Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method includes retrieving an interactive datasheet for a product and displaying, on an output device, a first view of the interactive datasheet for the product, including a first section and a second section. The method also includes adjusting, in response to receiving, by an input device of the computing device from a user, a first value of a characteristic of the product to produce a first adjusted characteristic, and updating a model of the product, based on the first value of the characteristic of the product, to produce an updated interactive datasheet for the product. Additionally, the method includes updating the first view of the interactive datasheet for the product displayed on the output device, the first view, based on the updated interactive datasheet for the product and storing, in the memory, the updated interactive datasheet for the product, in response to receiving an indication by the user.

Abstract: A method includes retrieving an interactive datasheet for a product and displaying, on an output device, a first view of the interactive datasheet for the product, including a first section and a second section. The method also includes adjusting, in response to receiving, by an input device of the computing device from a user, a first value of a characteristic of the product to produce a first adjusted characteristic, and updating a model of the product, based on the first value of the characteristic of the product, to produce an updated interactive datasheet for the product. Additionally, the method includes updating the first view of the interactive datasheet for the product displayed on the output device, the first view, based on the updated interactive datasheet for the product and storing, in the memory, the updated interactive datasheet for the product, in response to receiving an indication by the user.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method includes retrieving an interactive datasheet for a product and displaying, on an output device, a first view of the interactive datasheet for the product, including a first section and a second section. The method also includes adjusting, in response to receiving, by an input device of the computing device from a user, a first value of a characteristic of the product, to produce a first adjusted characteristic, and updating a model of the product, based on the first value of the characteristic of the product, to produce an updated interactive datasheet for the product. Additionally, the method includes updating the first view of the interactive datasheet for the product displayed on the output device, the first view, based on the updated interactive datasheet for the product and storing, in the memory, the updated interactive datasheet for the product, in response to receiving an indication by the user.

Abstract: A method includes retrieving an interactive datasheet for a product and displaying, on an output device, a first view of the interactive datasheet for the product, the interactive datasheet including a first section and a second section. The method also includes adjusting, in response to receiving, by an input device of a computing device from a user, a first value of a characteristic of the product, to produce a first adjusted characteristic, and updating a model of the product, based on the first value of the characteristic of the product, to produce an updated interactive datasheet for the product. Additionally, the method includes updating the first view of the interactive datasheet for the product displayed on the output device, the first view, based on the updated interactive datasheet for the product and storing, in the memory, the updated interactive datasheet for the product, in response to receiving an indication by the user.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A method includes retrieving an interactive datasheet for a product and displaying, on an output device, a first view of the interactive datasheet for the product, including a first section and a second section. The method also includes adjusting, in response to receiving, by an input device of the computing device from a user, a first value of a characteristic of the product, to produce a first adjusted characteristic, and updating a model of the product, based on the first value of the characteristic of the product, to produce an updated interactive datasheet for the product. Additionally, the method includes updating the first view of the interactive datasheet for the product displayed on the output device, the first view, based on the updated interactive datasheet for the product and storing, in the memory, the updated interactive datasheet for the product, in response to receiving an indication by the user.

Abstract: A method for compensation network design in a power converter design system is provided that includes computing optimal values for compensation components in a compensation network based on a plurality of loop specifications comprising crossover frequency (Fco), phase margin (PM), Gain Margin (GM), and low frequency gain (LFG), and applying changes to a power converter design comprising the compensation network based on the optimal values.

Abstract: A clock tree design tool is described which receives input from a user via a graphical user interface (GUI) through a first window, the input including an indication of an output clock frequency. The tool also detects selection by the user of a soft control and, as a result of detecting selection of the soft control, generates a plurality of clock tree solutions. The tool further causes a graphical form of a highlighted one of the clock tree solutions to be displayed in a second window of the GUI. An algorithm for generating the various clock tree solutions is also disclosed.

Abstract: A clock tree design tool is described which receives input from a user via a graphical user interface (GUI) through a first window, the input including an indication of an output clock frequency. The tool also detects selection by the user of a soft control and, as a result of detecting selection of the soft control, generates a plurality of clock tree solutions. The tool further causes a graphical form of a highlighted one of the clock tree solutions to be displayed in a second window of the GUI. An algorithm for generating the various clock tree solutions is also disclosed.