Hercules JTAG Scan Architecture......................................................................................... 3 2 Conceptual ICEPICK-C Block Diagram for Hercules Implementation ................................................ 5 3 Fields of the 32-Bit Scan Value for Accessing Mapped Registers -
Intel Quartus Prime Pro Edition User Guide: Programmer Send Feedback
Intel® Quartus® Prime Pro Edition User Guide Programmer Updated for Intel® Quartus® Prime Design Suite: 21.2 Subscribe UG-20134 | 2021.07.21 Send Feedback Latest document on the web: PDF | HTML Contents Contents 1. Intel® Quartus® Prime Programmer User Guide..............................................................4 1.1. Generating Primary Device Programming Files........................................................... 5 1.2. Generating Secondary Programming Files................................................................. 6 1.2.1. Generating Secondary Programming Files (Programming File Generator)........... 7 1.2.2. Generating Secondary Programming Files (Convert Programming File Dialog Box)............................................................................................. 11 1.3. Enabling Bitstream Security for Intel Stratix 10 Devices............................................ 18 1.3.1. Enabling Bitstream Authentication (Programming File Generator)................... 19 1.3.2. Specifying Additional Physical Security Settings (Programming File Generator).............................................................................................. 21 1.3.3. Enabling Bitstream Encryption (Programming File Generator).........................22 1.4. Enabling Bitstream Encryption or Compression for Intel Arria 10 and Intel Cyclone 10 GX Devices.................................................................................................. 23 1.5. Generating Programming Files for Partial Reconfiguration......................................... -
Soft Machines Targets Ipcbottleneck
SOFT MACHINES TARGETS IPC BOTTLENECK New CPU Approach Boosts Performance Using Virtual Cores By Linley Gwennap (October 27, 2014) ................................................................................................................... Coming out of stealth mode at last week’s Linley Pro- president/CTO Mohammad Abdallah. Investors include cessor Conference, Soft Machines disclosed a new CPU AMD, GlobalFoundries, and Samsung as well as govern- technology that greatly improves performance on single- ment investment funds from Abu Dhabi (Mubdala), Russia threaded applications. The new VISC technology can con- (Rusnano and RVC), and Saudi Arabia (KACST and vert a single software thread into multiple virtual threads, Taqnia). Its board of directors is chaired by Global Foun- which it can then divide across multiple physical cores. dries CEO Sanjay Jha and includes legendary entrepreneur This conversion happens inside the processor hardware Gordon Campbell. and is thus invisible to the application and the software Soft Machines hopes to license the VISC technology developer. Although this capability may seem impossible, to other CPU-design companies, which could add it to Soft Machines has demonstrated its performance advan- their existing CPU cores. Because its fundamental benefit tage using a test chip that implements a VISC design. is better IPC, VISC could aid a range of applications from Without VISC, the only practical way to improve single-thread performance is to increase the parallelism Application (sequential code) (instructions per cycle, or IPC) of the CPU microarchi- Single Thread tecture. Taken to the extreme, this approach results in massive designs such as Intel’s Haswell and IBM’s Power8 OS and Hypervisor that deliver industry-leading performance but waste power Standard ISA and die area. -
Itanium-Based Solutions by Hp
Itanium-based solutions by hp an overview of the Itanium™-based hp rx4610 server a white paper from hewlett-packard june 2001 table of contents table of contents 2 executive summary 3 why Itanium is the future of computing 3 rx4610 at a glance 3 rx4610 product specifications 4 rx4610 physical and environmental specifications 4 the rx4610 and the hp server lineup 5 rx4610 architecture 6 64-bit address space and memory capacity 6 I/O subsystem design 7 special features of the rx4610 server 8 multiple upgrade and migration paths for investment protection 8 high availability and manageability 8 advanced error detection, correction, and containment 8 baseboard management controller (BMC) 8 redundant, hot-swap power supplies 9 redundant, hot-swap cooling 9 hot-plug disk drives 9 hot-plug PCI I/O slots 9 internal removable media 10 system control panel 10 ASCII console for hp-ux 10 space-saving rack density 10 complementary design and packaging 10 how hp makes the Itanium transition easy 11 binary compatibility 11 hp-ux operating system 11 seamless transition—even for home-grown applications 12 transition help from hp 12 Itanium quick start service 12 partner technology access centers 12 upgrades and financial incentives 12 conclusion 13 for more information 13 appendix: Itanium advantages in your computing future 14 hp’s CPU roadmap 14 Itanium processor architecture 15 predication enhances parallelism 15 speculation minimizes the effect of memory latency 15 inherent scalability delivers easy expansion 16 what this means in a server 16 2 executive The Itanium™ Processor Family is the next great stride in computing--and it’s here today. -
Computer Architecture Out-Of-Order Execution
Computer Architecture Out-of-order Execution By Yoav Etsion With acknowledgement to Dan Tsafrir, Avi Mendelson, Lihu Rappoport, and Adi Yoaz 1 Computer Architecture 2013– Out-of-Order Execution The need for speed: Superscalar • Remember our goal: minimize CPU Time CPU Time = duration of clock cycle × CPI × IC • So far we have learned that in order to Minimize clock cycle ⇒ add more pipe stages Minimize CPI ⇒ utilize pipeline Minimize IC ⇒ change/improve the architecture • Why not make the pipeline deeper and deeper? Beyond some point, adding more pipe stages doesn’t help, because Control/data hazards increase, and become costlier • (Recall that in a pipelined CPU, CPI=1 only w/o hazards) • So what can we do next? Reduce the CPI by utilizing ILP (instruction level parallelism) We will need to duplicate HW for this purpose… 2 Computer Architecture 2013– Out-of-Order Execution A simple superscalar CPU • Duplicates the pipeline to accommodate ILP (IPC > 1) ILP=instruction-level parallelism • Note that duplicating HW in just one pipe stage doesn’t help e.g., when having 2 ALUs, the bottleneck moves to other stages IF ID EXE MEM WB • Conclusion: Getting IPC > 1 requires to fetch/decode/exe/retire >1 instruction per clock: IF ID EXE MEM WB 3 Computer Architecture 2013– Out-of-Order Execution Example: Pentium Processor • Pentium fetches & decodes 2 instructions per cycle • Before register file read, decide on pairing Can the two instructions be executed in parallel? (yes/no) u-pipe IF ID v-pipe • Pairing decision is based… On data -
Arduino and AVR
Arduino and AVR Ke vin J Dola n a nd Eric Te ve lson Agenda • History of Arduino • Comparison to Other Platforms • Arduino Uno - Hardware • ATmega328P Peripherals • Instruction Set • Processor Components • Pipe lining • Programming • Applica tions • Future of Arduino History of Arduino • Fa mily of Microcontrolle rs cre a te d a s a ma ste rs the sis proje ct • intended for use by a non-technical audience of artists, designers, etc. • Made for accessibility and ease of use. • Programming made easy for the audience • Ability to program board via USB • Inexpensive price point • Expanded for other types and configurations • Example: Arduino Lilypad for wearable technologies • Popularity has expanded functionality including “shields” and Bluetooth. Comparison to Other Platforms • Raspberry Pi • Raspberry Pi is a full computer that can run and support an OS, and has built in graphics. • Porta bility is a n issue , since a n e xte rna l supply is ne e de d. • Network needs more setup on an Arduino • Raspberry Pi does not support analog sensors as well • Teensy • Less expensive • Compatible with Arduino “sketches” and “shields” • Be tte r ADC sa mpling, sa me functiona lity, be tte r re solution • Sma lle r physica l boa rd size Arduino Uno - Hardware • ATmega328P Microcontroller • 3 2 KB Fla s h Me m o ry (2 KB S RAM, 1 KB EEP RO M) • 16 MH z C lo c k • 14 Digita l I/O Pins • 6 PWM Digita l I/O Pins • 6 Analog Input Pins • Up to 20mA DC Current per I/O Pin up to 300mA total across all pins • 50mA DC Current on 3.3V Pin Arduino Uno - Hardware ATmega328P Peripherals • Total of 6 accessible A/D Pins on Port C • 14 GPIO (7 Pins each from PORT B & D) • UART (Se ria l) • SPI Support • Watchdog timer to reset CPU Instruction Set • Harvard Architecture, which is non-von Neumann memory, but still a von Neumann architecture. -
Performance of a Computer (Chapter 4) Vishwani D
ELEC 5200-001/6200-001 Computer Architecture and Design Fall 2013 Performance of a Computer (Chapter 4) Vishwani D. Agrawal & Victor P. Nelson epartment of Electrical and Computer Engineering Auburn University, Auburn, AL 36849 ELEC 5200-001/6200-001 Performance Fall 2013 . Lecture 1 What is Performance? Response time: the time between the start and completion of a task. Throughput: the total amount of work done in a given time. Some performance measures: MIPS (million instructions per second). MFLOPS (million floating point operations per second), also GFLOPS, TFLOPS (1012), etc. SPEC (System Performance Evaluation Corporation) benchmarks. LINPACK benchmarks, floating point computing, used for supercomputers. Synthetic benchmarks. ELEC 5200-001/6200-001 Performance Fall 2013 . Lecture 2 Small and Large Numbers Small Large 10-3 milli m 103 kilo k 10-6 micro μ 106 mega M 10-9 nano n 109 giga G 10-12 pico p 1012 tera T 10-15 femto f 1015 peta P 10-18 atto 1018 exa 10-21 zepto 1021 zetta 10-24 yocto 1024 yotta ELEC 5200-001/6200-001 Performance Fall 2013 . Lecture 3 Computer Memory Size Number bits bytes 210 1,024 K Kb KB 220 1,048,576 M Mb MB 230 1,073,741,824 G Gb GB 240 1,099,511,627,776 T Tb TB ELEC 5200-001/6200-001 Performance Fall 2013 . Lecture 4 Units for Measuring Performance Time in seconds (s), microseconds (μs), nanoseconds (ns), or picoseconds (ps). Clock cycle Period of the hardware clock Example: one clock cycle means 1 nanosecond for a 1GHz clock frequency (or 1GHz clock rate) CPU time = (CPU clock cycles)/(clock rate) Cycles per instruction (CPI): average number of clock cycles used to execute a computer instruction. -
Chap01: Computer Abstractions and Technology
CHAPTER 1 Computer Abstractions and Technology 1.1 Introduction 3 1.2 Eight Great Ideas in Computer Architecture 11 1.3 Below Your Program 13 1.4 Under the Covers 16 1.5 Technologies for Building Processors and Memory 24 1.6 Performance 28 1.7 The Power Wall 40 1.8 The Sea Change: The Switch from Uniprocessors to Multiprocessors 43 1.9 Real Stuff: Benchmarking the Intel Core i7 46 1.10 Fallacies and Pitfalls 49 1.11 Concluding Remarks 52 1.12 Historical Perspective and Further Reading 54 1.13 Exercises 54 CMPS290 Class Notes (Chap01) Page 1 / 24 by Kuo-pao Yang 1.1 Introduction 3 Modern computer technology requires professionals of every computing specialty to understand both hardware and software. Classes of Computing Applications and Their Characteristics Personal computers o A computer designed for use by an individual, usually incorporating a graphics display, a keyboard, and a mouse. o Personal computers emphasize delivery of good performance to single users at low cost and usually execute third-party software. o This class of computing drove the evolution of many computing technologies, which is only about 35 years old! Server computers o A computer used for running larger programs for multiple users, often simultaneously, and typically accessed only via a network. o Servers are built from the same basic technology as desktop computers, but provide for greater computing, storage, and input/output capacity. Supercomputers o A class of computers with the highest performance and cost o Supercomputers consist of tens of thousands of processors and many terabytes of memory, and cost tens to hundreds of millions of dollars. -
Intermittent Computation Without Hardware Support Or Programmer
Intermittent Computation without Hardware Support or Programmer Intervention Joel Van Der Woude, Sandia National Laboratories; Matthew Hicks, University of Michigan https://www.usenix.org/conference/osdi16/technical-sessions/presentation/vanderwoude This paper is included in the Proceedings of the 12th USENIX Symposium on Operating Systems Design and Implementation (OSDI ’16). November 2–4, 2016 • Savannah, GA, USA ISBN 978-1-931971-33-1 Open access to the Proceedings of the 12th USENIX Symposium on Operating Systems Design and Implementation is sponsored by USENIX. Intermittent Computation without Hardware Support or Programmer Intervention Joel Van Der Woude Matthew Hicks Sandia National Laboratories∗ University of Michigan Abstract rapid changes drive us closer to the realization of smart As computation scales downward in area, the limi- dust [20], enabling applications where the cost and size tations imposed by the batteries required to power that of computation had previously been prohibitive. We are computation become more pronounced. Thus, many fu- rapidly approaching a world where computers are not ture devices will forgo batteries and harvest energy from just your laptop or smart phone, but are integral parts their environment. Harvested energy, with its frequent your clothing [47], home [9], or even groceries [4]. power cycles, is at odds with current models of long- Unfortunately, while the smaller size and lower cost of running computation. microcontrollers enables new applications, their ubiqui- To enable the correct execution of long-running appli- tous adoption is limited by the form factor and expense of cations on harvested energy—without requiring special- batteries. Batteries take up an increasing amount of space purpose hardware or programmer intervention—we pro- and weight in an embedded system and require special pose Ratchet. -
V850 Series Development Environment Pamphlet
To our customers, Old Company Name in Catalogs and Other Documents On April 1st, 2010, NEC Electronics Corporation merged with Renesas Technology Corporation, and Renesas Electronics Corporation took over all the business of both companies. Therefore, although the old company name remains in this document, it is a valid Renesas Electronics document. We appreciate your understanding. Renesas Electronics website: http://www.renesas.com April 1st, 2010 Renesas Electronics Corporation Issued by: Renesas Electronics Corporation (http://www.renesas.com) Send any inquiries to http://www.renesas.com/inquiry. Notice 1. All information included in this document is current as of the date this document is issued. Such information, however, is subject to change without any prior notice. Before purchasing or using any Renesas Electronics products listed herein, please confirm the latest product information with a Renesas Electronics sales office. Also, please pay regular and careful attention to additional and different information to be disclosed by Renesas Electronics such as that disclosed through our website. 2. Renesas Electronics does not assume any liability for infringement of patents, copyrights, or other intellectual property rights of third parties by or arising from the use of Renesas Electronics products or technical information described in this document. No license, express, implied or otherwise, is granted hereby under any patents, copyrights or other intellectual property rights of Renesas Electronics or others. 3. You should not alter, modify, copy, or otherwise misappropriate any Renesas Electronics product, whether in whole or in part. 4. Descriptions of circuits, software and other related information in this document are provided only to illustrate the operation of semiconductor products and application examples. -
Palmice3 V850 Apr
Product Summary PALMiCE3 V850 Apr. 1, 2014 (1/1) JTAG emulator PALMiCE3 V850 PALMiCE3 V850 is a JTAG emulator that incorporates on-chip debugging function in Renesas Electronics-made V850. It supports USB2.0 (High-speed) as the host interface, and the Vbus which requires no power supply. Furthermore, PALMiCE3 V850 has a palm-sized, light and compact body, providing excellent portability to support you with debugging. As for the debugger, it surely incorporates CSIDE, which provides a user-friendly debugging environment. CSIDE supports not only high-level language debugging of a range of C languages but also a wide range of debugging environments by optional debug libraries. Support for SuperH family and H8S/H8SX family are also available with optional CSIDEs. ■ Supports V850 ■ Real-time watcher feature (Optional) ■ Supports USB2.0(High-speed), allowing high-speed ■ Simulated I/O feature processing ■ Allows access to memory and I/O during break ■ A palm-sized, compact body ■ Supports debugging on on-chip/external flash memories ■ Requires no power supply with Vbus support Main Specifications Supporting model HUDI141(JTAG) model Supported CPUs *1 V850E2/MN4, V850E2/ML4 JTAG clock Can be set freely in 1MHz increments between 1MHz and 25MHz. Voltage 1.65V - 5.5V (Follows target) Measures by sampling and shows the results with accuracy of 50mV Target I/F Voltage measurement and precision showing 2 decimal places. Connector 14-pin MIL connector Supports referencing/editing of register and downloading to memory during break. Register, memory, I/O operation It supports referencing/editing of memory and I/O even during execution of the user program. -
CPU) the CPU Is the Brains of the Computer, and Is Also Known As the Processor (A Single Chip Also Known As Microprocessor)
Central processing unit (CPU) The CPU is the brains of the computer, and is also known as the processor (a single chip also known as microprocessor). This electronic component interprets and carries out the basic instructions that operate the computer. Cache as a rule holds data waiting to be processed and instructions waiting to be executed. The main parts of the CPU are: control unit arithmetic logic unit (ALU), and registers – also referred as Cache registers The CPU is connected to a circuit board called the motherboard also known as the system board. Click here to see more information on the CPU Let’s look inside the CPU and see what the different components actually do and how they interact Control unit The control unit directs and co-ordinates most of the operations in the computer. It is a bit similar to a traffic officer controlling traffic! It translates instructions received from a program/application and then begins the appropriate action to carry out the instruction. Specifically the control unit: controls how and when input devices send data stores and retrieves data to and from specific locations in memory decodes and executes instructions sends data to other parts of the CPU during operations sends data to output devices on request Arithmetic Logic Unit (ALU): The ALU is the computer’s calculator. It handles all math operations such as: add subtract multiply divide logical decisions - true or false, and/or, greater then, equal to, or less than Registers Registers are special temporary storage areas on the CPU. They are: used to store items during arithmetic, logic or transfer operations.