A food product slicing apparatus includes a frame and upper and lower drive assemblies. The upper drive assembly includes a belt configured to engage an upper surface of a food product block to be sliced, a plate pivotally mounted to the frame, front and rear wheels supporting the upper belt, the front wheel rotatably mounted to the plate and a drive member engaged with the plate. When the drive member is engaged, the plate and the front roller pivot relative to the frame and to the rear wheel. The lower drive assembly includes a belt configured to engage a bottom surface of the food product block.

A food log slicing apparatus includes a base, a frame mounted on the base, a loaf tray, a drive assembly, a shear bar and a slicing station mounted on the frame. The loaf tray and the shear bar are divided into a plurality of side-by-side lanes, each of which are configured to receive multiple food logs stacked in a column. Each lane has a base wall on which a lowest one of the food logs rests which is angled relative to horizontal ground. The drive assembly moves the food logs from the loaf tray to the shear bar and into the slicing station. The slicing station has a driven blade which is parallel to a planar downstream face of the shear bar, and cuts all of the food logs as the blade passes through the food logs.

A food product slicing apparatus includes a frame and upper and lower drive assemblies. The upper drive assembly includes a belt configured to engage an upper surface of a food product block to be sliced, a plate pivotally mounted to the frame, front and rear wheels supporting the upper belt, the front wheel rotatably mounted to the plate and a drive member engaged with the plate. When the drive member is engaged, the plate and the front roller pivot relative to the frame and to the rear wheel. The lower drive assembly includes a belt configured to engage a bottom surface of the food product block.

A food log slicing apparatus includes a base, a frame mounted on the base, a loaf tray, a drive assembly, a shear bar and a slicing station mounted on the frame. The loaf tray and the shear bar are divided into a plurality of side-by-side lanes, each of which are configured to receive multiple food logs stacked in a column. Each lane has a base wall on which a lowest one of the food logs rests which is angled relative to horizontal ground. The drive assembly moves the food logs from the loaf tray to the shear bar and into the slicing station. The slicing station has a driven blade which is parallel to a planar downstream face of the shear bar, and cuts all of the food logs as the blade passes through the food logs.

A thin-slice manufacturing device is a thin-slice manufacturing device for cutting an embedding block in which a biological sample is embedded by paraffin using a cutting blade relatively moved with respect to the embedding block along a virtual plane to cut out thin slices, the thin-slice manufacturing device includes a vertical illumination part configured to radiate light to the embedding block, and an inclination estimation part configured to detect a boundary line between a cutting surface cut along the virtual plane and a non-cutting surface based on reflection of light generated by the light radiated to the embedding block by the vertical illumination part, and estimate inclination information showing information related to inclination of the embedding block based on the detected boundary line.

An apparatus for slicing food products includes a product feed and an interleaver. The product feed is operable to supply products to a cutting plane in a plurality of tracks running in parallel next to one another. At least one cutting blade is moved in the cutting plane. The interleaver has a conveying device for each track that is operable to convey a front end region of an interleaved sheet material web through the cutting plane in each track to provide the front end region in the respective track as an interleaved sheet between cut-off product layers. The interleaver is operable individually per track and each conveying device is configured such that it conveys the respective front end region of the respective interleaved sheet material web through the cutting plane individually per track in dependence on an angular position of the cutting blade.

A slicing device includes a cutting blade, a support, an endless belt, and a gripper. The cutting blade separates slices from a front end of a food product. The endless belt conveys the food product in a direction of a cutting blade and/or presses the food product against the support. The gripper is arranged on the endless belt so that the gripper is conveyed in a direction of a rear end of the food product to grip the rear end of the food product. A position of the gripper is moveable in a direction of the support. The endless belt includes a first portion and a second portion. The first portion is arranged closer to the cutting blade than the second portion. The first portion is arranged generally parallel to the support, and the second portion is arranged at an angle relative to the first portion.