mhurhangee/patent-ind-claim-en huggingface dataset:
Heat shrink component that has first dimensions in an expanded state and second dimensions in a shrunk state, at least one of the first dimensions being larger than the corresponding second dimension and said heat shrink component comprising: a heat shrink sleeve with a heat shrink layer , and at least one heating unit that is arranged on a surface of the heat shrink sleeve and in thermal contact to at least a part of said heat shrink layer , said heating unit being operable to heat up the heat shrink layer to its heat shrink temperature, wherein the heating unit comprises at least one electrically conductive lead for being heated by an electrical current flowing through the lead , and at least one heat spreading layer arranged in thermal contact to the at least one electrically conductive lead for distributing the heat generated by the electrically conductive lead ; wherein the electrically conductive lead is at least partly embedded within an embedding material ; wherein the at least one heat spreading layer is composed of metal layers or layers with a high thermal conductivity distributing the heat energy in a direction along the circumference of the heat shrink component , and the heat shrink layer is formed at least partly as a sleeve with a longitudinal axis for covering at least one electrical connection. a heat shrink sleeve with a heat shrink layer , and at least one heating unit that is arranged on a surface of the heat shrink sleeve and in thermal contact to at least a part of said heat shrink layer , said heating unit being operable to heat up the heat shrink layer to its heat shrink temperature, wherein the heating unit comprises at least one electrically conductive lead for being heated by an electrical current flowing through the lead , and at least one heat spreading layer arranged in thermal contact to the at least one electrically conductive lead for distributing the heat generated by the electrically conductive lead ; wherein the electrically conductive lead is at least partly embedded within an embedding material ; wherein the at least one heat spreading layer is composed of metal layers or layers with a high thermal conductivity distributing the heat energy in a direction along the circumference of the heat shrink component , and the heat shrink layer is formed at least partly as a sleeve with a longitudinal axis for covering at least one electrical connection.
A process for preparing an intermediate of antibody-drug conjugate comprising a linker portion and a drug portion, wherein the intermediate of antibody-drug conjugate is Py-MAA-Val-Cit-PAB-D or MC-Val-Cit-PAB-D, wherein Py-MAA-Val-Cit-PAB or MC-Val-Cit-PAB in the intermediate is the linker portion, and D in the intermediate represents drug portion which is auristatin cytotoxic agent, anthramycin cytotoxic agent, anthracycline cytotoxic agent, puromycin cytotoxic agent, or DX8951, wherein the process comprises the following reaction route: wherein the preparation process is a one-pot process in which two steps are carried out in one system.
A bone screw comprising: a shaft defining at least one cavity and including at least one thread having an external thread form, and the shaft including at least one tissue gathering member disposed to direct tissue into the at least one cavity , wherein the at least one tissue gathering member includes at least one scoop , the scoop comprising an inner wall defining at least a portion of the cavity , characterized in that the at least one scoop includes walls having a lattice configuration. a shaft defining at least one cavity and including at least one thread having an external thread form, and the shaft including at least one tissue gathering member disposed to direct tissue into the at least one cavity , wherein the at least one tissue gathering member includes at least one scoop , the scoop comprising an inner wall defining at least a portion of the cavity , characterized in that the at least one scoop includes walls having a lattice configuration.
A method of gripping a limp flat workpiece by means of a positioning device which includes at least one control unit , a camera , at least one first gripper and at least one second gripper , the method comprising the following steps: a) providing the flat workpiece in a random, in particular folded, state on a manipulation surface ; b) generating, by the camera , a camera image (B) showing the flat workpiece ; c) identifying, by a first machine learning module of the control unit , a grippable edge (K) of the flat workpiece by extracting characteristic image features of the camera image (B); d) determining, by a second machine learning module of the control unit , a first gripping point for the first gripper at the grippable edge (K); and e) determining, by the second machine learning module of the control unit , a second gripping point for the second gripper at the grippable edge (K), the second gripping point being spaced apart from the first gripping point, wherein the flat workpiece is held by means of the second gripper and the first gripper is moved along the gripped edge (K) until the first gripper grips a first corner (E1) of the flat workpiece , and/or the flat workpiece is held by means of the first gripper and the second gripper is moved along the gripped edge (K) until the second gripper grips a second corner (E2) of the flat workpiece . a) providing the flat workpiece in a random, in particular folded, state on a manipulation surface ; b) generating, by the camera , a camera image (B) showing the flat workpiece ; c) identifying, by a first machine learning module of the control unit , a grippable edge (K) of the flat workpiece by extracting characteristic image features of the camera image (B); d) determining, by a second machine learning module of the control unit , a first gripping point for the first gripper at the grippable edge (K); and e) determining, by the second machine learning module of the control unit , a second gripping point for the second gripper at the grippable edge (K), the second gripping point being spaced apart from the first gripping point, wherein the flat workpiece is held by means of the second gripper and the first gripper is moved along the gripped edge (K) until the first gripper grips a first corner (E1) of the flat workpiece , and/or the flat workpiece is held by means of the first gripper and the second gripper is moved along the gripped edge (K) until the second gripper grips a second corner (E2) of the flat workpiece .
A lumbar interbody fusion device , comprising: a first wing and a second wing ; and a bridge extending along a path from a first end connected to the first wing to a second end connected to the second wing , the bridge being elastically deformable such that a distance between the first wing and the second wing may vary according to elastic deformation of the bridge , the lumbar interbody fusion device characterized in that : the bridge comprises a pattern of perforations extending through the bridge in a direction transverse to the path and extending radially through the bridge . a first wing and a second wing ; and a bridge extending along a path from a first end connected to the first wing to a second end connected to the second wing , the bridge being elastically deformable such that a distance between the first wing and the second wing may vary according to elastic deformation of the bridge , the lumbar interbody fusion device characterized in that : the bridge comprises a pattern of perforations extending through the bridge in a direction transverse to the path and extending radially through the bridge .
A system for applying patches to executable codes, comprising: - a plurality of execution environments configured to execute said codes in different execution contexts; - a control unit configured to apply the patches to said codes; wherein the control unit is configured to apply a specific patch to a specific code upon or after an execution environment configured to execute said specific code switches to an execution context corresponding to said specific code; characterized by the system further comprising a mapping between execution contexts and patches, wherein the control unit is configured to determine the specific patch to be applied by selecting a patch activated for the execution context according to said mapping, and wherein the patches are stored in memory locations different from the memory locations in which the codes are stored. - a plurality of execution environments configured to execute said codes in different execution contexts; - a control unit configured to apply the patches to said codes;
A method for preparing a carbon nanotube dispersion, the method comprising: mixing a dispersion solution including a dispersion solvent and a dispersant with carbon nanotubes to prepare carbon nanotube paste (S1); extruding the paste to obtain solid carbon nanotubes (S2); and introducing a second solvent to the solid carbon nanotubes and then homogenizing the carbon nanotubes (S3), wherein the weight ratio of the dispersion solution and the carbon nanotubes is 1:1 to 9:1, wherein the dispersion solvent and the second solvent are each independently one or more selected from the group consisting of methanol, ethanol, propanol, isopropanol, butanol, N-methyl pyrrolidone (NMP) and N, N-dimethylformamide (DMF), and wherein the dispersant is one or more selected from the group consisting of styrene butylene rubber (SBR), carboxymethyl cellulose (CMC), hydrogenated acrylonitrile butadiene rubber (H-NBR), polyvinylpyrrolidone (PVP), and polyvinylbutyral (PVB). mixing a dispersion solution including a dispersion solvent and a dispersant with carbon nanotubes to prepare carbon nanotube paste (S1); extruding the paste to obtain solid carbon nanotubes (S2); and introducing a second solvent to the solid carbon nanotubes and then homogenizing the carbon nanotubes (S3), wherein the weight ratio of the dispersion solution and the carbon nanotubes is 1:1 to 9:1, wherein the dispersion solvent and the second solvent are each independently one or more selected from the group consisting of methanol, ethanol, propanol, isopropanol, butanol, N-methyl pyrrolidone (NMP) and N, N-dimethylformamide (DMF), and wherein the dispersant is one or more selected from the group consisting of styrene butylene rubber (SBR), carboxymethyl cellulose (CMC), hydrogenated acrylonitrile butadiene rubber (H-NBR), polyvinylpyrrolidone (PVP), and polyvinylbutyral (PVB).
A spraying assembly for a dish washing machine, comprising: a bottom shell , the bottom shell defining a water storage chamber therein, and having a water inlet in communication with the water storage chamber ; a spraying seat , the spraying seat being rotatably provided to the bottom shell , and having a water input passage in communication with the water storage chamber ; a sprayer , the sprayer having at least one spraying arm , the sprayer being rotatably provided to the spraying seat and a rotation center of the sprayer being eccentrically provided with respect to a rotation center of the spraying seat , the sprayer having a plurality of spraying orifices arranged at intervals, and each spraying orifice being in communication with the water input passage respectively; an actuator , the actuator being connected with the sprayer and the spraying seat respectively, so as to drive the sprayer and the spraying seat to rotate around their respective rotation centers; a driving transmission member, the driving transmission member being connected with the actuator and the sprayer, and being driven by the actuator to drive the sprayer to rotate; and a driven transmission member, the driven transmission member being connected with the driving transmission member and the spraying seat, and being driven by the driving transmission member to drive the spraying seat to rotate. a bottom shell , the bottom shell defining a water storage chamber therein, and having a water inlet in communication with the water storage chamber ; a spraying seat , the spraying seat being rotatably provided to the bottom shell , and having a water input passage in communication with the water storage chamber ; a sprayer , the sprayer having at least one spraying arm , the sprayer being rotatably provided to the spraying seat and a rotation center of the sprayer being eccentrically provided with respect to a rotation center of the spraying seat , the sprayer having a plurality of spraying orifices arranged at intervals, and each spraying orifice being in communication with the water input passage respectively; an actuator , the actuator being connected with the sprayer and the spraying seat respectively, so as to drive the sprayer and the spraying seat to rotate around their respective rotation centers; a driving transmission member, the driving transmission member being connected with the actuator and the sprayer, and being driven by the actuator to drive the sprayer to rotate; and a driven transmission member, the driven transmission member being connected with the driving transmission member and the spraying seat, and being driven by the driving transmission member to drive the spraying seat to rotate.
A vehicle control device comprising: a metallic base substance ; an electronic control device mounted on the base substance , the electronic control device including a housing mounted on a mounting face of the base substance and a control board housed in the housing ; and a heat dissipating part which is provided to protrude from the mounting face and inserted into the housing , the heat dissipating part abutting on the control board, characterized in that the housing includes a partition member formed to partition an inner space of the housing into spaces, a first housing chamber which is formed between the partition member and the mounting face , and a second housing chamber which is formed on the side opposite to the side of the mounting face across the partition member and into which the control board is housed, and wherein the partition member has an opening , and the heat dissipating part is inserted into the opening . a metallic base substance ; an electronic control device mounted on the base substance , the electronic control device including a housing mounted on a mounting face of the base substance and a control board housed in the housing ; and a heat dissipating part which is provided to protrude from the mounting face and inserted into the housing , the heat dissipating part abutting on the control board, characterized in that the housing includes a partition member formed to partition an inner space of the housing into spaces, a first housing chamber which is formed between the partition member and the mounting face , and a second housing chamber which is formed on the side opposite to the side of the mounting face across the partition member and into which the control board is housed, and wherein the partition member has an opening , and the heat dissipating part is inserted into the opening .
A communication apparatus for performing half-duplex wireless communication with a communication partner apparatus , the communication apparatus comprising: a transmission section configured to transmit video data generated by a data generation section to the communication partner apparatus; a reception section configured to receive sensing data transmitted from the communication partner apparatus; a time identification section configured to identify a time required for a round-trip of the half-duplex wireless communication between the communication apparatus and the communication partner apparatus, wherein the time required for the round-trip of the half-duplex wireless communication is a period of time from a time at which the communication apparatus transmits a header of the video data generated by the data generation section until the communication apparatus receives the entirety of the sensing data transmitted from the communication partner apparatus for the round-trip of the half-duplex wireless communication; and a generation control section configured to control a size of the video data to be generated per unit time by the data generation section on a basis of: the identified time required for the round-trip of the half-duplex wireless communication, a size of the data exchanged with the communication partner apparatus in the round-trip of the half-duplex wireless communication, and a predetermined target time for the round-trip of the half-duplex wireless communication. a transmission section configured to transmit video data generated by a data generation section to the communication partner apparatus; a reception section configured to receive sensing data transmitted from the communication partner apparatus; a time identification section configured to identify a time required for a round-trip of the half-duplex wireless communication between the communication apparatus and the communication partner apparatus, wherein the time required for the round-trip of the half-duplex wireless communication is a period of time from a time at which the communication apparatus transmits a header of the video data generated by the data generation section until the communication apparatus receives the entirety of the sensing data transmitted from the communication partner apparatus for the round-trip of the half-duplex wireless communication; and a generation control section configured to control a size of the video data to be generated per unit time by the data generation section on a basis of: the identified time required for the round-trip of the half-duplex wireless communication, a size of the data exchanged with the communication partner apparatus in the round-trip of the half-duplex wireless communication, and a predetermined target time for the round-trip of the half-duplex wireless communication.
A method for producing a customised digital model of a medical device based on a first three-dimensional, 3D, digital model of a base generic device, said first digital model being a triangulated vertex boundary representation, the method comprising the steps of: importing said first digital model of said base generic device; importing a second 3D digital model of a target shape; modifying said first digital model to create said customised digital model based on said target shape, said modifying including: determining a warping interpolation function based on relative positions of a set of source points associated with the first digital model of the base generic device and relative positions of a set of target points, said relative positions being: (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and applying the warping interpolation function to all vertices of said triangulated vertex boundary representation of said base generic device to generate said customised digital model of said medical device, wherein said customised digital model of said medical device is adapted to fit said target shape. importing said first digital model of said base generic device; importing a second 3D digital model of a target shape; modifying said first digital model to create said customised digital model based on said target shape, said modifying including: determining a warping interpolation function based on relative positions of a set of source points associated with the first digital model of the base generic device and relative positions of a set of target points, said relative positions being: (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and applying the warping interpolation function to all vertices of said triangulated vertex boundary representation of said base generic device to generate said customised digital model of said medical device, wherein said customised digital model of said medical device is adapted to fit said target shape. determining a warping interpolation function based on relative positions of a set of source points associated with the first digital model of the base generic device and relative positions of a set of target points, said relative positions being: (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and applying the warping interpolation function to all vertices of said triangulated vertex boundary representation of said base generic device to generate said customised digital model of said medical device, wherein said customised digital model of said medical device is adapted to fit said target shape.
A connector device for attachment to and for providing a fluid connection with an associated percutaneous fluid access device having a plurality of ports , the connector device comprising a needle holder holding a plurality of hollow needles , characterised in that the needle holder is retained within an axial alignment channel defined by the connector device and can be translated back and forth along the axial alignment channel, the connector device being configured such that, after attachment to the associated percutaneous fluid access device , translation of the needle holder along the axial alignment channel towards the associated percutaneous fluid access device drives the plurality of hollow needles into the plurality of ports thereby establishing the fluidic connection with the associated percutaneous fluid access device .
Composition comprising polysaccharides and whey protein micelles for use in the treatment or prevention of a disorder linked to an increase in plasma postprandial insulin selected from the group consisting of diabetes, for example gestational diabetes; impairment of glucose metabolism; hyperinsulinemia or insulin resistance, in a subject; wherein the polysaccharides have a negative zeta potential at a pH value in the range 2.5 to 4.5 and are selected from the group consisting of alginate, xanthan, pectin, gum karaya, gum Arabic and carrageenan; the weight ratio of whey protein micelles to polysaccharide is between 30:1 and 0.8:1; the whey protein micelles are obtainable by adjusting the pH of a demineralized native whey protein aqueous solution to a value between 5.8 and 6.6 and subjecting the aqueous solution to a temperature between 80 and 98°C for a period of between 10 seconds and 2 hours, and the polysaccharides and whey protein micelles are in the form of polysaccharide-whey protein micelle complexes.