Abstract: A silicon-based thin package substrate is used for packaging semiconductor chips. The silicon-based thin package substrate preferably has a thickness of less than about 200 ?m. A plurality of traces is formed in the silicon-based thin package substrate, connecting BGA balls and solder bumps. A semiconductor chip may be mounted on the solder bumps. The silicon-based thin package substrate may be used as a carrier of semiconductor chips.

Abstract: A universal system for testing different semiconductor devices provides a probe head with a probe pattern that may be used to test different test patterns formed on different semiconductor devices. Each of a plurality of bumps or pads of the test pattern contacts a corresponding probe of the probe head to enable the semiconductor device to be tested. The universal probe head may additionally or alternatively include a substrate design on the probe head that provides a pattern on the substrate of the probe head that may be used in conjunction with different patterns formed on a plurality of different printed circuit boards for testing different semiconductor devices.

Abstract: A silicon-based thin package substrate is used for packaging semiconductor chips. The silicon-based thin package substrate preferably has a thickness of less than about 200 ?m. A plurality of traces is formed in the silicon-based thin package substrate, connecting BGA balls and solder bumps. A semiconductor chip may be mounted on the solder bumps. The silicon-based thin package substrate may be used as a carrier of semiconductor chips.

Abstract: A silicon-based thin package substrate is used for packaging semiconductor chips. The silicon-based thin package substrate preferably has a thickness of less than about 200 ?m. A plurality of traces are formed in the silicon-based thin package substrate, connecting BGA balls and solder bumps. A semiconductor chip may be mounted on the solder bumps. The silicon-based thin package substrate may be used as a carrier of semiconductor chips.

Abstract: A silicon-based thin package substrate is used for packaging semiconductor chips. The silicon-based thin package substrate preferably has a thickness of less than about 200 ?m. A plurality of traces are formed in the silicon-based thin package substrate, connecting BGA balls and solder bumps. A semiconductor chip may be mounted on the solder bumps. The silicon-based thin package substrate may be used as a carrier of semiconductor chips.

Abstract: A silicon-based thin package substrate is used for packaging semiconductor chips. The silicon-based thin package substrate preferably has a thickness of less than about 200 ?m. A plurality of through-hole vias are formed in the silicon-based thin package substrate, connecting BGA balls and solder bumps. The silicon-based thin package substrate may be used as a carrier of semiconductor chips.

Abstract: A universal system for testing different semiconductor devices provides a probe head with a probe pattern that may be used to test different test patterns formed on different semiconductor devices. Each of a plurality of bumps or pads of the test pattern contacts a corresponding probe of the probe head to enable the semiconductor device to be tested. The universal probe head may additionally or alternatively include a substrate design on the probe head that provides a pattern on the substrate of the probe head that may be used in conjunction with different patterns formed on a plurality of different printed circuit boards for testing different semiconductor devices.

Abstract: A silicon-based thin package substrate is used for packaging semiconductor chips. The silicon-based thin package substrate preferably has a thickness of less than about 200 ?m. A plurality of through-hole vias are formed in the silicon-based thin package substrate, connecting BGA balls and solder bumps. The silicon-based thin package substrate may be used as a carrier of semiconductor chips.

Abstract: A computer integrated manufacturing system executes a program process that performs a capacity planning method that allocates usage of a plurality of manufacturing elements of a manufacturing enterprise by major and minor apparatus, squeezing for overhead cost consideration, and site balance for maintain basic operation. The program process begins by receiving at least one fabrication forecast describing scheduling and types of product lots that are predicted to be fabricated within a first period of time by the manufacturing enterprise from at least one order management system of the manufacturing enterprise. Rolling statistics of products lots fabricated during a second period of time are retrieved from a data retention device of the computer integrated manufacturing system. Capacity planning for the allocation of the product lot predicted to be fabricated by the manufacturing elements is performed.

Abstract: A method for monitoring the real-time production operation is disclosed. The used stage time, the used waiting time, and the theoretical remaining processing time is counted. The allowed stage time, the allowed waiting time, and the allowed slack time is also estimated. The critical stage ratio, the critical waiting ratio, and the critical slack ratio are then calculated by the following equations: critical stage ratio=allowed stage time/used stage time; critical slack ratio=allowed slack time/theoretical remaining processing time; critical waiting ratio=allowed waiting time/used waiting time. Thereafter, the status of the lot in a stage is graded according to its critical ratio of stage, slack, and waiting. Color codes are used to indicate the critical degrees. A stage critical degree report including the WIPs and the color codes is tabled to display all the statuses of the stage.