Abstract: A method of fabricating a suspended structure. First, a substrate including a photoresist layer hardened by heat is provided. Subsequently, the hardened photoresist layer is etched so as to turn the photoresist layer into a predetermined edge profile. Thereafter, a structure layer is formed on parts of the substrate and parts of the photoresist layer. Next, a dry etching process is performed so as to remove the photoresist layer, and to turn the structure layer into a suspended structure.

Abstract: A method of performing a double-sided process is provided. First, a wafer having a structural pattern disposed on the front surface is provided. Following that, a plurality of front scribe lines are defined on the structural pattern, and a filling layer is filled into the front scribe lines. Subsequently, the structural pattern is bonded to a carrier wafer with a bonding layer, and a plurality of back scribe lines are defined on the back surface of the wafer. Finally, the filling layer filled in the front scribe lines is removed.

Abstract: First, a device wafer having a substrate layer and a device layer is provided. Then, a first mask pattern is utilized to remove the device layer uncovered by the first mask pattern. Subsequently, a medium layer is formed on the surface of the device wafer, and the medium layer is then bonded to a carrier wafer. Thereafter, a second mask pattern is utilized to remove the substrate layer uncovered by the second mask pattern. Finally, the medium layer is separated from the carrier wafer, the substrate layer is bonded to an extendable film, and the medium layer is then removed.

Abstract: A wafer, having at least a spindle region and at least two through regions alongside the spindle region, is provided. The wafer in the spindle region is partially removed from the bottom surface. Thereafter, the bottom surface is bonded to a carrier with a bonding layer, and the wafer in the through regions is completely removed from the top surface.

Abstract: A wafer is provided and a front scribe line pattern is defined on a front surface of the wafer. A back scribe line pattern corresponding to the front scribe line pattern is defined on a back surface of the wafer. Then the wafer is attached to an extendable film and a wafer breaking process is performed to form a plurality of dies by virtue by extending the extendable film.

Abstract: The present invention provides a connecting module having at least one passive component including a substrate, a connecting wire layout, at least one passive component and a chip-setting area, wherein the connecting wire layout is formed on the substrate, the passive components are formed on the connecting wire layout to electrically connect to the connecting wire layout. The chip-setting areas are formed in the substrate locating at different areas from the connecting wire layout, wherein the size of the passive components can be adjusted to match the needed impedance, and the numbers and the location of the chip-setting areas can be adjusted dynamically for reducing the dimension of the module.

Abstract: The present invention provides a Wafer Level Chip Scale Packaging structure including a die, at least one passive component, a combining layer, an isolating layer, at least one connecting wire, an internal pad and a passivation layer. The die includes a shallow connecting pad, an internal pad and an electrical component. The passive component is formed on one side of the die. The combining layer increases the binding force between the passive component and the die. The part surface on the other side of the die is overlaid with the isolation layer. The part surface of the isolation layer and the internal pad is overlaid with the connecting wire to electrically connect to the internal pad, and the passivation layer is used for protecting the die.

Abstract: A method of performing a double-sided process is provided. First, a wafer having a structural pattern disposed on the front surface is provided. Following that, a plurality of front scribe lines are defined on the structural pattern, and a filling layer is filled into the front scribe lines. Subsequently, the structural pattern is bonded to a carrier wafer with a bonding layer, and a plurality of back scribe lines are defined on the back surface of the wafer. Finally, the filling layer filled in the front scribe lines is removed.

Abstract: A method of fabricating a pressure sensor. An SOI wafer having a single crystalline silicon layer, an insulating layer and a silicon substrate is provided. The single crystalline silicon layer has a pressure sensing device. The silicon substrate and the insulating layer corresponding to the pressure sensing device are removed to form a cavity. A bonding substrate is adhered to the silicon substrate with a bonding layer.

Abstract: A first wafer is provided, and a photosensitive masking-and-bonding pattern is formed on the surface of the first wafer. Then, an etching process using the photosensitive masking-and-bonding pattern as a hard mask is performed to form a wafer pattern on the surface of the first wafer. Finally, the first wafer is bonded to a second wafer with the photosensitive masking-and-bonding pattern.

Abstract: A method of thinning a wafer. A wafer having a front surface and a back surface is provided. Subsequently, a carrier wafer is provided, and the back surface of the wafer is bonded to the carrier wafer with a bonding medium. Following that, a wafer thinning process is performed to thin the wafer from the front surface. Finally, the bonding medium is removed so as to separate the wafer from the carrier wafer.

Abstract: First, a device wafer having a substrate layer and a device layer is provided. Then, a first mask pattern is utilized to remove the device layer uncovered by the first mask pattern. Subsequently, a medium layer is formed on the surface of the device wafer, and the medium layer is then bonded to a carrier wafer. Thereafter, a second mask pattern is utilized to remove the substrate layer uncovered by the second mask pattern. Finally, the medium layer is separated from the carrier wafer, the substrate layer is bonded to an extendable film, and the medium layer is then removed.

Abstract: A method of segmenting a wafer. A device wafer is provided, and a medium layer is formed on the upper surface of the device wafer. Then, a carrier wafer is provided, and the medium layer is mounted on the surface of the carrier wafer. Subsequently, a segment process is performed to form a plurality of dies, and meanwhile these dies are mounted on the medium layer. Thereafter, the carrier wafer is departed from the medium layer, the dies are bonded to an extendable film, and the medium layer is removed.

Abstract: A method of etching cavities having different aspect ratios. An etching stop layer is formed on the bottom surface of a substrate, and a mask pattern is formed on the top surface of the substrate. The mask pattern includes a plurality of sacrificial patterns positioned on both a first cavity predetermined region and a second cavity predetermined region. Then, an etching process is performed to remove the substrate not covered by the mask layer. Then, the etching stop layer is removed, as well as the sacrificial patterns and the substrate covered by the sacrificial patterns.

Abstract: A short-prevented lead frame and a method for fabricating a semiconductor package with the lead frame are proposed, wherein each lead of the lead frame is formed with a thickness-reduced portion at a peripheral position of the lead frame, allowing thickness-reduced portions of adjacent leads to be arranged in a stagger manner. This stagger arrangement significantly increases pitches between the neighboring thickness-reduced portions of leads. Therefore, during a singulation process as to cut through the leads, lead bridging and short-circuiting between adjacent leads caused by cut-side burrs can be prevented from occurrence, whereby singulation quality and product yield and reliability are effectively improved.

Abstract: A first wafer is provided, and a photosensitive masking-and-bonding pattern is formed on the surface of the first wafer. Then, an etching process using the photosensitive masking-and-bonding pattern as a hard mask is performed to form a wafer pattern on the surface of the first wafer. Finally, the first wafer is bonded to a second wafer with the photosensitive masking-and-bonding pattern.

Abstract: A method of forming a wafer backside interconnecting wire includes forming a mask layer on the back surface, the mask layer including at least an opening corresponding to the bonding pad, performing a first etching process from the back surface to remove the wafer unprotected by the mask layer to form a recess, removing the mask layer, and forming an interconnecting wire on the back surface.

Abstract: A method of forming a wafer backside interconnecting wire includes forming a mask layer on the back surface, the mask layer including at least an opening corresponding to the bonding pad, performing a first etching process from the back surface to remove the wafer unprotected by the mask layer to form a recess, removing the mask layer, and forming an interconnecting wire on the back surface.

Abstract: A wafer supported by a carrier is provided where a bonding layer and an extendable film are disposed in between the carrier and the wafer. Then, a photoresist pattern is formed on a surface of the wafer to define scribe lines of the wafer. Following that, an anisotropic etching process is performed to remove the wafer uncovered by the photoresist pattern to form a plurality of dies. Finally the bonding layer is separated from the carrier.

Abstract: A wafer, having at least a spindle region and at least two through regions alongside the spindle region, is provided. The wafer in the spindle region is partially removed from the bottom surface. Thereafter, the bottom surface is bonded to a carrier with a bonding layer, and the wafer in the through regions is completely removed from the top surface.