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The Verification Methodology Manual (VMM) for SystemVerilog is an open
verification methodology and library based on Synopsys’ proven Reference
Verification Methodology. This session provides insight into the VMM
methodology and how it helps maximize design quality, promote reuse among
components, and emphasizes a layered, coverage driven, constrained random
verification environment. The session documents the layered architecture,
verification flow and transaction channel objects as defined by the
Verification Methodology Manual for SystemVerilog. |
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The Incisive Plan-to-Closure Methodology for SystemVerilog demo details the Cadence SystemVerilog solution. After introducing how Cadence has stitched SystemVerilog into its broad verification solution, the demo shows unique technical advantages and code examples that describe how to build SystemVerilog Universal Verification Components (UVCs). The UVCs created in the demo are shown operating in a verification environment. The demo concludes with information on additional resources available to the viewer. |
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This in-depth demo shows how the Cohesive™ suite addresses the problem of full spectrum
abstraction adaptation and the lack of real connectivity between ESL and RTL. You'll see how, during the adaptation
process, the Cohesive™ products are able to capture and visualize activity at the transaction levels and
simultaneously relate that activity to individual wires and signals in an RTL environment. |
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Active-HDL is the leading design entry and simulation environment for all FPGA
and CPLD device families. It provides the flexibility and advanced features to
support today's most complex designs for VHDL, Verilog, C/C++
and EDIF simulation from a single design entry and verification environment. |
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Today’s technical and market pressures drove the creation of the AMBA® 3 AXI™
protocol, which is designed to enable implementation of a high performance
scalable bus interconnect architecture. This session begins with a short intro
to the AMBA 3 AXI protocol followed by a deep technical session explaining the
protocol itself and how it enables high-performance, high-bandwidth,
low-latency bus interconnect operation. The presentation leverages the
DesignWare Verification IP to introduce the protocol and provides insight into
jump starting your own AMBA 3 AXI design verification tasks. |
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The Verification Methodology Manual (VMM) for SystemVerilog is an open
verification methodology and library based on Synopsys’ proven Reference
Verification Methodology. This session provides insight into the VMM
methodology and how it helps maximize design quality, promote reuse among
components, and emphasizes a layered, coverage driven, constrained random
verification environment. The session documents the layered architecture,
verification flow and transaction channel objects as defined by the
Verification Methodology Manual for SystemVerilog. |
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Discover how you can effectively design mixed-signal chips, regardless of
design size. Virtuoso AMS Designer is the latest technological break through
that brings the power of behavioral modeling to the IC designer. It tackles the
difficult challenge of converging massive digital designs with precise analog
circuitry and simulating them accurately and quickly, while using
Verilog-AMS/VHDL-AMS languages, Virtuoso Schematic Editor schematics, Assura™
extracted views, timing views from SoC Encounter, and textual descriptions for
NC-Sim. (This demo features custom design products from IC 5.1.41 release). |
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This in-depth demo tours Super-FinSim's
OVI-compliant Verilog compiler, simulation builder,
simulation kernel, and the GUI that drives them. Fintronic's
simulator has established itself as the primary simulator
to fit this paradigm because of its low memory utilization
and its support for 64-bit architectures which allow
it to simulate even the largest circuits on a single
computer. |
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This in-depth demo tours SpeXsim™, Verisity's integration of our flagship
Specman Elite® with our third-generation Xsim® simulator. This package enables
the mainstream engineering community to adopt Verisity's world-class
technology. SpeXsim is offers high performance, out-of-the-box interoperability
and ease of installation. |
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George Zafiropoulos, Ken Mason, Philip deBuren
As part of the Incisive™ verification platform, Palladium II delivers high
performance hardware acceleration and in-circuit emulation. This demonstration
shows how to increase your simulation performance by using three different
simulation acceleration use models (signal-based acceleration,
transaction-based acceleration and embedded-testbench acceleration). It also
shows how you can port your embedded assertions into Palladium II. In addition,
we will show you how Palladium II can get up to 10,000x performance gain and
provide full system verification through in-circuit emulation. Lastly, you will
learn how to connect Palladium II to a real-world environment that is running
at full speed, leveraging Cadence SpeedBridge solutions. |
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Can you cycle-accurately boot a complete operating system and debug concurrently at the hardware and software level? With ZeBu, a hardware-assisted verification platform, you can. This demo walks you through a few HW/SW bugs encountered during the boot of a Linux kernel and web browser application software, and shows how bugs in hardware and software can be isolated, reproduced and fixed faster than ever before. |
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ZeBu is an advanced hardware-assisted verification platform that combines the
best aspects of traditional emulation and rapid prototyping systems into a
single, unified environment for both ASIC/SoC debugging and embedded software
validation. With the high capacity, easy setup and debugging associated with
emulation, and the price/ performance of rapid prototyping, EVE enables both
hardware designers and software developers to collaborate on a common design
representation. |
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This video demonstrates the Certify® solution, a tool for creating ASIC prototypes implemented
in FPGAs, in a three-step process - compiling the design, partitioning the design, and mapping out the FPGAs specified. |
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This whiteboard demonstrates the revolutionary new TotalRecall technology which enables you to debug and verify ASIC/SOC designs, ASSPs, and FPGAs at real hardware speed with full signal and state visibility. |
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This in-depth demo shows how ORINOCO enables you to define the low-power
optimized micro architecture for data-flow dominated blocks in SoCs. Starting
from an algorithm defined in C or SystemC ORINOCO DALE optimizes the micro
architecture of a block for implementation and guides your optimization of the
number of algorithmic resources, memory accesses and allocations, resulting in
the best low-power architecture. |
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Power Management And Low-Power Design Take a seat, have some popcorn, relax, and watch PowerTheater's
unparalleled low-power RTL design and analysis capabilities bring the screen to life. Two thumbs up for its ability
to easily fit into mainstream flows (including the new Novas FSDB interface) while providing design teams with
the means to tame power consumption. |
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imPROVE-HPK is a formal verification tool dedicated to the verification of hardware designs based on standard protocol interfaces
(OCP, Amba AHB, etc). imPROVE-HPK is fully automatic and very easy to set-up and use in any design and verification environment.
The tool automatically creates a complete protocol environment for the design, and then subsequently checks each of the protocol properties
(including functional performance analysis properties) and coverage scenarios. |
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This demo presents the capabilities of 0-In's Assertion-Based Verification
(ABV) Suite, the most complete ABV solution available for finding more bugs
faster in SoC and ASIC designs. |
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The @Verifier suite is the most comprehensive assertion-based verification
product available, supporting both PSL and SystemVerilog. As this demo shows,
the suite includes @Verifier-DP for distributed processing on existing server
farms, and @Verifier-ZX, adding the powerful formal solvers based on IBM
RuleBase technology.
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Improve verification productivity with formal-assertion verification that
provides easy adoption, ease-of-use, and broad assertion support including
SystemVerilog assertions, PSL, OVL, and the Incisive Assertion Library. |
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As the industry’s first sequential equivalence checker, SLEC can verify
block-level designs with differences in sequential and data abstraction. SLEC
provides comprehensive functional verification for designers doing
micro-architectural RTL optimization, such as re-timing, pipelining, and
resource sharing, and engineering teams deploying system-level design flows
including those using behavioral synthesis. |
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Coverability Analysis, an option to TransEDA's VN-Cover coverage analysis tool,
guides designers on the shortest path to full coverage, filtering out
unreachable design parts while enabling users to check if the uncovered
branches are reachable or not. Coverability Analysis is fully integrated into
VN-Cover, running automatically either on all remaining uncovered branches or
on specific ones selected by the user via the GUI. |
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George Zafiropoulos, Ken Mason, Philip deBuren
As part of the Incisive™ verification platform, Palladium II delivers high
performance hardware acceleration and in-circuit emulation. This demonstration
shows how to increase your simulation performance by using three different
simulation acceleration use models (signal-based acceleration,
transaction-based acceleration and embedded-testbench acceleration). It also
shows how you can port your embedded assertions into Palladium II. In addition,
we will show you how Palladium II can get up to 10,000x performance gain and
provide full system verification through in-circuit emulation. Lastly, you will
learn how to connect Palladium II to a real-world environment that is running
at full speed, leveraging Cadence SpeedBridge solutions. |
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Can you cycle-accurately boot a complete operating system and debug concurrently at the hardware and software level? With ZeBu, a hardware-assisted verification platform, you can. This demo walks you through a few HW/SW bugs encountered during the boot of a Linux kernel and web browser application software, and shows how bugs in hardware and software can be isolated, reproduced and fixed faster than ever before. |
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ZeBu is an advanced hardware-assisted verification platform that combines the
best aspects of traditional emulation and rapid prototyping systems into a
single, unified environment for both ASIC/SoC debugging and embedded software
validation. With the high capacity, easy setup and debugging associated with
emulation, and the price/ performance of rapid prototyping, EVE enables both
hardware designers and software developers to collaborate on a common design
representation. |
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HAPS is a modular board system that provides real-time speed, real-time debugging and full ASIC functionality for ASIC prototype designers. The system is composed of stackable multi-FPGA mother boards and one or more standard or custom-made daughter boards. Using HAPS, the ASIC prototype gives designers the same functionality and performance as the ASIC. This presentation describes the HAPS-50-series of mother boards in detail. |
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Functional verification is still the bottleneck in today's chip design process.
The new Hammer families for simulation acceleration and emulation deliver
hundreds of kilohertz run time speeds, combined with the industry's fastest
turn-around times without compromising debug visibility. And, we offer the best
price/performance in the industry. |
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Miss Univers is a complete HW/SW co-verification tool for multi-processor SOC architectures,
offering extensive debug capabilities, fast simulation and emulation support. It includes an RTL simulator
as well as a multi-core IDE with most fascinating debug features and configurable user-friendly graphical user
interface. |
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