Abstract:
Systems and methods manually process blood and blood components in sterile, closed environments, which further condition the blood components for subsequent pathogen inactivation processes. The systems and methods mate the manual collection of random donor platelet units with the creation of larger therapeutic doses of platelets targeted to undergo pathogen inactivation prior to long term storage and/or transfusion.
Abstract:
A digital camera module (10) includes a chip package (101) and a lens module (103) mounted on the chip package. The chip package includes a substrate (20), a first chip (40), a second chip (70), and a cover (80). The first chip is mounted on the substrate and is electrically connected with the substrate via a first plurality of wires (50a). The second chip is mounted above the first chip and above the wires connected with the first chip and is electrically connected with the substrate via a second plurality of wires (50b). The cover is mounted above the second chip and the wires connected with the second chip.
Abstract:
A stacked chip packaging structure (10) includes a substrate (20), a first chip (40), a second chip (70), and a cover (80). The first chip is mounted on the substrate and is electrically connected with the substrate via a first plurality of wires (50a). The second chip is mounted above the first chip and above the wires connected with the first chip and is electrically connected with the substrate via a second plurality of wires (50b). The cover is mounted above the second chip and the wires connected with the second chip. The mounting of the second chip and the cover in such a manner is facilitated through the use of an adhesive/glue (60a, 60b) that is able to function both as an adherent and as a spacer.
Abstract:
A dentifrice composition which provides a viscosity of from about 10,000 Pas to about 450,000 Pas comprising; (a) a binder system comprising a hydrophilic clay material, a modified cellulose polymer, a carboxyvinyl polymer and a natural gum derived anionic polymer, (b) an effective amount of an oral care active, and (c) a polar solvent carrier.
Abstract:
An image sensor package method includes the steps of first, providing a carrier (30), which includes a base (24) and a leadframe (320). The base has a cavity therein and the leadframe includes a number of conductive pieces; Second, mounting an image sensor chip on the base and received in the cavity, the image sensor having a photosensitive area. Third, providing a plurality of wires, each electrically connects the image sensor chip and a corresponding one of the conductive pieces of the carrier. Fourth, applying an adhesive means around the image sensor chip that at least partially covers all the wires. Finally, mounting a transparent cover on the carrier, where an adhesive means fixes the cover in place.
Abstract:
A digital camera module includes a barrel (10), a seat (20) and an image sensor chip package (30) in accordance with a preferred embodiment is shown. The image sensor chip package includes a carrier (32), a chip (34), a number of bonding wires (36) and a cover (38). The carrier includes a base (24). The chip is mounted on the base and has an active area. The second conductive means electronically connects the chip and the conductive means. An adhesive means is applied around the active area of the chip. The transparent cover is mounted to the base of the carrier. The cover adheres to the carrier with the adhesive means and defines a sealing space (37) for sealing the active area of the chip therein. The active area of the chip is sufficiently protected from pollution by the small volume of the sealing space.
Abstract:
A chip package (200) includes a carrier (20), a chip (22), a second conductive means (26) and a transparent cover (28). The carrier (20) includes a base (24). The chip is mounted on the base and has an active area (222). The second conductive means electronically connects the chip with the conductive means. The first adhesive means is applied around the active area of the chip. The transparent cover is mounted to the base of the carrier. The cover is adhered with the first adhesive means so as to define a sealing space (32) for sealing the active area of the chip therein. It can be seen that the active area of the chip is sufficiently protected from pollution by the small volume of the sealing space.
Abstract:
An IC chip package includes a substrate (2), a chip (5), a plurality of bonding wires (52), and a cover (6). The substrate has a top surface, a receiving chamber (23) having an opening at the top surface, a plurality of solder pads (3) arranged around the top surface and respectively corresponding to the solder pads arranged at a bottom surface opposite to the top surface, and a plurality of vias (4) having conductive material electrically connecting the top solder pads with the bottom solder pads defined therein. The chip is mounted in the receiving chamber, and has a plurality of chip solder pads (51) arranged around a top surface thereof. The bonding wires respectively electrically connect the top solder pads of the substrate with the chip solder pads. The cover is fastened to the top surface of the substrate, and covers the opening.
Abstract:
The present invention discloses a multi-bit stacked-type non-volatile memory having a spacer-shaped floating gate and a manufacturing method thereof. The manufacturing method includes forming a patterned dielectric layer containing arsenic on a semiconductor substrate, wherein the patterned dielectric layer defines an opening as an active area. A dielectric spacer is formed on a side wall of the patterned dielectric layer and a gate dielectric layer is formed on the semiconductor substrate. A source/drain region is formed by thermal driving method making arsenic diffusion from the patterned dielectric layer into the semiconductor substrate. A spacer-shaped floating gate is formed on the side wall of the dielectric spacer and the gate dielectric layer. An interlayer dielectric layer is formed on the spacer-shaped floating gate. A control gate is formed on the interlayer dielectric layer and fills the opening of the active area.
Abstract:
A biological suspension processing system is disclosed that may include a suspension treatment device for treating one or more components of a biological suspension, a first fluid flow path for introducing a suspension into the treatment device and a second fluid flow path for withdrawing a constituent of the suspension from the device. At least one microelectromechanical (MEM) sensor communicates with one of the fluid flow paths for sensing a selected characteristic of the fluid therewith. The MEM sensor may be located elsewhere, such as on a container or bag and communicate with the interior for sensing a characteristic of the fluid contained therein. A wide variety of characteristics may be sensed, such as flow rate, pH, cell type, cell antigenicity, DNA, viral or bacterial presence, cholesterol, hematocrit, cell concentration, cell count, partial pressure, pathogen presence, or viscosity.