Here is a list of some of the important updates made to Tempus Timing Signoff Solution and Voltus IC Power Integrity Solution for the 25.1 production release:
Tempus
- Advanced Multi-Input Switching (AMIS) Analysis: The Tempus software now supports advanced multi-input switching (AMIS) analysis. The AMIS analysis can be used in the case of tied-inputs, or inputs switching independently, which can help to address the inaccuracy and pessimism of the derate-based methodology. The Tempus delay-calculation engine supports advanced MIS natively. The advanced MIS is supported in both GBA and PBA modes.
- Voltage threshold skew modeling and analysis: The Tempus software has been enhanced to analyze the effects of voltage threshold (VT) skew in a multi-VT environment. Due to variations in the manufacturing process, the voltage threshold (Vth) of a given Vth class (e.g., SVT, LVT, ULVT) can show some variations that might result in cells of that class operating either faster or slower than the nominal value. Tempus now supports timing analysis that considers the effects of the Vth skew. The Tempus Vth skew analysis automates the process of selecting the Vth permutations that need to be run, which ensures a robust analysis and optimizes the software to run faster and efficiently.
- Inter-Power Domain (IPD) logic checks: Tempus provides an automated way of checking the sanity of IPD implementation to ensure completeness, thereby reducing the design cycle time and computations required for undesirable inter-power domain (IPD) crossings in a design. The Tempus IPD analysis feature runs diagnostics on all the IPD paths and filters out those paths on which checks need to be performed. The concise diagnostic reports present all the details in a simplified format and provide a complete overview of the IPD implementation in a design.
- Design Robustness Analysis (DRA): Tempus supports Design Robustness Analysis (DRA) that calculates the probability of an entire chip meeting timing requirements, instead of relying on the probabilities on individual paths to compute the robustness of a chip. The statistical measure of timing slack for the whole design can also be reported.
- Cell EM analysis: The process of electromigration (EM) can drastically reduce the lifetime of a chip by increasing the resistivity of a metal wire or creating a short circuit between adjacent lines. In addition to the effect of electromigration, the material migration process that occurs in electrical devices and interconnects has a significant impact during the IC design and development phase. The Tempus software now supports the cell electromigration constructs that are used in static timing analysis (STA) and ECO flow, which can help to analyze designs, prevent violations, and prepare a robust design with better reliability.
- Performance and memory improvements: To enhance user experience, the following performance and memory improvements have been made in Tempus:
. Overall runtime for large and complex designs using the DSTA master/client architecture has improved by 30%.
. Memory usage for STA and DSTA clients has improved by 20%. Furthermore, DSTA manager's memory usage has been saved by 30%.
. Reading design constraints:
.. Overall turnaround time has improved by up to 4.5x using advanced algorithms and parallel processing techniques.
.. Supports the multi-threaded architecture for processing multiple path exceptions.
.. Incorporates algorithms for efficient exception merging. This consolidates exceptions, ensuring an accurate set of constraints is applied, thus streamlining the timing analysis process.
.. New parallel property fetching mechanism enables the software to retrieve the property details (such as cell delays or physical attributes) concurrently, vastly speeding up data access.
.. Provides optimal timing updates where the software identifies only the affected paths and incrementally updates their timing.
Certus
- Performance and memory enhancements: The following improvements have been made to enhance performance, optimize memory usage, and provide a better user experience for handling large and complex designs:
. Support for localized disk data caching to retrieve information quickly and speed up the processing time.
. Enhanced algorithms for saving memory and runtime during setup, hold, and power optimizations.
. Improved communication between Certus Manager and Certus Clients.
. Advanced filtering of sub-optimal ECOs.
. Better handling of Multi-Instantiated Module (MIM) partitions.
. Improved turnaround time for setup timing closure, Hold timing closure, and power optimization.
. Support for multi-threading architecture by maximizing resource utilization.
- Support for manual ECO: The Certus software now supports the Manual ECO flow to fix timing, functional or design rule violations in a design after the signoff stages. The non-interactive and interactive modes in Manual ECO perform an automatic netlist sync-up of Certus manager, Certus clients, and Tempus clients. Manual ECO implementation is especially useful in critical design phases, enabling precise and quick fixes, thus minimizing design turnaround time before final signoff.
- For detailed information about Manual ECO, see Certus User Guide
- 3D-IC timing closure with Certus: An increase in the number of signoff corners in a 3D-IC design presents significant challenges for designers. This has impacted systems utilizing heterogeneous integration, where components (die) fabricated with different semiconductor technologies and process nodes are combined. Furthermore, designs characterized by an enormous instance count, where each stacked die includes millions of instances are also affected. To achieve optimal performance and improve PPA (power, performance, and area) of a design, Certus uses the Rapid, Automated Inter-Die Analysis (RAID) technology, which significantly reduces the corner data and turnaround time. The software natively supports heterogeneous technology files through hierarchy and accounts for die assignments and cell detailed placements using the physically-aware mode.
Voltus
- New AI-driven technology for improving chip power integrity: Voltus InsightAI, the industry's first generative AI technology for digital design, has been introduced to help you predict IR drop issues early in the design process, discover their root causes, and then resolve those violations efficiently.
- To support this new technology, the following commands have been introduced:
. get_ir_insight - Performs aggressor IR impact analysis, reports IR drop statistics, supports timing-aware IR drop fixing, and predicts IR drop for ECO changes.
. set_voltus_insight_mode - Configures Voltus InsightAI flow settings, including EIV methods, EIV evaluation windows, and instance-specific thresholds.
. get_voltus_insight_mode - Generates a configuration template based on the loaded design database and power/rail settings.
- Adaptive ramp-up step resolution based on switch net charging: Voltus now dynamically adjusts the voltage step size during power-up analysis based on the wake-up voltage thresholds. During power-up analysis, the tool dynamically refines voltage step resolution based on the charge level of switch nets. When these nets are 70% charged, the step resolution increases by 2X, at 80% charge, it increases by 4X, and at 90% charge, it increases by 8X. This adaptive approach ensures higher accuracy in capturing IR drop and rush current. This improves simulation precision without unnecessary compute overhead.
- Alignment partitioning support for stacked designs: To improve performance in stacked die (3D-IC) designs, the 3D-IC simulation flow now supports aligned partitioning. When multiple dies have regions located at the same (x, y) coordinates, these areas can now be grouped into the same partition. This feature leverages the bump-to-bump mapping relation to calculate the die-to-die relative location. The aligned partitioning feature enables more accurate simulation for designs with a large number of inter-die connections.
- Block power reporting enhanced: You can now generate diverse power analysis reports for specific blocks. With this enhancement, you can view and debug the power consumption issues for a specific block after the power run is complete.
- State-propagation-based vectorless flow improved: The State-Propagation-Based Vectorless flow has been enhanced to support stable scheduling of ICGs and flops. This enablement allows minimal result changes during the ECO stage of the design because only the altered parts of your design will experience changes in the switching activity.
- Ability to merge DDV PGVs: The -merge_ddv_currents parameter has been added to the merge_pg_library command to merge the tap currents from multiple single-voltage DDV PGVs with different voltages to create a single multi-voltage PGV.
Silicon signoff and verification (SSV)encapsulates a set of tools that address a series of electrical and physical signoff and verification steps that designers must perform on their design before tapeout. These steps report errors that require iterative and incremental fixes, also called engineering change orders (ECOs), ensuring the design integrity from an electrical and physical standpoint. All of Cadence's signoff tools or capabilities are integrated in the Virtuoso platform, providing the same capabilities for mixed-signal and custom designs.
Knowledge and Learning
Learn about the latest Cadence offerings and solutions directly from our developers and experts. View interesting videos covering feature demos, troubleshooting information, flow launches, and more.
Cadenceis a pivotal leader in electronic design and computational expertise, using its Intelligent System Design strategy to turn design concepts into reality. Cadence customers are the world's most creative and innovative companies, delivering extraordinary electronic products from chips to boards to systems for the most dynamic market applications.
Сopyright holder \ Distributor:Cadence
Product Name:Silicon Signoff and Verification (SSV)
Version:25.1 ISR2 (25.12.000) Hotfix
Supported Architectures:x86_64
Website Home Page :www.cadence.com
Languages Supported:english
System Requirements:Linux *
Size in archive:13.8 Gb

VC Static Verification Platformoffers next-generation comprehensive Formal Verification solution (VC Formal) and Low Power verification solution (VC LP). This advanced platform centric seamless integration of various static verification applications provides 3-5x better performance and capacity to enable efficient and effective verification of the largest System-on-Chip (SoC) designs. The best-in-class technology has unique offerings in terms of ease-of-use, compatibility with Synopsys DC and ICC for use model and flows, accuracy of results, precise reporting and advanced debug infrastructure.
Learn About VC Formal Apps: Automated Extracted Properties (AEP) | Synopsys
Using formal verification to catch design bugs does not require formal expertise. Synopsys VC Formal AEP app is designed to help designers and verification engineers catch many kinds of design errors by automatically extracting properties in the design.
Synopsys, Inc.is the world leader in electronic design automation (EDA) software for semiconductor design. The company delivers technology-leading semiconductor design and verification platforms and IC manufacturing software products to the global electronics market, enabling the development and production of complex systems-on-chips (SoCs). Synopsys also provides intellectual property and design services to simplify the design process and accelerate time-to-market for its customers. Synopsys is headquartered in Mountain View, California and has offices in more than 60 locations throughout North America, Europe, Japan and Asia.
Сopyright holder \ Distributor:Synopsys
Product Name:VC Static
Version:vX-2025.06 *
Supported Architectures:x86_64
Website Home Page :www.synopsys.com
Languages Supported:english
System Requirements:Linux **
Size in archive:34.0 Gb

impl_vX-2025.06_common.spf.part00
impl_vX-2025.06_common.spf.part01
impl_vX-2025.06_common.spf.part02
impl_vX-2025.06_linux64.spf.part00
impl_vX-2025.06_linux64.spf.part01
vc_static_vX-2025.06_aarch64.spf.part00
vc_static_vX-2025.06_aarch64.spf.part01
vc_static_vX-2025.06_aarch64.spf.part02
vc_static_vX-2025.06_aarch64.spf.part03
vc_static_vX-2025.06_common.spf.part00
vc_static_vX-2025.06_common.spf.part01
vc_static_vX-2025.06_common.spf.part02
vc_static_vX-2025.06_common.spf.part03
vc_static_vX-2025.06_linux64.spf.part00
vc_static_vX-2025.06_linux64.spf.part01
vc_static_vX-2025.06_linux64.spf.part02
vc_static_vX-2025.06_linux64.spf.part03
vc_static_vX-2025.06_linux64.spf.part04
vc_static_vX-2025.06_linux64.spf.part05

TheSynopsys Verdi debug and verification management platformis an all-encompassing solution designed to streamline and enhance your design entry, debug and verification management. With its robust capabilities and connection into the most popular signal database (FSDB), Verdi empowers you to plan, execute and determine coverage of your simulation regressions. Furthermore, Verdi offers world-class debug capabilities to provide you insight into all design and verification flows. Verdi includes powerful AI technology to automate difficult and tedious debug steps and easily navigate diverse and complicated design environments.

Using Verdi for Design Understanding - Searching in Verdi | Synopsys

This video helps Synopsys Verdi users unfamiliar with a design: search instances through the design if the module name is known search signal instances in the source code do a string-based search (like a grep in the design) do a 'One search' which searches across logs, source code and documentation.
Synopsys, Inc.is the world leader in electronic design automation (EDA) software for semiconductor design. The company delivers technology-leading semiconductor design and verification platforms and IC manufacturing software products to the global electronics market, enabling the development and production of complex systems-on-chips (SoCs). Synopsys also provides intellectual property and design services to simplify the design process and accelerate time-to-market for its customers. Synopsys is headquartered in Mountain View, California and has offices in more than 60 locations throughout North America, Europe, Japan and Asia.

Owner:Synopsys, Inc.
Product Name:Verdi
Version:vX-2025.06-SP1 *
Supported Architectures:x86_x64
Website Home Page :www.synopsys.com
Languages Supported:english
System Requirements:Linux **
Size:21.1 Gb

platform names
linux:Red Hat Enterprise Linux WS release 5 (32-bit)
amd64:Red Hat Enterprise Linux WS release 5 (64-bit)
linux64:Red Hat Enterprise Linux WS release 5 (64-bit)
suse32:SUSE LINUX Enterprise Server 11 (32-bit)
suse64:SUSE LINUX Enterprise Server 11 (64-bit)
sparcOS5:SunOS 5.10 (32-bit)
sparc64:SunOS 5.10 (64-bit)
rs6000:AIX 6.1 (32-bit)

Cloud 1.75.1 Release Notes - Release date: February 3, 2026
Bugs fixed
- Deprecated legacy directives in EPC HAProxy configuration – CLOUD-27550
- Updated EPC base OS to AlmaLinux 9.7 – CLOUD-27506

Wolfram Enterprise Private Cloud (EPC) makes the benefits of the Wolfram technology stack available in a centralized enterprise platform. Packaged as a customized virtual machine, EPC provides a full range of functions, features and deployment options to address all the computational needs of your organization: computation, data visualization, data management and security, cloud storage and deployment, and automated and ad hoc reporting.

Developing with Wolfram Enterprise Private Cloud

https://www.youtube.com/embed/wpBkr7V-Sus

When should you choose Wolfram Enterprise Private Cloud (EPC) for an online project and how do you make it work? This talk from Joel Klein covers what you can do with EPC, how EPC compares to other Wolfram products such as the Wolfram Application Server, and how to make the transition from the public Wolfram Cloud. He also reviews recent improvements and future plans.
Wolfram Research is one of the world's most respected computer software and cloud computing companies—as well as a powerhouse of scientific and technical innovation. Founded by Stephen Wolfram in 1987 and as a pioneer in computation and computational knowledge, we have pursued a long-term vision to develop the science, technology and tools to make computation an ever-more-potent force in today's and tomorrow's world.

Owner: Wolfram Research
Product Name: Wolfram Enterprise Private Cloud (EPC)
Version: 1.75.1
Supported Architectures: x86_x64
Website Home Page :

http://www.wolfram.com

Languages Supported: english
System Requirements: Linux *
Size: 24.2 Gb

System Requirements
Wolfram Enterprise Private Cloud (EPC) 1.75.1

Tempus
- Advanced Multi-Input Switching (AMIS) Analysis: The Tempus software now supports advanced multi-input switching (AMIS) analysis. The AMIS analysis can be used in the case of tied-inputs, or inputs switching independently, which can help to address the inaccuracy and pessimism of the derate-based methodology. The Tempus delay-calculation engine supports advanced MIS natively. The advanced MIS is supported in both GBA and PBA modes.
- Voltage threshold skew modeling and analysis: The Tempus software has been enhanced to analyze the effects of voltage threshold (VT) skew in a multi-VT environment. Due to variations in the manufacturing process, the voltage threshold (Vth) of a given Vth class (e.g., SVT, LVT, ULVT) can show some variations that might result in cells of that class operating either faster or slower than the nominal value. Tempus now supports timing analysis that considers the effects of the Vth skew. The Tempus Vth skew analysis automates the process of selecting the Vth permutations that need to be run, which ensures a robust analysis and optimizes the software to run faster and efficiently.
- Inter-Power Domain (IPD) logic checks: Tempus provides an automated way of checking the sanity of IPD implementation to ensure completeness, thereby reducing the design cycle time and computations required for undesirable inter-power domain (IPD) crossings in a design. The Tempus IPD analysis feature runs diagnostics on all the IPD paths and filters out those paths on which checks need to be performed. The concise diagnostic reports present all the details in a simplified format and provide a complete overview of the IPD implementation in a design.
- Design Robustness Analysis (DRA): Tempus supports Design Robustness Analysis (DRA) that calculates the probability of an entire chip meeting timing requirements, instead of relying on the probabilities on individual paths to compute the robustness of a chip. The statistical measure of timing slack for the whole design can also be reported.
- Cell EM analysis: The process of electromigration (EM) can drastically reduce the lifetime of a chip by increasing the resistivity of a metal wire or creating a short circuit between adjacent lines. In addition to the effect of electromigration, the material migration process that occurs in electrical devices and interconnects has a significant impact during the IC design and development phase. The Tempus software now supports the cell electromigration constructs that are used in static timing analysis (STA) and ECO flow, which can help to analyze designs, prevent violations, and prepare a robust design with better reliability.
- Performance and memory improvements: To enhance user experience, the following performance and memory improvements have been made in Tempus:
. Overall runtime for large and complex designs using the DSTA master/client architecture has improved by 30%.
. Memory usage for STA and DSTA clients has improved by 20%. Furthermore, DSTA manager's memory usage has been saved by 30%.
. Reading design constraints:
.. Overall turnaround time has improved by up to 4.5x using advanced algorithms and parallel processing techniques.
.. Supports the multi-threaded architecture for processing multiple path exceptions.
.. Incorporates algorithms for efficient exception merging. This consolidates exceptions, ensuring an accurate set of constraints is applied, thus streamlining the timing analysis process.
.. New parallel property fetching mechanism enables the software to retrieve the property details (such as cell delays or physical attributes) concurrently, vastly speeding up data access.
.. Provides optimal timing updates where the software identifies only the affected paths and incrementally updates their timing.
Certus
- Performance and memory enhancements: The following improvements have been made to enhance performance, optimize memory usage, and provide a better user experience for handling large and complex designs:
. Support for localized disk data caching to retrieve information quickly and speed up the processing time.
. Enhanced algorithms for saving memory and runtime during setup, hold, and power optimizations.
. Improved communication between Certus Manager and Certus Clients.
. Advanced filtering of sub-optimal ECOs.
. Better handling of Multi-Instantiated Module (MIM) partitions.
. Improved turnaround time for setup timing closure, Hold timing closure, and power optimization.
. Support for multi-threading architecture by maximizing resource utilization.
- Support for manual ECO: The Certus software now supports the Manual ECO flow to fix timing, functional or design rule violations in a design after the signoff stages. The non-interactive and interactive modes in Manual ECO perform an automatic netlist sync-up of Certus manager, Certus clients, and Tempus clients. Manual ECO implementation is especially useful in critical design phases, enabling precise and quick fixes, thus minimizing design turnaround time before final signoff.
- For detailed information about Manual ECO, see Certus User Guide
- 3D-IC timing closure with Certus: An increase in the number of signoff corners in a 3D-IC design presents significant challenges for designers. This has impacted systems utilizing heterogeneous integration, where components (die) fabricated with different semiconductor technologies and process nodes are combined. Furthermore, designs characterized by an enormous instance count, where each stacked die includes millions of instances are also affected. To achieve optimal performance and improve PPA (power, performance, and area) of a design, Certus uses the Rapid, Automated Inter-Die Analysis (RAID) technology, which significantly reduces the corner data and turnaround time. The software natively supports heterogeneous technology files through hierarchy and accounts for die assignments and cell detailed placements using the physically-aware mode.
Voltus
- New AI-driven technology for improving chip power integrity: Voltus InsightAI, the industry's first generative AI technology for digital design, has been introduced to help you predict IR drop issues early in the design process, discover their root causes, and then resolve those violations efficiently.
- To support this new technology, the following commands have been introduced:
. get_ir_insight - Performs aggressor IR impact analysis, reports IR drop statistics, supports timing-aware IR drop fixing, and predicts IR drop for ECO changes.
. set_voltus_insight_mode - Configures Voltus InsightAI flow settings, including EIV methods, EIV evaluation windows, and instance-specific thresholds.
. get_voltus_insight_mode - Generates a configuration template based on the loaded design database and power/rail settings.
- Adaptive ramp-up step resolution based on switch net charging: Voltus now dynamically adjusts the voltage step size during power-up analysis based on the wake-up voltage thresholds. During power-up analysis, the tool dynamically refines voltage step resolution based on the charge level of switch nets. When these nets are 70% charged, the step resolution increases by 2X, at 80% charge, it increases by 4X, and at 90% charge, it increases by 8X. This adaptive approach ensures higher accuracy in capturing IR drop and rush current. This improves simulation precision without unnecessary compute overhead.
- Alignment partitioning support for stacked designs: To improve performance in stacked die (3D-IC) designs, the 3D-IC simulation flow now supports aligned partitioning. When multiple dies have regions located at the same (x, y) coordinates, these areas can now be grouped into the same partition. This feature leverages the bump-to-bump mapping relation to calculate the die-to-die relative location. The aligned partitioning feature enables more accurate simulation for designs with a large number of inter-die connections.
- Block power reporting enhanced: You can now generate diverse power analysis reports for specific blocks. With this enhancement, you can view and debug the power consumption issues for a specific block after the power run is complete.
- State-propagation-based vectorless flow improved: The State-Propagation-Based Vectorless flow has been enhanced to support stable scheduling of ICGs and flops. This enablement allows minimal result changes during the ECO stage of the design because only the altered parts of your design will experience changes in the switching activity.
- Ability to merge DDV PGVs: The -merge_ddv_currents parameter has been added to the merge_pg_library command to merge the tap currents from multiple single-voltage DDV PGVs with different voltages to create a single multi-voltage PGV.
Silicon signoff and verification (SSV)encapsulates a set of tools that address a series of electrical and physical signoff and verification steps that designers must perform on their design before tapeout. These steps report errors that require iterative and incremental fixes, also called engineering change orders (ECOs), ensuring the design integrity from an electrical and physical standpoint. All of Cadence's signoff tools or capabilities are integrated in the Virtuoso platform, providing the same capabilities for mixed-signal and custom designs.
Knowledge and Learning
Learn about the latest Cadence offerings and solutions directly from our developers and experts. View interesting videos covering feature demos, troubleshooting information, flow launches, and more.
Cadenceis a pivotal leader in electronic design and computational expertise, using its Intelligent System Design strategy to turn design concepts into reality. Cadence customers are the world's most creative and innovative companies, delivering extraordinary electronic products from chips to boards to systems for the most dynamic market applications.
Owner:Cadence
Product Name:Silicon Signoff and Verification (SSV)
Version:25.1 (25.10.000) Base Release
Supported Architectures:x86_64
Website Home Page :

www.cadence.com

Languages Supported:english
System Requirements:Linux *
Size:13.6 Gb

Key Features of Cadence QUANTUS 23.11:
- Next-generation parasitic extraction tool for digital and custom/analog flows
- Massively parallel architecture for improved runtime across hundreds of CPUs
- High-accuracy modeling engine, silicon-proven for thousands of tapeouts
- Unified, foundry-qualified "qrctechfile" for both digital and transistor extraction
- Robust 3D modeling framework certified by TSMC and all leading foundries down to 3nm
- Cloud-ready 3D field solver for faster and scalable parasitic extraction

Why Choose Cadence QUANTUS:
Cadence QUANTUS ensures accurate and fast parasitic extraction, crucial for high-performance chip design. It allows designers to meet tight timing, power, and area targets while supporting advanced process nodes and complex designs. Its massively parallel architecture and cloud readiness make it suitable for both enterprise and research-grade design environments.

System Requirements:
- Operating System: Windows/Linux (64-bit)
- CPU: Multi-core processor recommended
- RAM: 16 GB or more
- Storage: 2.5 GB free disk space
- Network: Optional for cloud computing and distributed runs

About Cadence:
Cadence Design Systems, Inc. is a global leader in electronic design automation (EDA), providing software, hardware, and IP to accelerate the development of complex electronic systems. Cadence solutions power the world's most innovative companies, from chips to boards to full systems.

http://peeplink.in/11497b045d44

Owner:Cadence
Product Name:Quantus Extraction Solution
Version:23.11 (23.11.000) HF001
Supported Architectures:x86_64
Website Home Page :www.cadence.com
Languages Supported:english
System Requirements:Linux *
Size:2.2 Gb

What Is Synthesis in EDA?
In Electronic Design Automation (EDA), synthesis is the automated process of converting Register Transfer Level (RTL) descriptions into a technology-mapped gate-level netlist. This process ensures that the abstract design intent is accurately translated into hardware that can be physically manufactured on a semiconductor chip.

Key Benefits of Synopsys Synthesis Tools
- Advanced optimization for performance, power consumption, and area
- Seamless support for ASIC and FPGA design
- Early insight into design quality and timing closure
- Industry-standard language support: Verilog, SystemVerilog, VHDL
- Faster convergence from concept to tape-out

As semiconductor technology nodes shrink and designs grow more complex, logic synthesis plays an increasingly critical role. Synopsys Core Synthesis Tools help engineering teams achieve aggressive timing goals, reduce power usage, and improve manufacturability—making them ideal for high-performance computing, AI, automotive, and low-power SoC designs.

Why Choose Synopsys Core Synthesis Tools?
By adopting Synopsys synthesis software, design teams can accelerate development cycles, improve design reliability, and deliver competitive silicon solutions for today's demanding electronics market.

Synopsys, Inc. is the global leader in electronic design automation (EDA) software, providing industry-leading tools for semiconductor design, verification, and IC manufacturing. Synopsys solutions power the development of advanced Systems-on-Chip (SoCs) used worldwide.



Owner:Synopsys Inc.
Product Name:Core Synthesis Tools
Version:W 2024.09 SP1
Supported Architectures:x86_64
Website Home Page :

www.synopsys.com

Languages Supported:english
System Requirements:Linux *
Size:6.8 Gb

What's New in Cadence DDI System 25.11.001
Recent releases have focused on deep interoperability between Genus, Joules, and Innovus. Advanced capabilities such as iSpatial, Physical Restructuring, Power Replay, and Smart XOR are now seamlessly accessible through a single installation, improving productivity and design consistency across the entire RTL-to-GDSII flow.

Innovus Implementation System
Innovus is a massively parallel physical implementation system designed to deliver high-quality digital designs with competitive PPA targets. It accelerates time-to-market while maintaining tight correlation across synthesis, placement, routing, and signoff stages. Innovus is a core component of the Cadence digital design platform and supports advanced nodes and large-scale SoC designs.

Genus Synthesis Solution
Genus is a next-generation RTL and physical synthesis solution that provides up to a tenfold improvement in RTL productivity and up to five times faster turnaround time. It supports designs exceeding ten million instances and delivers tight timing and wirelength correlation within five percent of place-and-route results. Genus also reduces synthesis iterations and enables significant datapath area optimization without compromising performance.

Cadence Joules RTL Power Solution
Joules addresses the long-standing challenge of accurate RTL power estimation by providing time-based power analysis with system-level capacity. It delivers high-quality power estimates based on real implementation technology and ensures consistent power analysis from RTL through physical design. Joules integrates seamlessly with Cadence Palladium emulation platforms and the Stratus High-Level Synthesis platform for early-stage power optimization.

Why Choose Cadence DDI System
Cadence DDI System enables design teams to work within a single, cohesive environment that bridges synthesis, power analysis, and physical implementation. This unified approach improves accuracy, reduces design iterations, and ensures predictable results across all design stages.

Owner: Cadence
Product Name: Digital Design Implementation (DDI) System
Version: 25.11.001-ISR1
Supported Architectures: x86_64
Languages Supported: English
Operating System: Linux
Official Website: www.cadence.com
Size: 27.5 GB

Products Included in DDI 25.11
Innovus – Version 25.11
Genus – Version 25.11
Joules Studio – Version 25.11

http://peeplink.in/b615f21698d5