98 results about "Lot number" patented technology

A blood glucose meter having a test strip port and an adjustable lancet device disposed at the same end of the device body is disclosed. The device body further includes an enclosure at the proximal end of the device body which houses a test strip storage vial and which facilitates one-handed opening and closing of the vial to simplify access to test strips contained therein. The enclosure is further provided with a window which allows the reading of the lot numbers on the label of the test strip vial therein without necessitating removal of the vial. A data connector is also provided on the device body for communication access, such as to upload data from other devices or to download data to other devices. By combining these multiple components into a single device body, the blood glucose meter requires fewer steps for sampling and testing, and makes device use easier and more convenient.

Sintered, translucent ceramic microbeads, preferably alumina, titania, zirconia, yttria, zirconium phosphate, or yttrium aluminum garnet (YAG) are doped with one or more optically active species. The beads may be added to substances such as explosives in order to create a distinctive optical signature that identifies a manufacturer, lot number, etc. in the event of the need for forensic analysis. Because the beads have a generally spherical surface, the radius of curvature provides an additional distinguishing characteristic by which a particular sample may be identified. The beads could also be formulated into paints if needed to create distinctive optical signatures for camouflage, decoys, or other countermeasures and could also be applied as a dust to track the movement of personnel, vehicles, etc.

The present relates to a system and method for tracking medical products in a two bin per medical product replenishment system. The system and method comprising storing medical product information including lot number and date of receipt, and recording replenishment requests and generated date. The system and method further correlate the date of receipt of the medical product having the particular medical product information with the generated date of recorded replenishment requests to identify probable corresponding replenishment requests. Also, the system and method correlate identified probable corresponding replenishment requests with location information of corresponding RFID tags to determine corresponding probable locations.

A computer-implemented method and system includes capabilities for receiving suspect item definitions (e.g. item serial numbers, lot numbers, operation identifiers, date ranges, etc.) into a computer database, detecting item identifiers in a manufacturing or assembly process, and comparing the item identifiers with the suspect item definitions. If the detected item identifier falls within one of the suspect item definitions, the item is automatically isolated or otherwise rejected from manufacturing or assembly process. Other aspects of the invention include functionality for determining the location of suspect items. Locations may be inferred and off-site. Another aspect includes automatically modifying the manufacturing or assembly process to bypass one or more suspect manufacturing or assembly operations. A plurality of user interfaces are provided for defining, locating and managing suspect items. Suspect item definitions and location information may by broadcast or otherwise communicated to distributed locations (e.g. holding areas, warehouses, etc.).

In a fuse circuit including programmable fuses in a semiconductor integrated circuit, the fuses store specific information related to the semiconductor integrated circuit, such as redundancy information, wafer lot number, die lot number, and die position on the wafer, etc. While a conventional semiconductor integrated circuit utilizes a single fuse for storing one bit of specific information, the fuse circuit in the present invention utilizes a plurality of fuses for storing identical bit information. Consequently, in the case where a fuse has not been cut out correctly, the fuse circuit of the present invention can reduce programming defects, whereby defect generation rates are remarkably decreased.

A semiconductor package with a substrate ID code and its manufacturing method are revealed. A circuit and a solder mask are formed on the bottom surface of a substrate where the solder mask covers most of the circuit and a circuit-free zone of the substrate. A chip is disposed on the top surface of the substrate. A substrate ID code consisting of a plurality of laser marks is inscribed in the solder mask or in a portion of an encapsulant on the bottom surface away from the circuit to show the substrate lot number on the bottom surface. Therefore, quality control and failure tracking and management can easily be implemented by tracking the substrate ID code from the semiconductor package without changing the appearance of the semiconductor package. Furthermore, the substrate ID code can be implemented by the existing laser imprinting machines for semiconductor packaging processes and be formed at the same time of formation of a product code. The complexity of the semiconductor packaging processes is not increased and the circuits of the substrates are not easily damaged.

A donated blood collection kit includes an easy-to-open closed container. Stored within the container are items necessary or useful for collecting donated blood, such as an antiseptic scrub, an antiseptic swab, test tubes, a blood collection container, a gauze pad and a sheet of pre-printed adhesive barcode labels. Each kit is assigned a unique identification when the kit is manufactured. The identification may eventually be used as the unique donor identification for a unit of donated blood that is collected using the items in the kit. The container is pre-labeled with the unique identification, such as by a barcode or an RF-ID tag. The test tubes and, if included, the blood collection container are pre-labeled with the same unique donor identification. The adhesive barcode labels in the container are pre-printed with the same unique donor identification and may be affixed to items that are not provided in the kit but, nonetheless, should be associated with the unit of blood that may be collected using the kit. Information about lot numbers and expiration dates for the items in the kit may be encoded in the kit's unique identification and / or stored in a database in association with the kit's identification.

A method for analyzing in-line QCtest parameters is used to analyze a plurality of lots of products, each lot of products having a lot number and being formed using a plurality of equipments. At least one wafer of each lot of products is tested by at least one in-line QC test item to generate an in-line QC test parameter. The in-line QC test item, a sample test item and a wafer test item related to the in-line QC test item are stored in a database. The database further stores the in-line QC test parameter and data of a plurality of lots of high-yield product stocks, such as various test items and test parameters. The method includes the following steps: analyzing the in-line QC test parameter to determine whether the in-line QC test parameter corresponds to a predetermined spec or not; searching the database to find out the sample test item or the wafer test item related to the in-line QC test item when the in-line QC test parameter does not correspond to the predetermined spec; searching the database to find out the corresponding test parameters of the high-yield product stocks according to the in-line QC test item and the searched sample test item or the wafer test item; and generating a correlation to illustrate the relationship between the in-line QC test item and the sample test item, or the relationship between the in-line QC test item and the wafer test item according to the searched high-yield product stocks.