A system and method for automated transfer of a tape segment onto the face of a tissue block to be thin sectioned by microtomy includes applying, to a carrier strip, a plurality of serially-spaced patches of sample tape having an adhesive outer surface, transporting the carrier strip along a path adjacent to and spaced from the exposed sample surface to position one of the patches of sample tape adjacent to and covering the exposed sample surface, adhering the one of the patches of sample tape to the exposed sample surface.

An automated tissue section slicing, staining, and imaging system sequentially adheres tissue sections to a continuous substrate such that the staining, imaging, and interpretation of the tissue sections are readily carried out at high speed under machine control.

An analysis device is described comprising a housing 12, and a carrier 14 within the housing, the carrier 14 including a plurality of individual pockets 18, each pocket 18 containing a stable assay, and a first seal member 20 operable to cover at least one of the pockets 18 to substantially seal the said pocket(s) 18.

A sample support apparatus (150) for use in a spectrometer (285), comprises an elongate support (110) comprising a plurality of receiving portions (112) each configured to receive a respective internal reflection element (IRE) or IRE slide (135), the elongate support having a sample side and a beam side opposite the sample side; and a plurality of IREs or IRE slides (135), each IRE or IRE slide provided at a respective receiving portion (112) of the elongate support (110), wherein each IRE or IRE slide (135) has at least one sample-receiving portion provided on a sample side thereof, and at least one beam-receiving portion provided on a beam side thereof. The sample support apparatus (150) has a stowed configuration, and a deployed configuration configured to allow application of a sample (276) on one or more of the plurality of IREs or IRE slides (135).

The disclosure describes assemblies and systems for use in reel-to-reel imaging of ultrathin samples. The assemblies and the systems disclosed herein are adapted for use with a plurality of detectors and are configured for use in a variety of electron microscopes. Also, methods of using such assemblies and systems are disclosed.

A plurality of accessory components for use in respective reel to reel sectioning, serial sectioning, and array tomography sectioning described herein incorporate mechanical and electro-mechanical engineering to provide accessory tools for attachment to and use with a microtome, as shown in several of the figures of this disclosure.

Control unit (240) and cassette (130) of a milk analysis apparatus (120) comprising a first wireless communication device (210), for communication with a memory device (230) of a cassette (130) via a second wireless communication device (220) comprised in the cassette (130). The cassette (130) is insertable into the milk analysis apparatus (120) and comprises a predetermined number of milk analysis units (260a, 260b, 260c) for one-time usage. The control unit (240) is configured to determine a number of consumed milk analysis units (260a, 260b, 260c) during a milk analysis session; and transmit information related to the consumed number of milk analysis units (260a, 260b, 260c) during the milk analysis session, to the memory device (230) of the cassette (130), via the first wireless communication device (210), for storage in the memory device (230) of the cassette (130).

A detection chip and a detection system are provided. The detection chip includes a sample adding opening and at least one detection branch structure, each of the at least one detection branch structure includes a detection portion, the detection portion includes a detection groove and a reaction reagent, the detection groove is in connection with the sample adding opening, the reaction reagent is contained in the detection groove, and the detection portion is configured to allow optical detection to be performed on the reaction reagent in the detection groove.

A fully-automatic feces analyzer includes an automatic controller; at least one sample box for containing a feces sample; and a sample box support. A dilution and stirring unit is provided for adding diluent into the feces sample and stirring to obtain feces sample liquid. The analyzer has a physical detection unit for performing a physical detection on the feces sample liquid and at least one chemical detection unit for performing a chemical detection on the feces sample liquid. Each chemical detection unit includes a driving roller and a driven roller, a reagent strip roll wound on the driven roller, an end portion of the reagent strip roll fixed on the driving roller.

A fully-automatic feces analyzer includes an automatic controller; at least one sample box for containing a feces sample; and a sample box support. A dilution and stirring unit is provided for adding diluent into the feces sample and stirring to obtain feces sample liquid. The analyzer has a physical detection unit for performing a physical detection on the feces sample liquid and at least one chemical detection unit for performing a chemical detection on the feces sample liquid. Each chemical detection unit includes a driving roller and a driven roller, a reagent strip roll wound on the driven roller, an end portion of the reagent strip roll fixed on the driving roller.