mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a container configured to receive a food stuff; a base unit comprising a mounting member and a plurality of outer supporting members ; a weight sensing unit configured to measure a weight of the food stuff contained at the container, the weight sensing unit comprising a plurality of strain gauge load sensors arranged at the mounting member of the base unit; and a connection assembly arranged between the container and the base unit, characterized in that the connection assembly is configured to provide a flexible and insulating connection between the container and the weight sensing unit so as to counteract thermal strain interference at the weight sensing unit and to reduce heat transfer between the container and the weight sensing unit, the connection assembly being configured to flexibly connect the container and the base unit such as to bring a line of gravity of a combined weight of the container and the food stuff received at the container into alignment with the center point of a shape formed by the plurality of strain gauge load sensors, the connection assembly being configured such that the flexible connection provides a bias to guide the line of gravity towards a default position that aligns the line of gravity with the center point. a container configured to receive a food stuff; a base unit comprising a mounting member and a plurality of outer supporting members ; a weight sensing unit configured to measure a weight of the food stuff contained at the container, the weight sensing unit comprising a plurality of strain gauge load sensors arranged at the mounting member of the base unit; and a connection assembly arranged between the container and the base unit, characterized in that the connection assembly is configured to provide a flexible and insulating connection between the container and the weight sensing unit so as to counteract thermal strain interference at the weight sensing unit and to reduce heat transfer between the container and the weight sensing unit, the connection assembly being configured to flexibly connect the container and the base unit such as to bring a line of gravity of a combined weight of the container and the food stuff received at the container into alignment with the center point of a shape formed by the plurality of strain gauge load sensors, the connection assembly being configured such that the flexible connection provides a bias to guide the line of gravity towards a default position that aligns the line of gravity with the center point.
A rotor for an electric machine with a rotor core with slots to house conductor bars of winding coils, with sub-slots below the slots that are designed to transport a cooling medium via a first radial passage located at the slots through which the cooling medium can enter from the sub-slots into a first cavity , which has a radially decreasing cross section area towards the outside of the rotor , passages that extend in the axial direction and through which the cooling medium can pass to the enter into a second cavity located in the slots , and a second radial passage through which the cooling medium can be purged, characterized in that the second cavity has a radially increasing cross section area towards the outside of the rotor and the first cavity and the second cavity are bores in the conductor bars and the second passages which connect the first cavity with the second cavity are recesses of a hollow conductor bar .
A cable harness for an aircraft configurable from a neutral state to one of at least two configuration settings, the cable harness comprising: a set of conducting wires bound together and having at least a first end and a second end; a connector disposed at the first end of the set of conducting wires for connecting to a system and adapted to provide one or more of signals and electrical power from the set of conducting wires to the system ; and a configuration device adapted to configure the cable harness from the neutral state to the one of the at least two configuration settings, wherein the set of conducting wires comprises a configuration port disposed intermediate the first end and the second end of the set of conducting wires and adapted to mate with the configuration device adapted to configure the cable harness ; wherein the configuration port is one of a male and a female connector , and the configuration device is the other of the male and female connector ; and wherein the conducting wires are bound together by a sleeve and at least part of the sleeve is disposed between the connector and the configuration port ; wherein the configuration port is disposed exterior of the sleeve . a set of conducting wires bound together and having at least a first end and a second end; a connector disposed at the first end of the set of conducting wires for connecting to a system and adapted to provide one or more of signals and electrical power from the set of conducting wires to the system ; and a configuration device adapted to configure the cable harness from the neutral state to the one of the at least two configuration settings, wherein the set of conducting wires comprises a configuration port disposed intermediate the first end and the second end of the set of conducting wires and adapted to mate with the configuration device adapted to configure the cable harness ; wherein the configuration port is one of a male and a female connector , and the configuration device is the other of the male and female connector ; and wherein the conducting wires are bound together by a sleeve and at least part of the sleeve is disposed between the connector and the configuration port ; wherein the configuration port is disposed exterior of the sleeve .
Method for the production of a tissue-engineered medical device, comprising the following steps: A.) providing a polymer scaffold, said polymer scaffold comprising a substrate comprising polyglycolic acid, and a coating comprising poly-4-hydroxybutyrate; B.) application of a cell suspension containing isolated and expanded cells to the polymer scaffold, thereby producing a seeded polymer scaffold; C.) placement of the seeded polymer scaffold in a bioreactor and mechanical stimulation by exposure to a pulsatile flux of incremental intensity, thereby forming a tissue-engineered medical device comprising an extracellular matrix; D.) mounting of the tissue-engineered medical device on a conduit stabilizer and incubation under static conditions in a cell culture medium; E.) decellularisation of the tissue-engineered medical device in a washing solution comprising a detergent; F.) nuclease treatment of the tissue-engineered medical device; G.) rinsing of the tissue-engineered medical device. A.) providing a polymer scaffold, said polymer scaffold comprising a substrate comprising polyglycolic acid, and a coating comprising poly-4-hydroxybutyrate; B.) application of a cell suspension containing isolated and expanded cells to the polymer scaffold, thereby producing a seeded polymer scaffold; C.) placement of the seeded polymer scaffold in a bioreactor and mechanical stimulation by exposure to a pulsatile flux of incremental intensity, thereby forming a tissue-engineered medical device comprising an extracellular matrix; D.) mounting of the tissue-engineered medical device on a conduit stabilizer and incubation under static conditions in a cell culture medium; E.) decellularisation of the tissue-engineered medical device in a washing solution comprising a detergent; F.) nuclease treatment of the tissue-engineered medical device; G.) rinsing of the tissue-engineered medical device.
A method for producing hydroxypivalaldehyde comprising steps (i) to (iii) below in this order, step (i): a reaction step of reacting isobutyraldehyde with formaldehyde to obtain a reaction solution containing hydroxypivalaldehyde, step (ii): an extraction step of extracting the reaction solution with an aldehyde solvent represented by formula under basicity to obtain an extract containing hydroxypivalaldehyde, and step (iii): a distillation and collection step of distilling the extract and then collecting hydroxypivalaldehyde from a still residue, wherein R represents a saturated alkyl group having 3 or more and 7 or less carbon atoms, further wherein the distillation step of the step (iii) is a step of distilling the extract in the presence of water, and an amount of the water which is subjected to the distillation is 100 parts by mass or more and 2,000 parts by mass or less with respect to a total amount, 100 parts by mass, of isobutyraldehyde derived from a raw material and an aldehyde solvent represented by formula in the extract which is subjected to the distillation. step (i): a reaction step of reacting isobutyraldehyde with formaldehyde to obtain a reaction solution containing hydroxypivalaldehyde, step (ii): an extraction step of extracting the reaction solution with an aldehyde solvent represented by formula under basicity to obtain an extract containing hydroxypivalaldehyde, and step (iii): a distillation and collection step of distilling the extract and then collecting hydroxypivalaldehyde from a still residue, wherein R represents a saturated alkyl group having 3 or more and 7 or less carbon atoms, further wherein the distillation step of the step (iii) is a step of distilling the extract in the presence of water, and an amount of the water which is subjected to the distillation is 100 parts by mass or more and 2,000 parts by mass or less with respect to a total amount, 100 parts by mass, of isobutyraldehyde derived from a raw material and an aldehyde solvent represented by formula in the extract which is subjected to the distillation.
Device for data transmission, said device comprising a data module for storing and playing back data, and also a plug connector housing having a cable outlet opening and a cable gland , wherein the device comprises furthermore an adaptor module that comprises at least one cable passage region and wherein the adaptor module comprises a cable inlet opening at a first end of this cable passage region and a cable outlet opening at a second end of this cable passage region , wherein the adaptor module may be fastened by means of its cable inlet opening to the cable outlet opening of the plug connector housing , and wherein the cable gland may be fastened to the cable outlet opening of the adaptor module , with the result that the adaptor module may be fastened between the cable outlet opening and the cable gland , characterized in that the adaptor module has an outlet surface on which the said data module is arranged, wherein the data module is equipped with at least one interface for the connection of a dongle and/or with a plug connection for the connection of a cable-connected plug connector .
A transport system for transporting a baler , comprising a transport container as well as a transport device which is configured to receive the partially dismantled baler and at least one dismantled associated component , and which is to be received by the transport container for transport, wherein the transport device is constructed as a one-piece transport frame which is configured to position the partially dismantled baler and at least one of its components in a fixed position in the transport frame in preparation for reception by the transport container, so that the transport frame can then be introduced into the transport container in a single stowing procedure, characterized in that the transport frame is substantially cuboid in construction and has lower horizontal legs and upper horizontal legs which are connected to one another by vertical legs , wherein the lower horizontal legs form a lower plane and the upper horizontal legs form an upper plane of the transport frame , wherein a platform is disposed on the lower horizontal legs of the lower plane in order to receive a support frame of the baler , wherein the platform is pivotably articulated about a pivot axis which runs parallel to a lower horizontal leg which extends transversely to the longitudinal axis of the transport frame and is variable in inclination relative to the lower plane of the transport frame by means of at least one linear actuator disposed on the opposite lower horizontal leg of the transport frame .
Headlamp for a motor vehicle, wherein the headlamp comprises: a headlamp housing ; a light module for generating an emission light distribution , in particular a dipped beam distribution comprising a light-dark boundary; a light module frame on which the light module is fixed rigidly or so as to be rotatable about a bending-light axis , and which is fixed to the headlamp housing so as to be rotatable about a headlamp range axis ; a headlamp range adjusting device which is rigidly fixed to the headlamp housing and has a drive system for setting a rotational position of the light module frame about the headlamp range axis and has a compensation device , characterized in that the compensation device corrects the rotational position of the light module frame depending on temperature, wherein the compensation device comprises: a first compensation portion having a first temperature expansion coefficient and a second compensation portion having a second temperature expansion coefficient different from the first temperature expansion coefficient, wherein a distal connecting portion connects the first and the second compensation portion to one another, the first and/or the second compensation portion has sub-portions having different temperature expansion coefficients. a headlamp housing ; a light module for generating an emission light distribution , in particular a dipped beam distribution comprising a light-dark boundary; a light module frame on which the light module is fixed rigidly or so as to be rotatable about a bending-light axis , and which is fixed to the headlamp housing so as to be rotatable about a headlamp range axis ; a headlamp range adjusting device which is rigidly fixed to the headlamp housing and has a drive system for setting a rotational position of the light module frame about the headlamp range axis and has a compensation device , characterized in that the compensation device corrects the rotational position of the light module frame depending on temperature, wherein the compensation device comprises: a first compensation portion having a first temperature expansion coefficient and a second compensation portion having a second temperature expansion coefficient different from the first temperature expansion coefficient, wherein a distal connecting portion connects the first and the second compensation portion to one another, the first and/or the second compensation portion has sub-portions having different temperature expansion coefficients. a first compensation portion having a first temperature expansion coefficient and a second compensation portion having a second temperature expansion coefficient different from the first temperature expansion coefficient, wherein a distal connecting portion connects the first and the second compensation portion to one another, the first and/or the second compensation portion has sub-portions having different temperature expansion coefficients.
A hermetic reciprocating compressor comprising - a cylinder block which includes a compression chamber for compressing a refrigerant and - an exhaust silencer which includes a cavity formed into the cylinder block , an intake port and an exhaust port which respectively open into the cavity , wherein the compression chamber and the intake port are in fluid communication through an exhaust refrigerant passage , characterized by a thermally insulative inner lining arranged inside the exhaust silencer , the inner lining comprising a main body made of a thermally insulative material, the main body comprising - an outer surface which form-fittingly matches an inner surface of the cavity , - a hollow portion which is formed into the main body to acoustically damp the exhaust refrigerant received through the exhaust refrigerant passage and - an inlet port and an outlet port which are formed into the main body and open into hollow portion , wherein the inlet port and the outlet port respectively face the intake port and the exhaust port , wherein the outer surface of the main body also form-fittingly matches an inward surface of a lid of the exhaust silencer , and wherein the main body further includes two coaxially aligned through-holes for inserting a fixing bolt to fasten the lid of the exhaust silencer to the cylinder block . - a cylinder block which includes a compression chamber for compressing a refrigerant and - an exhaust silencer which includes a cavity formed into the cylinder block , an intake port and an exhaust port which respectively open into the cavity , wherein the compression chamber and the intake port are in fluid communication through an exhaust refrigerant passage , - an outer surface which form-fittingly matches an inner surface of the cavity , - a hollow portion which is formed into the main body to acoustically damp the exhaust refrigerant received through the exhaust refrigerant passage and - an inlet port and an outlet port which are formed into the main body and open into hollow portion , wherein the inlet port and the outlet port respectively face the intake port and the exhaust port ,
A cooling device for cooling at least two power electronic devices by a working fluid , the cooling device comprising: - A Pulsating Heat Pipe circuit system (10, 30, 50; 60) having tubes of capillary dimension for the working fluid enabling the working fluid to perform thermofluidic transport by Pulsating Heat Pipe action; - A heat receiver arrangement comprising a heat receiver portion of the Pulsating Heat Pipe circuit system (10; 60) and - A heat dissipator arrangement comprising a) a heat dissipator portion of the Pulsating Heat Pipe circuit system (10; 60) and b) a plurality of fins thermally coupled to the heat dissipator portion for transferring heat from the heat dissipator portion to an external cooling fluid for cooling the working fluid in the heat dissipator portion, wherein the Pulsating Heat Pipe circuit system (10, 30, 50; 60) connects the heat receiver portion with the heat dissipator portion for transferring heat from the heat receiver portion to the heat dissipator portion by the Pulsating Heat Pipe action of the working fluid characterised in that : the heat receiver arrangement further comprises a pair of thermo-conducting walls provided on mutually opposite sides of the heat receiver arrangement and sandwiching the heat receiver portion between them, each of the thermo-conducting walls being adapted for receiving and for being thermally connected to a respective one of the power electronic devices , wherein the thermo-conducting walls are thermally coupled to the heat receiver portion such that in an operating state heat is transferred from the power electronic devices through the respective thermo-conducting walls to the heat receiver portion thereby heating the working fluid. - A Pulsating Heat Pipe circuit system (10, 30, 50; 60) having tubes of capillary dimension for the working fluid enabling the working fluid to perform thermofluidic transport by Pulsating Heat Pipe action; - A heat receiver arrangement comprising a heat receiver portion of the Pulsating Heat Pipe circuit system (10; 60) and - A heat dissipator arrangement comprising a) a heat dissipator portion of the Pulsating Heat Pipe circuit system (10; 60) and b) a plurality of fins thermally coupled to the heat dissipator portion for transferring heat from the heat dissipator portion to an external cooling fluid for cooling the working fluid in the heat dissipator portion, wherein a) a heat dissipator portion of the Pulsating Heat Pipe circuit system (10; 60) and b) a plurality of fins thermally coupled to the heat dissipator portion for transferring heat from the heat dissipator portion to an external cooling fluid for cooling the working fluid in the heat dissipator portion, wherein
A compact micromanipulator element comprising - at least one movable element - a first piezoelectric element comprising a first drive stem - a second piezoelectric element comprising a second drive stem - the stem of the first piezoelectric element and the stem of the second piezoelectric element being arranged in parallel to each other such that the stem of the first piezoelectric element and the stem of the second piezoelectric element are arranged to act as linear guides for the movable element thereby reducing the need of a separate linear guide for the movable element . - at least one movable element - a first piezoelectric element comprising a first drive stem - a second piezoelectric element comprising a second drive stem - the stem of the first piezoelectric element and the stem of the second piezoelectric element being arranged in parallel to each other such that the stem of the first piezoelectric element and the stem of the second piezoelectric element are arranged to act as linear guides for the movable element thereby reducing the need of a separate linear guide for the movable element .
A drug delivery device comprising: a housing : a cylindrical member configured to be rotatably supported inside the housing , wherein the outer surface of the cylindrical member is provided with a track comprising a sequence of encoded images, wherein the encoded images each encode a discrete rotational position of the cylindrical member and wherein each encoded image comprises an identical predetermined geometric feature ; a sensor directed at the track of the cylindrical member and configured to capture an image; and a processor configured to: receive image data from the sensor ; implement a geometric feature detection algorithm; detect the predetermined geometric feature of the image; detect encoded information at a location in the received image data that is in a predefined position relative to the geometric feature , wherein the predefined position relative to the geometric feature is defined by a pixel map comprising an arrangement of data bits, each of which is comprised of a plurality of pixels, and wherein each pixel is assigned to a particular data bit dependant on its relative position to the geometric feature ; and compare the received image data to the pixel map to identify the encoded image. a cylindrical member configured to be rotatably supported inside the housing , wherein the outer surface of the cylindrical member is provided with a track comprising a sequence of encoded images, wherein the encoded images each encode a discrete rotational position of the cylindrical member and wherein each encoded image comprises an identical predetermined geometric feature ; a sensor directed at the track of the cylindrical member and configured to capture an image; and a processor configured to: receive image data from the sensor ; implement a geometric feature detection algorithm; detect the predetermined geometric feature of the image; detect encoded information at a location in the received image data that is in a predefined position relative to the geometric feature , wherein the predefined position relative to the geometric feature is defined by a pixel map comprising an arrangement of data bits, each of which is comprised of a plurality of pixels, and wherein each pixel is assigned to a particular data bit dependant on its relative position to the geometric feature ; and compare the received image data to the pixel map to identify the encoded image. receive image data from the sensor ; implement a geometric feature detection algorithm; detect the predetermined geometric feature of the image; detect encoded information at a location in the received image data that is in a predefined position relative to the geometric feature , wherein the predefined position relative to the geometric feature is defined by a pixel map comprising an arrangement of data bits, each of which is comprised of a plurality of pixels, and wherein each pixel is assigned to a particular data bit dependant on its relative position to the geometric feature ; and compare the received image data to the pixel map to identify the encoded image.