Azore CFD
Azore is software for computational fluid dynamics. It analyzes fluid flow and heat transfers. CFD allows engineers and scientists to analyze a wide range of fluid mechanics problems, thermal and chemical problems numerically using a computer. Azore can simulate a wide range of fluid dynamics situations, including air, liquids, gases, and particulate-laden flow. Azore is commonly used to model the flow of liquids through a piping or evaluate water velocity profiles around submerged items. Azore can also analyze the flow of gases or air, such as simulating ambient air velocity profiles as they pass around buildings, or investigating the flow, heat transfer, and mechanical equipment inside a room. Azore CFD is able to simulate virtually any incompressible fluid flow model. This includes problems involving conjugate heat transfer, species transport, and steady-state or transient fluid flows.
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Highcharts
Highcharts, a Javascript-based charting library, makes it easy to add interactive charts and graphs to web or mobile projects of any size.
Highcharts is used by more than 80% of the 100 biggest companies in the world, as well as thousands of developers from a variety of industries, including finance, publishing, application development, and data science.
Highcharts is in active development since 2009. It remains a favorite among developers due to its robust feature set and ease-of-use documentation, accessibility features and vibrant community.
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EveryCircuit
An animated circuit can convey more information than a thousand equations and charts combined. By superimposing animations of voltages, currents, and charges directly onto the schematic, users gain profound insights into how the circuit functions. The circuit simulation engine, designed specifically for optimal speed and interactive use, allows for seamless one-click simulations, catering to a wide range of components—from basic resistors and logic gates to intricate transistor-level oscillators and mixed-signal systems. During the simulation, users can manipulate switches, adjust potentiometers, modify LED current limiting resistors, and gradually increase input voltages, with the circuit instantly reflecting these alterations in real time. Distinctive mini-waveforms appear over schematic wires, differentiating between digital and analog signals, where constant analog voltages are displayed numerically and digital wires are color-coded for clarity. Additionally, any two time-domain signals can be illustrated in XY mode, enhancing the analytical capabilities. The oscilloscope's scale and grid ticks automatically adjust to optimal values as the data fluctuates, ensuring precise measurements throughout the simulation process. This dynamic feedback loop creates an engaging and educational experience for users looking to deepen their understanding of circuit behavior.
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PathWave Advanced Design System (ADS)
PathWave ADS streamlines the design process by providing integrated templates that help users start their projects more efficiently. With a comprehensive selection of component libraries, locating the desired parts becomes a straightforward task. The automatic synchronization with layout offers a clear visualization of the physical arrangement while you create schematic designs. This data-driven approach enables teams to assess if their designs are in line with specifications. PathWave ADS enhances design confidence through its display and analytics features, which generate informative graphs, charts, and diagrams. Users can expedite their design process with the help of wizards, design guides, and templates. The complete design workflow encompasses schematic design, layout, as well as circuit, electro-thermal, and electromagnetic simulations. As frequencies and speeds continue to rise in printed circuit boards (PCBs), ensuring signal and power integrity is critical. Issues arising from transmission line effects can lead to electronic device failures. It is essential to model traces, vias, and interconnects accurately for a realistic simulation of the board, ensuring that potential problems are identified and mitigated early in the design phase. This multifaceted approach not only improves efficiency but also enhances the overall reliability of electronic designs.
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