• Title/Summary/Keyword: co-verification environment

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Developing of HW/SW Co-Design and Verification Environment for Information-App1iance-On-a-Chip (정보기기온칩을 위한 HW/SW 혼합 설계 및 검증 환경 개발)

  • 장준영;신진아;배영환
    • Proceedings of the IEEK Conference
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    • 2001.06b
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    • pp.117-120
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    • 2001
  • This paper presents a HW/SW co-design environments and its validation for development of virtual component on the 32-bit RISC core which is used in the design of Information-Appliance-On-a-Chip. For the experimental environment, we developed the cycle-accurate instruction set simulator based on SE3208 RISC core of ADChips. To verify the function of RISC core at the cycle level, we implemented the verification environment by grafting this simulator on the Seamless CVE which is a commercial co-verification environment.

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Seamless CVE Environment Using TeakLite Core for DVD Servo (DVD Servo용 IC개발에 적용한 TeakLite core 기반의 Seamless CVE 환경)

  • 서승범;안영준;배점한
    • Proceedings of the IEEK Conference
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    • 2000.11b
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    • pp.204-207
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    • 2000
  • Verification is one of the most critical and time-consuming tasks in today's design process. This paper describes the basic idea of Co-verification and the environment setup for the design of DVD Servo with TeakLite DSP core by using Seamless CVE, Hardware/software Co-verification too1.

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Hardware/Software Co-verification with Integrated Verification (집적검증 기법을 채용한 하드웨어/소프트웨어 동시검증)

  • Lee, Young-Soo;Yang, Se-Yang
    • Journal of KIISE:Computing Practices and Letters
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    • v.8 no.3
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    • pp.261-267
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    • 2002
  • In SOC(System On a Chip) designs, reducing time and cast for design verification is the most critical to improve the design productivity. this is mainly because the designs require co-verifying HW together with SW, which results in the increase of verification complexity drastically. In this paper, to cope with the verification crisis in SOC designs, we propose a new verification methodology, so called integrated co-verification, which lightly combine both co-simulation and co-emulation in unified and seamless way. We have applied our integrated co-verification to ARM/AMBA platform-based co-verification environment with a commercial co-verification tool, Seamless CVE, and a physical prototyping board. The experiments has shown clear advantage of the proposed technique over conventional ones.

Design and Implementation of Co-Verification Environments based-on SystemVerilog & SystemC (SystemVerilog와 SystemC 기반의 통합검증환경 설계 및 구현)

  • You, Myoung-Keun;Song, Gi-Yong
    • Journal of the Institute of Convergence Signal Processing
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    • v.10 no.4
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    • pp.274-279
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    • 2009
  • The flow of a universal system-level design methodology consists of system specification, system-level hardware/software partitioning, co-design, co-verification using virtual or physical prototype, and system integration. In this paper, verification environments based-on SystemVerilog and SystemC, one is native-code co-verification environment which makes prompt functional verification possible and another is SystemVerilog layered testbench which makes clock-level verification possible, are implemented. In native-code co-verification, HW and SW parts of SoC are respectively designed with SystemVerilog and SystemC after HW/SW partitioning using SystemC, then the functional interaction between HW and SW parts is carried out as one simulation process. SystemVerilog layered testbench is a verification environment including corner case test of DUT through the randomly generated test-vector. We adopt SystemC to design a component of verification environment which has multiple inheritance, and we combine SystemC design unit with the SystemVerilog layered testbench using SystemVerilog DPI and ModelSim macro. As multiple inheritance is useful for creating class types that combine the properties of two or more class types, the design of verification environment adopting SystemC in this paper can increase the code reusability.

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Analysis of Verification Methodologies Based on a SoC Platform Design

  • Lee, Je-Hoon;Kim, Sang-Choon
    • International Journal of Contents
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    • v.7 no.1
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    • pp.23-28
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    • 2011
  • In a SoC (system-on-chip) design, a design complexity is a big bottleneck. In order to overcome the design complexity, platform based design method is widely adopted for designers. Most complex SoCs need a heterogeneous design development environment for hardware and software co-design. In this paper, we discuss about some kinds of verification approaches with platform based design methodology at various abstraction levels of SoC design. We separate the verification process to two steps according to the different levels of verification. We employ a flexible SoC design environment to support simultaneous hardware and software development. We demonstrate the verification strategy of a target SoC design, IEEE 802.11a WLAN SoC.

Methodology of CO2 Emission Factor Verification and Quantitative Assessment in Ethylene Product Processes (에틸렌 생산에서의 CO2 국가배출계수 검증 및 정량평가 방법론)

  • Youk, Soo Kyung;Jeon, Eui-Chan;Yoo, Kyung Seun
    • Journal of Climate Change Research
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    • v.9 no.1
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    • pp.69-74
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    • 2018
  • The purpose of this study is to suggest the methodology of $CO_2$ Emission Factor Verification and Quantitative Assessment in Ethylene Product Processes. At first, this study compare the IPCC (Intergovernmental Panel on Climate Change) 1996 Guideline and 2006 Guideline. And analyse methodology for estimating $CO_2$ emission and $CO_2$ emission factor in Ethylene product process. Also analyse cases of estimating $CO_2$ emission factor based on material balance. Methodology of $CO_2$ Emission Factor Verification and Quantitative Assessment are following the categories proposed by GIR (Greenhouse Gas Inventory and Research Center). There are total 12 factors in 8 categories and give 5 or 10 points according to their importance. Also this study suggests necessary data of document to meet the conditions. The result would help estimate accuracy Greenhouse Gas Inventory. Also contribute to establish policy on environmental assessment, air conservation, etc.

Verification of failover effects from distributed control system communication networks in digitalized nuclear power plants

  • Min, Moon-Gi;Lee, Jae-Ki;Lee, Kwang-Hyun;Lee, Dongil;Lim, Hee-Taek
    • Nuclear Engineering and Technology
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    • v.49 no.5
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    • pp.989-995
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    • 2017
  • Distributed Control System (DCS) communication networks, which use Fast Ethernet with redundant networks for the transmission of information, have been installed in digitalized nuclear power plants. Normally, failover tests are performed to verify the reliability of redundant networks during design and manufacturing phases; however, systematic integrity tests of DCS networks cannot be fully performed during these phases because all relevant equipment is not installed completely during these two phases. In additions, practical verification tests are insufficient, and there is a need to test the actual failover function of DCS redundant networks in the target environment. The purpose of this study is to verify that the failover functions works correctly in certain abnormal conditions during installation and commissioning phase and identify the influence of network failover on the entire DCS. To quantify the effects of network failover in the DCS, the packets (Protocol Data Units) must be collected and resource usage of the system has to be monitored and analyzed. This study introduces the use of a new methodology for verification of DCS network failover during the installation and commissioning phases. This study is expected to provide insight into verification methodology and the failover effects from DCS redundant networks. It also provides test results of network performance from DCS network failover in digitalized domestic nuclear power plants (NPPs).

A Hardware-Software Co-verification Methodology for cdma2000 1x Compliant Mobile Station Modem (cdma2000 1x 이동국 모뎀을 위한 하드웨어-소프트웨어 동시 검증 방법)

  • Han, Tae-Hee;Han, Sung-Chul;Han, Dong-Ku;Kim, Sung-Ryong;Han, Geum-Goo;Hwang, Suk-Min;Kim, Kyung-Ho
    • Journal of the Institute of Electronics Engineers of Korea SD
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    • v.39 no.7
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    • pp.46-56
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    • 2002
  • In this paper, we describe a hardware-software co-verification methodology and environment in developing a mobile station modem chip for cdma2000 1x which is one of the 3rd generation mobile communication standards. By constructing an efficient co-verification environment for a register-transfer-level hardware model and a physical-layer software model combining a channel link simulator and a versatile test-bench, we can drastically reduce both time and cost for developing a complex three-million-gate class system integrated circuit.

Geophysics for Carbon Capture and Storage in Korea (국내 CO2 지중저장과 지구물리탐사의 역할)

  • Hwang, Se-Ho;Park, Kwon-Gyu
    • 한국지구물리탐사학회:학술대회논문집
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    • 2009.10a
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    • pp.16-19
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    • 2009
  • Recently, CO2 geologic storage (geologic sequestration) has been concerned as one of methodologies for reducing greenhouse gas. We expect that geophysical approach plays an important role in the site selection, characterization, and monitoring during CO2 injection or post-injection. Especially we believe that monitoring and verification technologies such as surface and borehole geophysical methods are an important part of making CO2 geologic storage an acceptable method.

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SOC Bus Transaction Verification Using AMBA Protocol Checker

  • Lee, Kab-Joo;Kim, Si-Hyun;Hwang, Hyo-Seon
    • JSTS:Journal of Semiconductor Technology and Science
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    • v.2 no.2
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    • pp.132-140
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    • 2002
  • This paper presents an ARM-based SOC bus transaction verification IP and the usage experiences in SOC designs. The verification IP is an AMBA AHB protocol checker, which captures legal AHB transactions in FSM-style signal sequence checking routines. This checker can be considered as a reusable verification IP since it does not change unless the bus protocol changes. Our AHB protocol checker is designed to be scalable to any number of AHB masters and reusable for various AMBA-based SOC designs. The keys to the scalability and the reusability are Object-Oriented Programming (OOP), virtual port, and bind operation. This paper describes how OOP, virtual port, and bind features are used to implement AHB protocol checker. Using the AHB protocol checker, an AHB simulation monitor is constructed. The monitor checks the legal bus arbitration and detects the first cycle of an AHB transaction. Then it calls AHB protocol checker to check the expected AHB signal sequences. We integrate the AHB bus monitor into Verilog simulation environment to replace time-consuming visual waveform inspection, and it allows us to find design bugs quickly. This paper also discusses AMBA AHB bus transaction coverage metrics and AHB transaction coverage analysis. Test programs for five AHB masters of an SOC, four channel DMAs and a host interface unit are executed and transaction coverage for DMA verification is collected during simulation. These coverage results can be used to determine the weak point of test programs in terms of the number of bus transactions occurred and guide to improve the quality of the test programs. Also, the coverage results can be used to obtain bus utilization statistics since the bus cycles occupied by each AHB master can be obtained.