| Tool Logo |
Tool Short Description |
Features |
Applications |
 |

[remove] |
SPT – Schematic Porting Tool
MunEDA SPT Schematic Porting Tool supports designers with an automated schematic migration, replacing cells with corresponding cells in the new library.
Read more...
|
- Automated Schematic Porting – 10-100X faster than manual porting
- Flexible Property Mapping
- Handles MOS, R, C, and other properties
- Walks hierarchically through the schematics
- Automated Shrinking
- Configurable for many source and target processes
|
|
 |

[remove] |
BAS – WiCkeDTM Basic
WiCkeD Basic delivers a powerful basic feature compilation to enable the circuit designer to do enhanced topology analysis, constraint setup and management as well as different analysis types for circuit performance, parameter sensitivity and correlation. WiCkeDTM is fully integrated into standard design environments and using standard industrial simulators.
Read more...
|
- Constraint Management
- Sensitivity Analysis
- Design Parameter Analysis
- Process Parameter Analysis
- Operating Parameter Analysis
- Parameter Sweeps
- Performance Setup
- Graphical User Interface
- Parallel Simulation Interface
|
- Specification Driven Design
- Sensitivity Analysis
- Performance Trade-off Analysis
|
 |

[remove] |
CED – Constraint Editor
The WiCkeD Constraint Editor generates a complete constraint and parameter setup for the circuit analysis and optimization process. Therefore, the Constraint Editor retrieves data from the design environment e.g. directly from the schematic editor or from a netlist.
Read more...
|
- Constraint Editor
- Automated Parameter Setup
- Automatic Parameterization
- Automated Topology Structure Recognition
- Configurable Topology Structure Recognition
- Graphical User Interface
|
- Circuit Topology Analysis
- Circuit Constraints Analysis
- Technology Constraints Analysis
|
 |

[remove] |
NOD – Nominal Diagnosis
NOD enables the user to perform powerful analyses based on typical (nominal) process characteristics. The designer gets insight into dependencies between performances and parameters with very small simulation effort.
Read more...
|
- Analysis of nominal design
- Manual optimization of nominal design
- Parameter influence analysis
- Parameter redundancy analysis
- Constraint limits
- Performance improvements
|
- Nominal Design Analysis
- Trade-off analysis of design parameters and performances
|
 |

[remove] |
SCG – Parameter Screening
With SCG the circuit designer can filter during the design analysis and optimization process parameters with large and low influence on the performances and constraints. This can significantly reduce required simulation efforts.
Read more...
|
- Automated Screening & Masking of design, process, and operation parameters
- Filtering based on sensitivities
- Interactive Filtering
- Automatic Filtering
- Simulation performance improvements
|
- Nominal Design Analysis
- Design Parameter Influence Analysis
- Absolute Parameter Influence
- Relative Parameter Influence
- Reduction of simulation efforts
|
 |

[remove] |
WCO - Worst Case Operation
WCO is a powerful analysis tool that calculates and displays worst-case operating conditions. A special Worst-Case operation algorithm is minimizing/maximizing performances for lower/upper specification.
Read more...
|
- Worst Case Operating Corners
- Calculation of worst-case performance values
- Non-linear performance characteristics
- Circuit Reliability Analysis
- Circuit Robustness Analysis
|
- Calculation of Worst-Case Operating Conditions
- Minimize performance for lower/upper specification
- Maximize performance for lower/upper specification
|
 |

[remove] |
FEA – Feasibility Optimization
FEA enables the circuit designer to automatically optimize the operating point of its design to fulfill all electrical/geometrical constraints. A feasible design represents a first step towards successful circuit optimization.
Read more...
|
- Topology Analysis and Diagnosis
- Constraint fulfillment
- Algorithm Find Closest
- Algorithm Find Central
- Minimum change of constraints
- Maximum over fulfillment of constraints
|
- Topology Functional Analysis
- Feasible Design
- Constraint Handling and Constraint Management
- Initial Design Point Analysis
- Start for Circuit Optimization
|
 |

[remove] |
DNO – Deteministic Nominal Optimization
DNO is a powerful optimization engine for automatic nominal circuit optimization. DNO improves circuit performance values by changing design parameters with unique gradient-based optimization algorithms to perform an automatic performance optimization. DNO is able to fully consider operating conditions and structural constraints on an user-defined and optional base.
Read more...
|
- Parameter-Specification driven
- Least-Square Algorithm
- Parameter Distance Algorithm
- SQP Algorithm
- Consideration of operating conditions
|
- Automatic Performance Optimization
- Automatic Constraint Fulfillment
- Specification Driven Optimization
|
 |

[remove] |
GNO – Global Nominal Optimization
GNO is a state-of-the-art stochastic optimization engine especially for optimization of circuits with non-linear behaviour. This enables to find global maxima and minima of the performance function. MunEDA GNO is able to fully consider operating conditions and structural constraints on an user-defined and optional base.
Read more...
|
- Performance specification bounds
- Parameters to modify
- Genetic Sizing Algorithms
- Adjustable number of iterations
|
- Design Space Exploration
- Find initial sizing
- Find global maxima and minima of the performance function in design space
|
 |

[remove] |
MCA - Monte Carlo Analysis
MCA is one of the most powerful Monte Carlo Analysis tools on the market. Containing numerous tools and features for parametric yield analysis, contributors for yield loss can be detected and eliminated.
Read more...
|
- Parametric Yield Analysis
- Mismatch Analysis
- Influence Analysis of Process Variations
- Contributor Analysis
- Performance distributions
- Means, standard deviations, correlations
- Margin distributions
- Global process information
- Local process information (Matching)
- Scatter plots
- Data export
|
- Variation-aware design analysis
- Variation Design Analysis
- Parametric Yield Analysis
- Mismatch Analysis
- Calculation of standard deviations
|
 |

[remove] |
WCA - Worst Case Analysis
With WCA the circuit designer is able to estimate the worst-case conditions for individual performance specifications. It determines partial and total yields for given specifications on circuit performances.
Read more...
|
- Total yield estimation
- Partial yield estimation
- Consideration of operating conditions
- Consideration of process parameters
- Global process variations
- Local process variations (Mismatch)
- Sensitivity-Based Algorithms
- Evolutionary/Genetic Algorithms
|
- Variation-aware design analysis
- High-Yield Design Analysis
- Mismatch Analysis
- Partial and total yields for given specifications on circuit performance
- Worst Case Analysis
- Robustness Analysis
|
 |

[remove] |
WCD - Worst Case Diagnosis
WCD enables the designers to interactively improve and optimize the robustness for their designs. MunEDA´s unique silicon proven Worst Case Distance methodology also enables the interactive optimization for yield.
Read more...
|
- Specification driven design
- Parametric Yield Analysis
- Interactive Yield Improvement
- Contributor Diagnosis
- Worst Case Distance Algorithms
- Design Parameter Influence
|
- Variation-aware design analysis
- Manual adjustment of a design with consideration of process variations
- Manual design centering
- Analysis of Worst-Case Analysis results
|
 |

[remove] |
MMA - Deterministic Mismatch Analysis
MMA identifies and analyses mismatch-relevant transistor pairs on selected circuit performances. The variance of these local variations will be analyzed based on dependencies of device pair geometries.
Read more...
|
- Mismatch pair detection
- Analysis of matching constraints
- Local process variations influence
- Information for yield optimization
- Fast deterministic algorithms
- Performances by mismatch effects
|
- Variation-aware design analysis
- Mismatch Analysis
- Matching Analysis
- Reliability Analysis
|
 |

[remove] |
YOP - Yield Optimization
YOP is the world´s unique and most powerful tool for automatic performance and yield optimization based on global and local process parameter variations. Active optimization of 6 sigma robustness levels and more are now possible.
Read more...
|
- Automatic Yield Optimization
- 6+ sigma design optimization
- Consideration of operating conditions
- High efficient optimization engines
- Low simulation effort compared to Monte Carlo or Stochastic algorithms
|
- Variation-aware design optimization
- Design Centering
- Yield Optimization
- Robustness Optimization
- Reliability Optimization
|
 |

[remove] |
RSM - Model Generation
RSM generates Response Surface Models of the analyzed circuit. This enables the designer to speed up simulations and therefore the circuit analysis and optimization steps. Furthermore sub-blocks of larger systems can be modeled.
Read more...
|
- Response Surface Modelling
- Model Generation in larger systems
- Different Modeling Types: Polynomial, Radial Basis Functions, ARBI, PolyRBI, a.o.
- Speeding up circuit simulation effort
- Exports models in Verilog-A and VHDL-AMS
|
- Simulation Speed-up
- Large circuit and IP performance and statistical analysis
- Statistical variation analysis based on circuit models
|
 |

[remove] |
SCR - Scripting Interface
SCR is providing a powerful programmable interface to be used with the complete MunEDA tool set for integration of customer-specific algorithms and environments. The scripting feature can also be used to integrate MunEDA modules with other tools or to customize the user interface. Two languages are available for scripting: Tcl and Python. Both are popular scripting languages and are well integrated with MunEDA tools. SCR supports different editors and debuggers.
Read more...
|
- Tcl/Tk
- Phyton
- Matlab
- R / S-Plus
|
- Netlist- and Script-based designflows
- Automated IP Porting Flow
- IP & Library Design
|
 |

[remove] |
SFI - Simulator / Framework, Interface
MunEDA WiCkeD tools are fully integrated in industrial standard design frameworks and SPICE, FastSPICE and behavioral simulators of leading EDA vendors and partners. Find a selection of the main supported designframeworks and simulators below or contact us for further information.
Read more...
Supported EDA Design Frameworks
[Link] Cadence - Virtuoso ADE Analog Design Environment (IC5, IC6-L, XL, GXL)
[Link] Mentor Graphics - Design Architect IC / IC Station
[Link] Synopsys - Custom Designer SE
Supported Simulators / SPICE
[Link] Cadence - Spectre, SpectreRF, UltraSim, MMSIM
[Link] Mentor Graphics - Eldo, EldoRF, AdvanceMS, AdiT
[Link] Synopsys - HSpice, HSIM, NanoSIM, XA
[Link] Berkeley Design Automation - AFS Analog FastSPICE Platform
Verilog-A, VHDL-AMS
Industrial Inhouse Simulators
Waveform Viewer Support
All standard waveform viewers supported from inside WiCkeD
|
- Parallel Simulator Interface
- Designframework Interface
|
 |

[remove] |
MTB - Multi-Testbench Environment
The Multi-Testbench Environment enables the usage of multiple netlists and testbenches in WiCkeD.
Read more...
|
- Usage of multiple netlists, e.g. different testbenches or same netlists with different library corners
- Matching of physically identical instances, including mismatch
- Defining matching properties (matching of design parameters)
- Several analysis of the same type are possible, e.g. three different transient simulations
|
- Multitestbench-analysis
- Multi-Corner-Analysis
- PVT-Corner Analysis
- PVT-Corner Optimization
- Worst-Case Corner Analysis
- Multi-State Design Analysis
|