Abstract: A method and system for tracking and identifying food products as they are being processed is disclosed, wherein no tags or encodings are attached to the food products, and wherein there is no extraneous manipulation of the food products. The tracking system of the present invention utilizes sensor input from substantially any sensor capable of detecting a food product in some manner. That is, the tracking system uses binary detect/no detect inputs for determining whether a food product can be identified at each sensor along a predetermined path. Thus, given that a food product has been identified at a particular sensor, the tracking system generates an hypothesis indicative of when the food product is expected to be at the next sensor along the predetermined path. Accordingly, if the next sensor detects a food product within an allotted window, then the food product detected is assumed to be the one to which the hypothesis applies.

Abstract: A meat slicing apparatus is disclosed, wherein the apparatus is capable of high-speed slicing of meat having large skeletal bones therein. The apparatus has a blade composed of a steel alloy that is approximately 5 to 10 times greater in compression strength than typical steel. The blade has an involute shape for withstanding the stresses incurred when slicing through bones having compression near that of steel, e.g., pork loin bones. The meat slicer includes a mechanism for securing a position of a meat section to be sliced so that the meat section stays in place during a slicing process, thereby reducing the risk of misalignment of the meat section with the blade. Thus, without such misalignments, there is a reduction in blade failures, shattered bones, bone fragments, and bone dust. Also, the securing mechanism reciprocates between securing the meat section for slicing and releasing it sufficiently for indexing toward the blade between slicing operations.