Abstract: An integrated circuit (IC) chip package assembly apparatus and techniques for assembling IC chip packages are described. For example, a techniques for fabricating an IC package include (A) determining a first package assembly yield (PAY) across a first die pool comprising a first plurality of dies having a performance criteria within a first predefined range; (B) determining a second PAY across a second die pool comprising a second plurality of dies having a performance criteria within a second predefined range of performance criteria that is different than the first predefined range of performance criteria, the second plurality of dies comprising a portion of the first plurality of dies; and (C) generating a final assembly sequence in response to analyzing the first and second PAYs, the final assembly sequence comprising rules for combining dies in accordance with obtaining a higher of the first PAY and the second PAY.

Abstract: A method and a device for handling containers is described, wherein the containers are transported along a predetermined transport path and combined with at least one other product, the amount of which can be determined, in such a way that the product is fed to each individual container in a predetermined feed area of the transport path, wherein the other product is routed along a feed path to the feed area. At least one characterizing state is determined in a detection area disposed upstream relative to the feed area in a direction of transport of the containers, the state being characteristic of a number of containers fed, and a residual amount for the product that remains to be fed to the predetermined feed area until the product is switched is determined as a function of this characteristic state.

Abstract: An apparatus is provided for gathering signatures along a conveying section of a circulating conveyor provided with spaced-apart pushers that are attached to a traction mechanism. The apparatus includes a delivery station adapted for being arranged along the conveying section. The delivery station includes a downward slanted conveying path wherein the signatures are supplied via the downward slanted conveying path from the delivery station to the conveyor approximately in synchronism with movement of the circulating conveyor. The conveying path includes a convex conveying section followed by a concave conveying section in the conveying direction for the signatures.

Abstract: The present invention provides a method and a system for testing RFID tags, which utilizes a way of adjusting the distance between the RFID tags and interrogator or adjusting the power of the interrogator accompanied with a shielding procedure for testing and classifying the RFID tags. By means of the method and the system of the present invention, it is capable of judging the efficacy and good and bad of the RFID tags, while the interrogatable distance of the RFID tags is capable of being tested effectively.

Abstract: A conveyor for shock-sensitive products includes a conveyor member with at least one intermediate storage region adapted to receive a predetermined number of the products placed thereon when the conveyor is a static condition for temporary intermediate storage. A force measuring member determines the weight force of the products in the intermediate storage region. A control member, adapted to increase and decrease the rate of feed of the shock-sensitive products in the conveyor member, processes the weight force detected by the force measuring member as an input parameter, and increases or reduces the rate of feed of the products toward and away from the intermediate storage region as a function of the weight force.

Abstract: A pallet stacking assembly line having at least two pick-and-place robots are used. The first robot has a relatively low position. The second robot is in an elevated position. A pallet dispenser dispenses a first pallet onto a pallet conveyor The pallet conveyor moves the first pallet to a first build position in front of the first robot. The first robot picks products from a first pick position and stacks them on the first pallet. Once the stack of products on the first pallet reach approximately half the finished stack height, the pallet conveyor carries the first pallet to a second build position in front of the second robot. At the same time, the pallet dispenser dispenses a second pallet which is carried to the first build position. The second robot picks products from a second pick position and places them on the upper portion of the stack on the first pallet to complete the stack. Meanwhile, the first robot is picking and placing products on the lower portion of the second pallet.

Abstract: A unit for sorting and packaging products has a conveying line with an endless chain beneath which there are articulated about a vertical axis a plurality of coupling arms equipped with a coupling member for pulling plates equipped with a member for hooking on a product and deployed along a conveying track parallel to and below the conveying line. Along this conveying line there are distributed a plurality of work stations, each having a relief track to which the pulled plates are selectively directed by routing elements, and along which each of the plates is successively uncoupled by automatic pivoting of the coupling arms, is brought into a position of readiness for loading or unloading, and then is recoupled automatically to a coupling arm, and hence reintegrated along the conveying line.

Abstract: Various models of brake parts (products) are produced with a mixedly transferring production system. The mixedly transferring production system includes a top line, a first production line, a second production line, and a third production line, a mixedly transferring depot, a part depot, and a set assembling line, and a product depot (mentioned in order of processing flow). Out of them, the first to third production lines, the mixedly transferring depot form the mixedly transferring block division type of production system. In addition, an averaging post and a production order plate (kanban) sorter are provided (mentioned in order of production command flow).

Abstract: A method for operating an automatic cheese winder, having multiple winding stations (A, B, etc.) and a transportation system (21) for supplying the winding stations with spinning cops (39) and discharging them of empty tubes (40). The spinning cops are furnished by a preceding textile machine (30) having a spinning cop and empty tube transport device (31) communicating with the transportation system (21). The delivery of spinning cops to the winder (25) is continuously monitored by a sensor. A control device (46) of a tube monitor (24) assures that empty tube-equipped transport trays are kept on hand in the transportation system, and the tube monitor via the central control unit (27) initiates a controlled slow-down of the winder (25) into an energy-saving mode. Upon resumption of delivery of the spinning cops, the winder is accelerated from the energy-saving mode to an operating mode.