摘要:
In one embodiment, a dielectric layer (144, 156) overlying a semiconductor substrate (28) is uniformly polished. During polishing, the perimeter (32) of the semiconductor substrate (28) overlies a peripheral region (16, 48, 66, 86, 120) of a polishing pad (6, 42, 60, 80, 100) and an edge portion (36) of the front surface of semiconductor substrate (28) is not in contact with the front surface (18, 50, 68, 88, 122) of the polishing pad (6, 42, 60, 80, 100), in the peripheral region (16, 48, 66, 86, 120). As a result, the polishing rate at the edge portion (36) of the semiconductor substrate (28) is reduced, and the semiconductor substrate (28) is polished with improved center to edge uniformity. Since the semiconductor substrate (28) is polished with improved center to edge uniformity, die yield is increased because die located within the edge portion (36) of the semiconductor substrate (28) are not over polished.
摘要:
In one embodiment, a semiconductor substrate (38) is uniformly polished using a polishing pad (16) that has a first polishing region (26), a second polishing region (28), and a third polishing region (30). The semiconductor substrate (38) is aligned to the polishing pad (16), such that the center of the semiconductor substrate (38) overlies the second polishing region (28), and the edge of the semiconductor substrate overlies the first polishing region (26) and the third polishing region (30). During polishing, the semiconductor substrate (38) is not radially oscillated over the surface of the polishing pad, and as a result a more uniform polishing rate is achieved across the semiconductor substrate (38). This allows the semiconductor substrate (38) to be uniformly polished from center to edge, and increases die yield because die located on the semiconductor substrate (38) are not over polished.
摘要:
In one embodiment, a dielectric layer (144, 156) overlying a semiconductor substrate (28) is uniformly polished. During polishing, the perimeter (32) of the semiconductor substrate (28) overlies a peripheral region (16, 48, 66, 86, 120) of a polishing pad (6, 42, 60, 80, 100) and an edge portion (36) of the front surface of semiconductor substrate (28) is not in contact with the front surface (18, 50, 68, 88, 122) of the polishing pad (6, 42, 60, 80, 100), in the peripheral region (16, 48, 66, 86, 120). As a result, the polishing rate at the edge portion (36) of the semiconductor substrate (28) is reduced, and the semiconductor substrate (28) is polished with improved center to edge uniformity. Since the semiconductor substrate (28) is polished with improved center to edge uniformity, die yield is increased because die located within the edge portion (36) of the semiconductor substrate (28) are not over polished.
摘要:
In one embodiment, a semiconductor substrate (38) is uniformly polished using a polishing pad (16) that has a first polishing region (26), a second polishing region (28), and a third polishing region (30). The semiconductor substrate (38) is aligned to the polishing pad (16), such that the center of the semiconductor substrate (38) overlies the second polishing region (28), and the edge of the semiconductor substrate overlies the first polishing region (26) and the third polishing region (30). During polishing, the semiconductor substrate (38) is not radially oscillated over the surface of the polishing pad, and as a result a more uniform polishing rate is achieved across the semiconductor substrate (38). This allows the semiconductor substrate (38) to be uniformly polished from center to edge, and increases die yield because die located on the semiconductor substrate (38) are not over polished.
摘要:
FIG. 1 is a front, top perspective view of a switch portable dock showing my new design. FIG. 2 is a front view thereof; FIG. 3 is a rear view thereof; FIG. 4 is a left side view thereof; FIG. 5 is a right side view thereof; FIG. 6 is a top view thereof; FIG. 7 is a bottom view thereof; FIG. 8 is a rear, bottom perspective view; and, FIG. 9 is a front perspective view thereof, showing the switch portable dock in an open state of use. The broken lines in the drawings depict portions of the switch portable dock that form no part of the claimed design.
摘要:
An example device includes a U-shaped body to be placed around a guide on which a scanner carriage is to be guided. A fixed leg of the U-shaped body is attached to a linearly translatable scanner carriage. A free leg of the U-shaped body is not attached to the scanner carriage and has inward facing ribs. The ribs on the free leg of the U-shaped body are positioned to come into contact with the guide to align the scanner carriage with the guide.
摘要:
Methods and systems are provided for improved data packet transmission in a network bridge. Separate data packets received from a plurality of automation components are aggregated into a single data packet stream. The data packet stream is transmitted to another network node, for example, another network bridge.
摘要:
The present invention provides a clock and data recovery circuit, including an n-phase clock, a sampling and edge detection unit, an edge determination unit, a clock picking unit and a data picking unit. The sampling and edge detection unit performs spaced sampling on the input serial data using the n-phase clock, and performs edge detection and resampling on the sampled data. The edge determination unit filters the resampled data by the counting units, and obtains the positions of the edges of the serial data according to the counting result of the counting units. The clock picking unit selects a clock from the n clocks that is the farthest away from the edges as the recovered clock. The data picking unit obtains the recovered data according to the recovered clock. The present invention also provides a parallel output circuit.
摘要:
Storage class memory may be used in an architecture to achieve high performance, high reliability, high compatibility. In some embodiments, reads may be handled in a conventional way used in a memory based model. However writes do not use a memory based model but instead correspond to a storage based model. The hybrid nature can be achieved by setting the storage class memory to be write protected so that all writes must go through a software based block device interface. In some embodiments, the software based block device interface prevents erroneous writes to the storage class memory.
摘要:
Disclosed is a control method for a digital ink-jet printing device to carry out multicolor ink-jet printing on an intermittent rotary printing device. The method includes: determining whether a current page is the first page; if yes, calculating a length of an image to be printed on the current page by subtracting a distance between an imaging component group and a reference from a length of a page, wherein the reference is the foremost printing imaging component group in a movement direction of a printed body, and acquiring image data of the current page, the length of which is the calculated length, after delaying the distance; if no, acquiring unprinted image data of a previous page, the length of which is the distance, and image data of the current page, the length of which is the calculated length.