Abstract: Rotors formed by an additive manufacturing process are presented. In one example, a method of making a rotor is presented including defining a printing order for the application of a first material, and creating a plurality of lobes arranged helically about a central opening or a shaft by adding a first material in the printing order, wherein each of the plurality of lobes defines an outer surface.

Abstract: Rotors formed by an additive manufacturing process are presented. In one example, a method of making a rotor is presented including defining a printing order for the application of a first material, and creating a plurality of lobes arranged helically about a central opening or a shaft by adding a first material in the printing order, wherein each of the plurality of lobes defines an outer surface.

Abstract: A method of treating, tuning, assembling, and/or overhauling a twin rotor device includes applying a coating material on an internal set of working surfaces of the twin rotor device when at least partially assembled. The coating may be factory or field applied to a new or used twin rotor device. The working surfaces may be uncoated or previously coated and may be built-up as the coating material forms a coating on at least some of the working surfaces. Manufacturing variations of a pair of rotors and a housing may be compensated by the coating. One or more performance characteristics of the twin rotor device may be improved by the coating, and variation between a series of twin rotor device may be reduced or substantially eliminated. The coating may reduce internal leakage and increase volumetric efficiency of the twin rotor device. The twin rotor device may be a supercharger 200, a screw compressor 1200, or other twin rotor device.

Abstract: A system comprises a server computing device comprising a processor and a memory. The memory stores instructions executable by the processor to receive data from one or more devices in a customer premises indicative of a physical state of an occupant of the customer premises; apply one or more predictive models to the data from the customer premises to correlate output from one or more predictive models to an occupant condition; and actuate an action based on output of applying the one or more predictive models.

Abstract: A method of treating, tuning, assembling, and/or overhauling a twin rotor device (200, 1200) includes applying a coating material (102) on an internal set of working surfaces (218, 222, 224, 226, 228, 1218, 1222, 1224, 1226, 1228) of the twin rotor device when at least partially assembled. The coating may be factory or field applied to a new or used twin rotor device. The working surfaces may be uncoated or previously coated and may be built-up as the coating material forms a coating (206, 1206) on at least some of the working surfaces. Manufacturing variations of a pair of rotors (220, 1220) and a housing (210, 1210) may be compensated by the coating. One or more performance characteristics of the twin rotor device may be improved by the coating, and variation between a series of twin rotor device may be reduced or substantially eliminated. The coating may reduce internal leakage and increase volumetric efficiency of the twin rotor device.

Abstract: Rotors formed by an additive manufacturing process are presented. In one example, a method of making a rotor is presented including defining a printing order for the application of a first material, and creating a plurality of lobes arranged helically about a central opening or a shaft by adding a first material in the printing order, wherein each of the plurality of lobes defines an outer surface.

Abstract: A method of treating, tuning, assembling, and/or overhauling a twin rotor device (200, 1200) includes applying a coating material (102) on an internal set of working surfaces (218, 222, 224, 226, 228, 1218, 1222, 1224, 1226, 1228) of the twin rotor device when at least partially assembled. The coating may be factory or field applied to a new or used twin rotor device. The working surfaces may be uncoated or previously coated and may be built-up as the coating material forms a coating (206, 1206) on at least some of the working surfaces. Manufacturing variations of a pair of rotors (220, 1220) and a housing (210, 1210) may be compensated by the coating. One or more performance characteristics of the twin rotor device may be improved by the coating, and variation between a series of twin rotor device may be reduced or substantially eliminated. The coating may reduce internal leakage and increase volumetric efficiency of the twin rotor device.

Abstract: A system including a device with at least one processor and memory storing computer-executable instructions that, when executed by the at least one processor, perform a method of identifying glycopeptides in a sample, the method including, analyzing a mass spectrum of the sample to identify at least one portion of the mass spectrum having at least one characteristic of mass spectra indicative of presence of glycopeptides, identifying the glycopeptides in the sample based on the at least one identified portion; and analyzing at least one glycopeptide of the identified glycopeptides.

Abstract: Optical encoding of a cuvette or other object is provided by means of multiple facets molded integrally into flanges or other portions of the object, which facets selectively refract light passing therethrough in accordance with a predetermined code. The detector for the coded light includes a separate detector for each code state of the facets, with the detector having a different output when no facets are between a light source and the detectors. The facets are preferably bevels, which are selectively angled in accordance with the code.

Abstract: A cuvette suitable for use with photometric blood testing apparatus and the like. The cuvette includes a receptacle having flanges on either side having locating holes therein. The flanges are flexible to enhance the positioning of the cuvette. Single and dual cuvette embodiments are described.The invention additionally includes means for encoding a cuvette for optical detection thereof by means of multiple facets which reflect light passing therethrough molded integrally in the flanges.

Abstract: An automatic fluid sampling transport system for use in fields such as atomic absorption spectroscopy and liquid chromatography. The system described provides for circular tray sampling having an increased through-put capacity. This is accomplished by providing a system which allows the sampling of vials in concentric circles on the same carousel. The mechanism described synchronizes the raising and lowering of the sample probe to the incremental, rotational movement of the carousel and the rotational movement of the probe carrying means between successive sample vials in the various concentric circles. The mechanism is relatively simple and is adaptable to provide a plurality of such concentric circles of openings to expand the through-put capability of the system.