Abstract: An apparatus for reducing facial exposure to airborne germs a UV-C light generator housed within a support housing and a UV-C output array mounted on headgear in an orientation to bathe a face of a person wearing the headgear with UV-C light. A fibre optic cable connects the UV-C generator with the UV-C output array, such that UV-C light generated by the UV-C light generator passes through the fibre optic cable to the UV-C output array.

Abstract: A hardware description language (HDL) design structure for performing device-specific testing and acquiring parametric data on integrated circuits, such that each chip can be tested individually without excessive test time requirements, additional silicon, or special test equipment. The HDL design structure includes a functional representation of at least one device test structure integrated into an IC design which tests a set of dummy devices that are identical or nearly identical to a selected set of devices contained in the IC. The test structures are integrated from a device under test (DUT) library according to customer requirements and design requirements. The functional representations of selected test structures are further prioritized and assigned to design elements within the design in order of priority. Placement algorithms use design, layout, and manufacturing requirements to place the selected functional representations of test structures into the final layout of the design.

Abstract: A system and method for performing device-specific testing and acquiring parametric data on integrated circuits, for example ASICs, such that each chip is tested individually without excessive test time requirements, additional silicon, or special test equipment. The testing system includes a device test structure integrated into unused backfill space in an IC design which tests a set of dummy devices that are identical to a selected set of devices contained in the IC. The device test structures are selected from a library according to customer requirements and design requirements. The selected test structures are further prioritized and assigned to design elements within the design in order of priority. Placement algorithms use design, layout, and manufacturing requirements to place the selected test structures into the final layout of the design to be manufactured.

Abstract: A design structure instantiated in a machine readable medium; the design structure includes all of the necessary information for designing a test circuit. The test circuit is used for performing device-specific testing and acquiring parametric data on integrated circuits, for example ASICs, such that each chip is tested individually without excessive test time requirements, additional silicon, or special test equipment. The design structure includes at least one test circuit and may be integrated into an IC design, along with all of the required manufacturing data for producing a final design structure. The final design structure may be in the form of a GDS storage medium or another form of medium suitable for sending the final data structure to, for example, a manufacturer, foundry, customer, or other design house.

Abstract: A system and method for performing device-specific testing and acquiring parametric data on integrated circuits, for example ASICs, such that each chip is tested individually without excessive test time requirements, additional silicon, or special test equipment. The testing system includes a device test structure integrated into an IC design which tests a set of dummy devices that are identical or nearly identical to a selected set of devices contained in the IC. The test structures are built from a device under test (DUT) library according to customer requirements and design requirements. The selected test structures are further prioritized and assigned to design elements within the design in order of priority. Placement algorithms use design, layout, and manufacturing requirements to place the selected test structures into the final layout of the design to be manufactured.

Abstract: A design structure instantiated in a machine readable medium; the design structure includes all of the necessary information for designing a test circuit. The test circuit is used for performing device-specific testing and acquiring parametric data on integrated circuits, for example ASICs, such that each chip is tested individually without excessive test time requirements, additional silicon, or special test equipment. The design structure includes at least one test circuit and may be integrated into an IC design, along with all of the required manufacturing data for producing a final design structure. The final design structure may be in the form of a GDS storage medium or another form of medium suitable for sending the final data structure to, for example, a manufacturer, foundry, customer, or other design house.

Abstract: A system and method for performing device-specific testing and acquiring parametric data on integrated circuits, for example ASICs, such that each chip is tested individually without excessive test time requirements, additional silicon, or special test equipment. The testing system includes a device test structure integrated into unused backfill space in an IC design which tests a set of dummy devices that are identical to a selected set of devices contained in the IC. The device test structures are selected from a library according to customer requirements and design requirements. The selected test structures are further prioritized and assigned to design elements within the design in order of priority. Placement algorithms use design, layout, and manufacturing requirements to place the selected test structures into the final layout of the design to be manufactured.

Abstract: A method in a computer-aided design system for generating a functional design model of a test structure. The test structure is used for performing device-specific testing and acquiring parametric data on integrated circuits, such that each chip generated from the functional design model is tested individually without excessive test time requirements, additional silicon, or special test equipment. The method includes a functional representation of a device test structure integrated into an IC design which tests a set of dummy devices that are identical or nearly identical to a selected set of functional representations of devices contained in the IC. The test structures are integrated from a device under test (DUT) library according to customer requirements and design requirements. The selected test structures are further prioritized and assigned to design elements within the design in order of priority.

Abstract: A hardware description language (HDL) design structure for performing device-specific testing and acquiring parametric data on integrated circuits, such that each chip can be tested individually without excessive test time requirements, additional silicon, or special test equipment. The HDL design structure includes a functional representation of at least one device test structure integrated into an IC design which tests a set of dummy devices that are identical or nearly identical to a selected set of devices contained in the IC. The test structures are integrated from a device under test (DUT) library according to customer requirements and design requirements. The functional representations of selected test structures are further prioritized and assigned to design elements within the design in order of priority. Placement algorithms use design, layout, and manufacturing requirements to place the selected functional representations of test structures into the final layout of the design.