mhurhangee/patent-ind-claim-en huggingface dataset:
A scroll compressor comprising: an electric motor ; a rotary shaft rotationally driven about an axis thereof by the electric motor ; a scroll compressor body driven by a rotation of the rotary shaft ; a main bearing rotatably supporting the rotary shaft between the electric motor and the scroll compressor body ; a sub bearing supporting the rotary shaft at an opposite side of the electric motor from the main bearing , and provided with a plurality of arms at intervals in a peripheral direction of the rotary shaft , the plurality of arms extending along a radial direction of the rotary shaft ; a housing having a tubular shape extending along the axis, and housing the electric motor , the rotary shaft , the compressor body , the main bearing , and the sub bearing ; a harness having a ring shape and fitted onto an inner peripheral surface of the housing ; and a fixed portion in which the arms of the sub bearing are fixed to the harness , characterized in that : the fixed portion is a fastening bolt (B) that is inserted through a first hole formed in the arm and a second hole formed in the harness , an inner diameter of the first hole is larger than an outer diameter of the fastening bolt (B) in order to make it possible to easily carry out centering of the arm and the rotary shaft; the sub bearing is separate from the harness . an electric motor ; a rotary shaft rotationally driven about an axis thereof by the electric motor ; a scroll compressor body driven by a rotation of the rotary shaft ; a main bearing rotatably supporting the rotary shaft between the electric motor and the scroll compressor body ; a sub bearing supporting the rotary shaft at an opposite side of the electric motor from the main bearing , and provided with a plurality of arms at intervals in a peripheral direction of the rotary shaft , the plurality of arms extending along a radial direction of the rotary shaft ; a housing having a tubular shape extending along the axis, and housing the electric motor , the rotary shaft , the compressor body , the main bearing , and the sub bearing ; a harness having a ring shape and fitted onto an inner peripheral surface of the housing ; and a fixed portion in which the arms of the sub bearing are fixed to the harness , the fixed portion is a fastening bolt (B) that is inserted through a first hole formed in the arm and a second hole formed in the harness , an inner diameter of the first hole is larger than an outer diameter of the fastening bolt (B) in order to make it possible to easily carry out centering of the arm and the rotary shaft; the sub bearing is separate from the harness .
Device for the targeted weakening of a dimensional stability of a rim for a wheel of a motor vehicle, wherein the device is configured in such a manner that the shape of the rim when the device is impinged with an external force of predefinable magnitude is at least partially destroyed, and wherein the device has at least one predetermined weak point configured on the rim , characterized in that the predetermined weak point is configured by at least one predetermined breaking point configured on a rim flange of the rim , or is formed in the form of grooves which run through screw bores in the hub segment of the rim , or by a perforation .
Top seal for a loading/unloading dock , the top seal configured for sealing the upper edge of a dock against a roof of a vehicle docked at the dock, the top seal comprising: - a movable sealing element that is configured for moving in a substantially vertical direction and comprises contact elements for contacting with the roof of the vehicle; - a drive configured for moving the movable sealing element; wherein the movable sealing element has a variable working height to adapt to a vehicle height, and wherein the contact elements of the movable sealing element comprises one or more water sealing elements, wherein the water sealing element comprises a water sealing strip , and is characterised in that the water sealing element has a V-shape or a curved shape configured to guide water sideways, wherein the legs of the V-shaped water sealing element extend over the roof of the vehicle sideways towards the dock. - a movable sealing element that is configured for moving in a substantially vertical direction and comprises contact elements for contacting with the roof of the vehicle; - a drive configured for moving the movable sealing element;
Cooling unit, comprising an evaporative cooling unit having an evaporative water circuit and a heat exchanger exposed thereto for the medium to be cooled, wherein the evaporative water circuit has a collection basin , an evaporative water pump , an evaporative water distributor and an evaporation path exposed to an air flow (L), and the heat exchanger is arranged in the collection basin and washed around by the water present there, characterized by the following features: the collection basin comprises a plurality of partial basins (23; 23a, 23b, 23c, 23d) delimited from one another; the heat exchanger comprises a plurality of heat exchanger segments (24; 24a, 24b, 24c, 24d) arranged in different partial basins (23; 23a, 23b, 23c, 23d) and fluidically connected in series; evaporation water collected downstream of the evaporation path is applied to the partial basins (23; 23a, 23b, 23c, 23d) parallel to one another; inflow region and outflow region of the evaporation water in the respective partial basin (23; 23a, 23b, 23c, 23d) are offset in opposite directions from one another to the inlet and outlet of the respectively assigned heat exchanger segment (24; 24a, 24b, 24c, 24d); a succession of flow-guiding elements with passage cross-sections vertically offset from one another is respectively arranged in the individual partial basins (23; 23a, 23b, 23c, 23d).
A vehicle turning control device mounted on a vehicle , comprising: a yaw moment generation device that generates a yaw moment; and a control device that calculates a control yaw moment (F_M) for increasing turning performance of the vehicle and uses the yaw moment generation device to generate the control yaw moment (F_M), wherein a limit control yaw moment (A_M) is an upper limit of an allowable range of the control yaw moment (F_M) in which the vehicle does not spin, a lateral jerk equivalent is a lateral jerk (Jy) of the vehicle or an approximate value of the lateral jerk (Jy), the limit control yaw moment (A_M) is a function of the lateral jerk equivalent characterized in that said limit control yaw moment decreases as the lateral jerk equivalent increases, and in that the control device performs: processing of calculating the limit control yaw moment (A_M) based on the lateral jerk equivalent and the function; processing of updating a hold control yaw moment (H_M) with a latest value of the limit control yaw moment (A_M), when the latest value is less than the hold control yaw moment (H_M); and processing of determining the control yaw moment (F_M) so as not to exceed the hold control yaw moment (H_M). a yaw moment generation device that generates a yaw moment; and a control device that calculates a control yaw moment (F_M) for increasing turning performance of the vehicle and uses the yaw moment generation device to generate the control yaw moment (F_M), wherein a limit control yaw moment (A_M) is an upper limit of an allowable range of the control yaw moment (F_M) in which the vehicle does not spin, a lateral jerk equivalent is a lateral jerk (Jy) of the vehicle or an approximate value of the lateral jerk (Jy), the limit control yaw moment (A_M) is a function of the lateral jerk equivalent characterized in that said limit control yaw moment decreases as the lateral jerk equivalent increases, and in that the control device performs: processing of calculating the limit control yaw moment (A_M) based on the lateral jerk equivalent and the function; processing of updating a hold control yaw moment (H_M) with a latest value of the limit control yaw moment (A_M), when the latest value is less than the hold control yaw moment (H_M); and processing of determining the control yaw moment (F_M) so as not to exceed the hold control yaw moment (H_M). processing of calculating the limit control yaw moment (A_M) based on the lateral jerk equivalent and the function; processing of updating a hold control yaw moment (H_M) with a latest value of the limit control yaw moment (A_M), when the latest value is less than the hold control yaw moment (H_M); and processing of determining the control yaw moment (F_M) so as not to exceed the hold control yaw moment (H_M).
Process for producing a reaction product containing a non-cyclic alkoxy-functional polysiloxane by means of heating a reaction system comprising: (A) a cyclic polyorganosiloxane of the formula [(R 1 2 SiO) 2/2 ] n , where the subscript n is an integer of at least 4 and each R 1 is an alkyl group or aryl group; (B) a silane of the formula R 2 (4-m) Si(OR 3 ) m , where the subscript m is an integer from 1 to 4, each R 2 independently is an alkyl group or aryl group, a hydrocarbyl group or a halogenated hydrocarbyl group and each R 3 independently is an alkyl group; and (C) a catalyst system comprising a metal trifluoromethanesulfonate of the formula [M] + [CF 3 SO 3 ] - , where M is a metal atom selected from sodium (Na) and potassium (K), and a Bronsted acid, wherein Bronsted acids having a pKa ≤ 3.0, preferably having a pKa ≤ 2.0, particularly preferably having a pKa ≤ - 0.0 are used. (A) a cyclic polyorganosiloxane of the formula [(R 1 2 SiO) 2/2 ] n , where the subscript n is an integer of at least 4 and each R 1 is an alkyl group or aryl group; (B) a silane of the formula R 2 (4-m) Si(OR 3 ) m , where the subscript m is an integer from 1 to 4, each R 2 independently is an alkyl group or aryl group, a hydrocarbyl group or a halogenated hydrocarbyl group and each R 3 independently is an alkyl group; and (C) a catalyst system comprising a metal trifluoromethanesulfonate of the formula [M] + [CF 3 SO 3 ] - , where M is a metal atom selected from sodium (Na) and potassium (K), and a Bronsted acid,
A construct for detecting nucleic acid targets, said construct comprising a bead, preferably a magnetic bead, wherein said bead comprises one or several visually detectable features and/or said bead is coupled to one or several visually detectable entities, and wherein said bead comprises an oligonucleotide, and said oligonucleotide comprises a) an amplification handle sequence, b) a barcode sequence specific to one or several of said visually detectable features and/or entities and c) a 3' terminal capture or anchor sequence, and wherein said oligonucleotide is arranged to be detachable from said bead.
A system for non-invasive monitoring blood glucose concentration of a media in a region of interest in a subject, the system comprising: a sensor device comprising at least one radiation sensor configured to be placed in the vicinity of the media and configured and operable to generate radiating beams of different frequencies in a frequency range, receive radiation responses from the medium, and generate corresponding sensing data; and a control unit configured to receive and process said sensing data to determine a dielectric spectrum of the media in said frequency range, the system being characterized in that : said sensor device is configured and operable to generate the radiating beams in the frequency range of about 0.5 GHz to 60 GHz, to thereby discreetly probe the dielectric spectrum of cytoplasm containing cells in said media, and said sensing data is indicative of a dielectric response of the cytoplasm containing cells in said media due to water in the media and said control unit is configured and operable to process said sensing data to extract from the dielectric spectrum of the media in said frequency range of about 0.5 GHz to 60 GHz, data indicative of a measureable change in at least one of such spectral parameters as broadening and position of a main relaxation peak of the dielectric spectrum, said main relaxation peak being associated with the dielectric response of the water, and said change in the spectral parameters of said main relaxation peak in said frequency range being indicative of a modification response of the cytoplasm caused by addition of glucose to the blood plasma outside a cellular membrane in vivo, to thereby determine blood glucose concentration in the media. said sensor device is configured and operable to generate the radiating beams in the frequency range of about 0.5 GHz to 60 GHz, to thereby discreetly probe the dielectric spectrum of cytoplasm containing cells in said media, and said sensing data is indicative of a dielectric response of the cytoplasm containing cells in said media due to water in the media and said control unit is configured and operable to process said sensing data to extract from the dielectric spectrum of the media in said frequency range of about 0.5 GHz to 60 GHz, data indicative of a measureable change in at least one of such spectral parameters as broadening and position of a main relaxation peak of the dielectric spectrum, said main relaxation peak being associated with the dielectric response of the water, and said change in the spectral parameters of said main relaxation peak in said frequency range being indicative of a modification response of the cytoplasm caused by addition of glucose to the blood plasma outside a cellular membrane in vivo, to thereby determine blood glucose concentration in the media.
A method, comprising: receiving at least one setup message at a network entity from a plurality of front ends, wherein multiple connections are established between the network entity and the plurality of front ends; receiving at least one list of identifiers from the plurality front ends, wherein the at least one list of identifiers received from a first front end of the plurality of front ends has at least one identifier in common with the at least one list of identifiers received from a second front end of the plurality of front ends; choosing , utilising the list of identifiers, at least one of the multiple connections to transmit another message to one of the plurality of front ends which map back to a common set of at least one radio access points, network nodes, or cells; and transmitting the other message from the network entity through the chosen at least one of the multiple connections to the common set of at least one radio access points, network nodes, or cells. receiving at least one setup message at a network entity from a plurality of front ends, wherein multiple connections are established between the network entity and the plurality of front ends; receiving at least one list of identifiers from the plurality front ends, wherein the at least one list of identifiers received from a first front end of the plurality of front ends has at least one identifier in common with the at least one list of identifiers received from a second front end of the plurality of front ends; choosing , utilising the list of identifiers, at least one of the multiple connections to transmit another message to one of the plurality of front ends which map back to a common set of at least one radio access points, network nodes, or cells; and transmitting the other message from the network entity through the chosen at least one of the multiple connections to the common set of at least one radio access points, network nodes, or cells.
A computer-implemented method of providing topographical data of an obscured portion of a partially obscured finish line in a 3D scan of a dental preparation in an intraoral cavity, the method comprising:- (a) obtaining 3D data corresponding to a 3D scan of at least a portion of an intraoral cavity comprising a preparation having the finish line, wherein at least a portion of the finish line, is obscured in the 3D data, wherein the 3D data comprises scan data from scanning performed by a handheld intraoral scanner ; (b) providing, based on the 3D data, a 3D virtual model of the at least a portion of the intraoral cavity; and (c) manipulating said 3D virtual model to identify exposed portions of the finish line in a first portion of the 3D virtual model and to identify a second portion of the 3D virtual model , the second portion comprising spatial regions of the 3D virtual model which would be occupied by said obscured portion of the finish line but from which a portion of the finish line is missing (d) extrapolating the 3D data of the first portion into the second portion to create an auxiliary 3D virtual model corresponding to said obscured portion of said finish line, wherein the extrapolating is based on 3D data from the first portion and an expected profile of the finish line; (e) providing topographical data of the finish line from the virtual model and the said auxiliary virtual model. (a) obtaining 3D data corresponding to a 3D scan of at least a portion of an intraoral cavity comprising a preparation having the finish line, wherein at least a portion of the finish line, is obscured in the 3D data, wherein the 3D data comprises scan data from scanning performed by a handheld intraoral scanner ; (b) providing, based on the 3D data, a 3D virtual model of the at least a portion of the intraoral cavity; and (c) manipulating said 3D virtual model to identify exposed portions of the finish line in a first portion of the 3D virtual model and to identify a second portion of the 3D virtual model , the second portion comprising spatial regions of the 3D virtual model which would be occupied by said obscured portion of the finish line but from which a portion of the finish line is missing (d) extrapolating the 3D data of the first portion into the second portion to create an auxiliary 3D virtual model corresponding to said obscured portion of said finish line, wherein the extrapolating is based on 3D data from the first portion and an expected profile of the finish line; (e) providing topographical data of the finish line from the virtual model and the said auxiliary virtual model.
Method for manufacturing a wood composite, comprising the steps of: - providing an amount or a stream of vegetable fibres ; - providing an amount or a stream of reactive, thermosetting binder, the reactive, thermosetting binder including a reactive component and/or a reactive prepolymer ; characterized, in that the method comprises the steps: - mixing the reactive, thermosetting binder and the vegetable fibres into a reactive composite mixture and feeding the reactive composite mixture to an extrusion device ; - subjecting the reactive composite mixture in the extrusion device to extrusion process conditions; - filling the pores of the vegetable fibres with the reactive, thermosetting binder while simultaneously expelling the air from the pores; - reacting of the reactive, thermosetting binder around the vegetable fibres and within the pores of the vegetable fibres and forming a wood composite at the temperature of the extrusion process conditions; wherein the extrusion process conditions comprise a temperature in the range of 60 °C - 200 °C, and comprise a pressure in the range of 10 - 300 MPa, wherein the viscosity of the reactive, thermosetting binder is in the range from about 0.1 to 100 mPa·s at the extrusion process conditions, wherein the reactive, thermosetting binder is an alkyd resin, or a melamine formaldehyde, or a polyester resin, or an urea formaldehyde, or an acrylic resin, or an epoxy resin, or a polyurethane. - providing an amount or a stream of vegetable fibres ; - providing an amount or a stream of reactive, thermosetting binder, the reactive, thermosetting binder including a reactive component and/or a reactive prepolymer ; - mixing the reactive, thermosetting binder and the vegetable fibres into a reactive composite mixture and feeding the reactive composite mixture to an extrusion device ; - subjecting the reactive composite mixture in the extrusion device to extrusion process conditions; - filling the pores of the vegetable fibres with the reactive, thermosetting binder while simultaneously expelling the air from the pores; - reacting of the reactive, thermosetting binder around the vegetable fibres and within the pores of the vegetable fibres and forming a wood composite at the temperature of the extrusion process conditions; wherein the viscosity of the reactive, thermosetting binder is in the range from about 0.1 to 100 mPa·s at the extrusion process conditions, wherein the reactive, thermosetting binder is an alkyd resin, or a melamine formaldehyde, or a polyester resin, or an urea formaldehyde, or an acrylic resin, or an epoxy resin, or a polyurethane.
Striped jack nervous necrosis virus (SJNNV) for use in the prophylactic treatment of Red-spotted grouper nervous necrosis virus (RGNNV) infection in fish.
A secondary battery comprising: a case that accommodates an electrode assembly, the electrode assembly comprising first and second electrode plates; lead tabs connected to the first electrode plates and the second electrode plates, respectively, and protruding to the outside of the case ; and a protection circuit board electrically connected to the lead tabs , wherein the protection circuit board comprises a conductive pattern and a conductive cell seating region on which one of the lead tabs is seated, wherein the cell seating region is entirely surrounded by a non-conductive blank region , the blank region being between the cell seating region and the conductive pattern ; wherein the blank region electrically isolates the cell seating region from the conductive pattern . a case that accommodates an electrode assembly, the electrode assembly comprising first and second electrode plates; lead tabs connected to the first electrode plates and the second electrode plates, respectively, and protruding to the outside of the case ; and a protection circuit board electrically connected to the lead tabs , wherein the protection circuit board comprises a conductive pattern and a conductive cell seating region on which one of the lead tabs is seated, wherein the cell seating region is entirely surrounded by a non-conductive blank region , the blank region being between the cell seating region and the conductive pattern ; wherein the blank region electrically isolates the cell seating region from the conductive pattern .
A sterilizable fibrous material for the packaging of medical devices intended to be sterilized, characterized in that : the sterilizable fibrous material is in the form of a cardboard having a basis weight of at least 180 g/m 2 , advantageously at least 200 g/m 2 ; and the sterilizable fibrous material comprises a mixture of fibers containing at least 75% by weight of natural cellulose fibers, the length of which is less than 5 mm; and the sterilizable fibrous material has a permeability to air of at least 1.7, preferably at least 3.4, advantageously strictly greater than 3.4 μm/Pa.s at a pressure of 1.47 kPa, measured according to the ISO 5636-3 standard; and the sterilizable fibrous material has pores having a maximum pore diameter less than 50 μm, measured according to appendix C of standard EN 868-3. the sterilizable fibrous material is in the form of a cardboard having a basis weight of at least 180 g/m 2 , advantageously at least 200 g/m 2 ; and the sterilizable fibrous material comprises a mixture of fibers containing at least 75% by weight of natural cellulose fibers, the length of which is less than 5 mm; and the sterilizable fibrous material has a permeability to air of at least 1.7, preferably at least 3.4, advantageously strictly greater than 3.4 μm/Pa.s at a pressure of 1.47 kPa, measured according to the ISO 5636-3 standard; and the sterilizable fibrous material has pores having a maximum pore diameter less than 50 μm, measured according to appendix C of standard EN 868-3.