Abstract: One or more embodiments are directed to a microfluidic assembly that includes an interconnect substrate coupled to a microfluidic die. In one embodiment, the microfluidic die includes a ledge with a plurality of bond pads. The microfluidic assembly further includes an interconnect substrate having an end resting on the ledge proximate the bond pads. In another embodiment, the interconnect substrate abuts a side surface of the ledge or is located proximate the ledge. Conductive elements couple the microfluidic die to contacts of the interconnect substrate. Encapsulant is located over the conductive elements, the bond pads, the contacts.

Abstract: One or more embodiments are directed to a microfluidic assembly that includes an interconnect substrate coupled to a microfluidic die. In one embodiment, the microfluidic die includes a ledge with a plurality of bond pads. The microfluidic assembly further includes an interconnect substrate having an end resting on the ledge proximate the bond pads. In another embodiment, the interconnect substrate abuts a side surface of the ledge or is located proximate the ledge. Conductive elements couple the microfluidic die to contacts of the interconnect substrate. Encapsulant is located over the conductive elements, the bond pads, the contacts.

Abstract: One or more embodiments are directed to a microfluidic assembly that includes an interconnect substrate coupled to a microfluidic die. In one embodiment, the microfluidic die includes a ledge with a plurality of bond pads. The microfluidic assembly further includes an interconnect substrate having an end resting on the ledge proximate the bond pads. In another embodiment, the interconnect substrate abuts a side surface of the ledge or is located proximate the ledge. Conductive elements couple the microfluidic die to contacts of the interconnect substrate. Encapsulant is located over the conductive elements, the bond pads, the contacts.

Abstract: One or more embodiments are directed to a microfluidic assembly that includes an interconnect substrate coupled to a microfluidic die. In one embodiment, the microfluidic die includes a ledge with a plurality of bond pads. The microfluidic assembly further includes an interconnect substrate having an end resting on the ledge proximate the bond pads. In another embodiment, the interconnect substrate abuts a side surface of the ledge or is located proximate the ledge. Conductive elements couple the microfluidic die to contacts of the interconnect substrate. Encapsulant is located over the conductive elements, the bond pads, the contacts.

Abstract: A semiconductor device carrier tape with image sensor detectable dimples is disclosed. The dimpled carrier tape is formed of a flexible strip of material. A plurality of pockets are disposed spaced apart along the length of the flexible strip of material. Each pocket is configured to hold a semiconductor device. A dimple is formed in each of the plurality of pockets where each dimple has a peripheral edge and a bottom surface. Detection of the dimple by an image sensor facilitates alignment of a semiconductor device with the pocket and precise placement of the semiconductor device in the pocket.

Abstract: A semiconductor device carrier tape with image sensor detectable dimples is disclosed. The dimpled carrier tape is formed of a flexible strip of material. A plurality of pockets are disposed spaced apart along the length of the flexible strip of material. Each pocket is configured to hold a semiconductor device. A dimple is formed in each of the plurality of pockets where each dimple has a peripheral edge and a bottom surface. Detection of the dimple by an image sensor facilitates alignment of a semiconductor device with the pocket and precise placement of the semiconductor device in the pocket.

Abstract: One embodiment discloses a method for soldering a cap for an integrated electronic device to a support layer, including the steps of: providing a support layer; providing a cap including a core of a first material and a coating layer of a second material, the first and second material being respectively wettable and non-wettable with respect to a solder, the coating layer being arranged so as to expose a surface of the core; coupling the cap with the support layer; and soldering the surface of the core to the support layer, by means of the solder.