Compare Ansys VeloceRF vs. CPillar

Ansys VeloceRF accelerates the design process by significantly cutting down the time required to synthesize and model intricate spiral devices and transmission lines. Compiling the geometry of inductors or transformers takes just a matter of seconds, while modeling and analyzing them can be completed in just a few minutes. This software seamlessly integrates with top EDA platforms, creating layouts that are ready for tape-out. With Ansys VeloceRF, users can synthesize devices that tightly pack multiple components and lines, resulting in a more efficient silicon floorplan. Furthermore, analyzing the coupling effects among various inductive devices prior to detailed layout can decrease the overall design size and potentially eliminate the need for guard rings. The dimensions of inductors, along with crosstalk between them, can significantly influence the size of the die. Ansys VeloceRF assists in designing smaller devices by applying optimization criteria and geometry constraints, leading to enhanced performance. Additionally, it assesses the coupling between any number of inductors, optimizing both silicon area and inductor performance within the circuit context, ultimately contributing to a more efficient design process. By streamlining these aspects, Ansys VeloceRF empowers engineers to achieve their design goals more effectively.

Conduct a swift and straightforward stability assessment of both surface and underground crown pillars, as well as laminated roof beds, through the utilization of three distinct limit equilibrium analysis techniques: rigid plate, elastic plate, and Voussoir (no tension) plate analysis. Additionally, carry out a probabilistic evaluation to ascertain the likelihood of failure by incorporating statistical distributions to account for variability in factors such as geometry, location of force application, joint and bedding strength, water pressure, external loads, and more. By executing a sensitivity analysis with a variety of values, you can assess how modifications to model parameters impact the factor of safety. The methodology, initially tailored for steeply dipping ore body configurations, allows for the estimation of crown geometry and the classification of stope geometry as either steep or shallow, thus enabling the application of the most relevant empirical relationships to your analysis. This comprehensive approach ensures a robust evaluation of stability across diverse geological conditions.