Abstract: Process equipment for the separation of gluten from wheat starch including gluten process equipment configured to process gluten after the gluten is initially separated from a starch, the gluten processing equipment having a dewatering press configured to dewater gluten and modified gluten process equipment including at least one component selected from the group of a high pressure water wash system located upstream of the dewatering press, a kneader located upstream of the dewatering press, a homogenizer located upstream of the dewatering press, a dispersion tank configured to precipitate fines downstream of the dewatering press, a solids-ejecting centrifuge downstream, and combinations thereof.

Abstract: Process equipment for the separation of gluten from wheat starch including gluten process equipment configured to process gluten after the gluten is initially separated from A starch, the gluten processing equipment having a dewatering press configured to dewater gluten and modified gluten process equipment including at least one component selected from the group having a high pressure water wash system located upstream of the dewatering press, a kneader located upstream of the dewatering press, a homogenizer located upstream of the dewatering press, a dispersion tank configured to precipitate fines downstream of the dewatering press, a solids-ejecting centrifuge downstream, and combinations thereof.

Abstract: Pregelatinized forms of chemically modified resistant starches are provided which have a high degree of resistance to ?-amylase digestion, fat-like texture and outstanding freeze-thaw stability. The starch products are formed as distarch phosphodiesters that undergo melting of the crystalline phase by heating above their gelatinization temperature. The products maintain a granular morphology that produces a smooth texture. The pregelatinized resistant starches may be used in various food products, where they lend high dietary fiber, low fat and/or low calorie characteristics to the product.

Abstract: Process equipment for the separation of gluten from wheat starch including gluten process equipment configured to process gluten after the gluten is initially separated from A starch, the gluten processing equipment having a dewatering press configured to dewater gluten and modified gluten process equipment including at least one component selected from the group consisting of a high pressure water wash system located upstream of the dewatering press, a kneader located upstream of the dewatering press, a homogenizer located upstream of the dewatering press, a dispersion tank configured to precipitate fines downstream of the dewatering press, a solids-ejecting centrifuge downstream, and combinations thereof.

Abstract: A laser beam is shaped by eclisping it with a mask of desired shape. The shaped beam is used to drill a hole corresponding to the shape of the beam.

Abstract: A gas turbine engine component includes a wall portion with at least one compound cooling hole formed therein between an external surface of the component and an interior plenum. The at least one compound cooling hole includes a non-circular diffuser opening formed by a laser beam with a non-circular cross-sectional area, and a channel with a substantially circular cross-section connecting the diffuser opening and the interior plenum. The channel is also formed by the non-circular laser beam in the same laser drilling operation as the diffuser opening. The cooling hole further includes a transition point at which the compound hole begins to convert from a substantially non-circular cross-section to a substantially circular cross-section. The location of the transition point is controlled by positioning a focal point of the non-circular laser beam to undershoot the external surface of the component by a predetermined distance.

Abstract: A bag machine is disclosed wherein bags are supplied from a bag holder such as a bag magazine to a multi-station bag filler whereat they are filled and are then supplied to a bag closer which closes and seals the filled bag. The multi-station bag filler is shown with four stations with bags being supplied to a bag pickup station therein from the bag closer. The bag filler includes a frame rotating on a base with gripper hands carried on arm means. The gripper hands grip face-to-face over the two top corners of a bag in the pickup station. A motor is provided to index the frame into the four different stations with a second station being a bag opening station whereat the gripper hands move toward each other and move upwardly to move the opened bag up onto an openable spout. A third station is a bag-filling station whereat material is delivered from a hopper via the spout to the opened bag. The fourth station is a bag-discharge station to the closer-sealer.

Abstract: The openable end of a collapsed bag is aligned in an alignment station on the base of the bag aligner machine. The bag is removed from a bag pickup station by a pick-off arm and moved to a preliminary position. At this point the bag is transferred to a bag holder which moves upwardly relative to the base to move the openable end of the bag into a bag-edge locator. This locator includes first and second alignment members which are interconnected in generally a V configuration and the bag openable edge is moved by a first motor into the open V end between the first and second alignment members to abut the closed V end under the urging of the first motor and additional urging of resilient means. This positively locates the edge of the bag so that it may be subsequently gripped, opened and then filled at a subsequent filling station.