Abstract:
A SIM card connector includes an insulating body and a plurality of electric terminals. The insulating body has accepting holes and accepting cavities. The electric terminal has a welded slice, a contact and a fixing portion. The welded slice and the contact are accepted in the accepting hole, the contact projects from the accepting hole. A lump is formed in one side of the fixing portion, the fixing portion accepted in the accepting cavities. While the SIM card connector passes through a SMT apparatus, the insulated body is soften and the lump is against the side wall of the accepting cavities for preventing the holding portion out of the insulated body. Therefore, the SIM card connector is welded firmly in the PCB of a mobile.
Abstract:
Systems and methods for timing-driven shape closure in integrated circuit (“IC”) fabrication are provided. These Integrated Design-Manufacturing Processes (“IDMP”) include a delta flow that integrates information of the IC fabrication timing and geometry verification processes into the IC design. The delta flow is an incremental flow that includes delta-geometry timing prediction processes and/or delta-timing shape prediction processes for processing difference information associated with circuit characterization parameters. The delta flow independently re-characterizes an IC design using the difference or delta information corresponding to the circuit characterization parameters. The delta flow provides delta outputs (incremental) that enhance or re-characterize corresponding parameters of the devices and interconnect structures without the need to generate new circuit characterization parameters and without the need to re-process all information of the IC design.
Abstract:
A method and apparatus for performing an operation on hierarchically described integrated circuit layouts such that the original hierarchy of the layout is maintained is provided. The method comprises providing a hierarchically described layout as a first input and providing a particular set of operating criteria corresponding to the operation to be performed as a second input. The mask operation, which may include operations such as OPC and logical operations such as NOT and OR, is then performed on the layout in accordance with the particular set of operating criteria. A first program data comprising hierarchically configured correction data corresponding to the hierarchically described layout is then generated in response to the layout operation such that if the first program data were applied to the flattened layout an output comprising data representative of the result of performing the operation on the layout would be generated. As the first program data is maintained in a true hierarchical format, layouts which are operated upon in accordance with this method are able to be processed through conventional design rule checkers. Further, this method is capable of being applied to all types of layouts including light and dark field designs and phase shifting layouts.
Abstract:
Phase shifting allows generating very narrow features in a printed features layer. Thus, forming a fabrication layout for a physical design layout having critical features typically includes providing a layout for shifters. Specifically, pairs of shifters can be placed to define critical features, wherein the pairs of shifters conform to predetermined design rules. After placement, phase information for the shifters associated with the set of critical features can be assigned. Complex designs can lead to phase-shift conflicts among shifters in the fabrication layout. An irresolvable conflict can be passed to the design process earlier than in a conventional processes, thereby saving valuable time in the fabrication process for printed circuits.
Abstract:
Systems and methods for timing-driven shape closure in integrated circuit (“IC”) fabrication are provided. These Integrated Design-Manufacturing Processes (“IDMP”) include a delta flow that integrates information of the IC fabrication timing and geometry verification processes into the IC design. The delta flow is an incremental flow that includes delta-geometry timing prediction processes and/or delta-timing shape prediction processes for processing difference information associated with circuit characterization parameters. The delta flow independently re-characterizes an IC design using the difference or delta information corresponding to the circuit characterization parameters. The delta flow provides delta outputs (incremental) that enhance or re-characterize corresponding parameters of the devices and interconnect structures without the need to generate new circuit characterization parameters and without the need to re-process all information of the IC design.
Abstract:
A lithography mask layout is designed and verified incrementally to help reduce the amount of time to produce the mask layout. For one embodiment, a layout defining a target pattern may be processed to produce a mask layout, and the mask layout may be verified to identify errors. Rather than processing and verifying the entire mask layout for error correction over one or more subsequent iterations, sub-layouts having errors may be removed or copied from the mask layout for separate processing and verification. Because the amount of data defining a sub-layout is relatively small, the time to design and verify the mask layout is reduced. The resulting mask layout having one or more processed and verified sub-layout(s) may then be used to manufacture a mask set to help print the target pattern in manufacturing integrated circuits (ICs), for example.
Abstract:
Techniques for forming a design layout with phase-shifted features, such as an integrated circuit layout, include receiving information about a particular phase-shift conflict in a first physical design layout. The information indicates one or more features logically associated with the particular phase-shift conflict. Then the first physical design layout is adjusted based on that information to produce a second design layout. The adjustments rearrange features in a unit of the design layout to collect free space around a selected feature associated with the phase-shift conflict. With these techniques, a unit needing more space for additional shifters can obtain the needed space during the physical design process making the adjustment. The needed space so obtained allows the fabrication design process to avoid or resolve phase conflicts while forming a fabrication layout, such as a mask, for substantiating the design layout in a printed features layer, such as in an actual integrated circuit.
Abstract:
Phase shifting generates features in a printed features layer, such as a printed circuit, that are narrower than the features on a fabrication layout, such as a mask, projected onto the printed features layer using the same optical system without phase shifting. Techniques for forming a fabrication layout for a physical design layout having critical features employing phase shifting include techniques for providing a layout for shifters. The techniques include establishing placement of multiple pairs of shifters for a set of critical features. A critical feature employs phase shifting. The set of critical features constitutes a subset of all critical features in a layout. After establishing placement of the pairs of shifters, phase information for the shifters associated with the set of critical features is assigned. This and related techniques expedite resolving phase-shift conflicts in fabrication layouts for phase-shifted features. Complex designs can lead to phase-shift conflicts among shifters in the fabrication layout. According to these techniques, a conflict that cannot be resolved by a fabrication design process is passed to the design process earlier than in a conventional processes, saving valuable time in the fabrication process for printed circuits.