Cypress Semiconductor Corporation

Intermec IP Corporation

The Boeing Company

Kenneth Y Ogami

Marat Zhaksilikov

Doug Anderson

Matthew A Pleis

Andrew Best

Douglas H Anderson

Manfred Bartz

Steve Roe

Frederick Redding Hood

Warren S Snyder

Jon Pearson

Frederick R Hood, Iii

John McDonald

Dinesh Maheshwari

Mark E Hastings

Jeffrey Mark Hunt

Jon R Ramberg

James T Katsandres

Dean A Gahagan

Rick Hood

Mathew A Pleis

A method and system of automatically generating source code for configuring a programmable microcontroller. The method involves displaying virtual blocks in a computerized design system where the virtual blocks correspond to programmable circuit blocks in a microcontroller chip. The user selects a user module that defines a particular function to be performed on the microcontroller. The user assigns the virtual blocks to the user module. The design system then automatically generates source code for configuring the programmable blocks to perform the desired function. The source code can then be assembled, linked and loaded into the microcontroller's memory system. When executed on the microcontroller, the executable code will then set registers within the blocks to implement the function. Source code is automatically generated for: (1) realizing the user module in a hardware resource; and also (2) to configure the user module to behave in a prescribed manner.

System providing automatic source code generation for personalization and parameterization of user modules

An example includes accessing multiple configurations stored in a memory, where each configuration is associated with a corresponding circuit function implementable by an electronic device and associated with a corresponding set of resources of the electronic device. The example includes determining that one or more sets of resources of the electronic device are available for use by one or more configurations of the multiple configurations. Based on the determination, an embodiment includes representing a first configuration of the one or more configurations, using a graphical interface, and generating instructions that when executed cause the electronic device to be configured according the first configurations.

Techniques for generating microcontroller configuration information

Target device monitoring systems and methods are presented. In one embodiment, a host emulation target device control method includes receiving high level express interface direction to change a design element value. The design element values are associated with an operating target device. Design element values corresponding to the direction are created. The design element values are also forwarded to the operating target device in real time.

System and method for controlling a target device

In one embodiment, a method for supporting multivariable functions of an application includes receiving user input pertaining to two or more variables associated with a multivariable function of the application, and then causing code for the function to be automatically generated to update the variables based on the user input.

Multivariable transfer functions

A method of generating an application programming interface (API) for an electronic circuit. A graphical user interface is displayed through which a user can initiate generation of the API. A component is selected from a plurality of components for placement in said electronic circuit. The component represents an implementable function in the electronic circuit. The component is configured using the graphical user interface. The data pertaining to the selected component and the configuration of the component is stored. The graphical user interface is utilized to access the stored data. The interface is initiated to invoke a processing of said data which causes a generation of the application programming interface. The application interface is for controlling the function of the component in said electronic circuit.

Automatic API generation to functional PSoC blocks

Power management architectures, methods and systems for programmable integrated circuit are disclosed. One embodiment of the present invention pertains to a power management software architecture which comprises power management modules each associated with a respective driver. Each driver is associated with a component of a programmable integrated circuit and displayable as a graphic image within an on-screen display of an integrated circuit design tool for programming the programmable integrated circuit. In addition, each power management module is operable to report power consumption data customized to its respective driver. The power management software architecture also comprises a power source module associated with a power source for the programmable integrated circuit for reporting power supply characteristics. Furthermore, the power management software architecture comprises a global power management module operable to control a power state of the programmable integrated circuit based on communication with the power management modules and the power source module.

Power management architecture, method and configuration system

A design tool provides global resource conflict management. The design tool identifies a conflict in requested values of a global resource during development of an embedded application. The design tool further calculates new values of the global resource, and proposes the new values of the global resource as an alternative to the requested values to assist a user in resolution of the conflict.

Global resource conflict management for an embedded application design

A method and apparatus for configuring a microcontroller. An XML description of the microcontroller's hardware resources may be accessed. A user may select from available hardware resources and pre-defined user modules to select a configuration. Configuration information, which may include register bit patterns and microprocessor instructions, may be automatically generated. Additionally, application programming interface calls and structure, as well as interrupt vector tables may be automatically generated.

Target device monitoring systems and methods are presented. In one embodiment, a target device monitoring update method includes receiving a change in design element value in real time, wherein the design element values are associated with an operating target device. The changes in the design element value are analyzed. Express interface information is updated in accordance with results of the analyzing.

System and method for monitoring a target device

A design tool provides a conflict management graphical user interface (GUI). The conflict management GUI notifies a user that requested values of a global resource result in a conflict during development of an embedded application. The conflict management GUI further provides the user with a user interface element to adjust the requested values until the conflict is resolved.

Global parameter management graphical user interface (GUI) for embedded application design

In one embodiment, an application design method includes identifying one or more application objects selected by a user when designing an application and identifying dependencies associated with the selected objects. The method further includes duplicating the selected objects and the associated dependencies. In another embodiment, the one or more objects comprise at least one of a valuator, an input and an output.

Application element group operations allowing duplication while preserving interdependent logic

A design tool provides interactive graphical pin assignment. In one embodiment, the design tool identifies layout restrictions of a configurable processing device that includes a plurality of pins. The design tool further provides an interactive visual representation of a pin assignment that accommodates the layout restrictions and a user input.

Interactive graphical pin assignment

A graphical user interface for tuning a programmable device comprises a first on-screen window comprising a representation of a target apparatus, wherein the target apparatus comprises the programmable device, and a second on-screen window configured to appear in response to a selection of a graphical element associated with the representation of the target apparatus, wherein the second on-screen window comprises graphical user interface (GUI) display elements representing a plurality of parameter values presently controlling operation of a device corresponding to the selected graphical element. The second on-screen window is further configured to accept a modification of at least one of the plurality of parameter values via the GUI display elements, initiate communication of the modification to the programmable device, and in response to implementing the modification in the programmable device, display operational results of the device as modified by the modification.

Systems and methods for dynamically reconfiguring a programmable system on a chip

A processing device programming system automatically provides a user interface comprising a selectable list of one or more processing devices based on a system level solution, automatically generates an embedded programmable system solution from the system level solution and a processing device selected from the selectable list of one or more processing devices, and automatically programs the processing device according to the embedded programmable system solution.

Model for a hardware device-independent method of defining embedded firmware for programmable systems

Embodiments for an interface, system and method enabling dynamic reconfiguration of an electronic device are disclosed. The interface enables operations, such as adding or deleting a device configuration and switching between different device configuration views/workspaces. In some embodiments, the system and method apply global device parameter values to each device configuration and/or allow only valid or legal states for device configurations beyond the first configuration. In another embodiment, the electronic device includes a microprocessor, a plurality of internal peripherals, an interconnecting component, an external coupling port, and a memory for storing instructions. The plurality of internal peripherals, the interconnecting component and the external coupling port are programmably configurable to perform a variety of functions. The instructions stored by the memory facilitate dynamic reconfiguration of the electronic device. Based upon the existence of a predetermined condition, the electronic device is automatically reconfigured by activating different configuration images.

Growing community of inventors

Bothell, WA, United States of America

Kenneth Y Ogami