mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic replacement device (A) of a secondary battery material comprising: a reel support part configured to support a supply reel around which the secondary battery material is wound; a material support part disposed spaced apart from the reel support part and configured to support the secondary battery material unwound from the supply reel ; a clamping part including a clamping roller disposed spaced apart from the reel support part and configured to come into contact with the secondary battery material when replacing the supply reel , a vacuum suction part disposed adjacent to the clamping roller and configured to suction the secondary battery material by vacuum, a clamping frame configured to rotatably support the clamping roller and the vacuum suction part , and a cutter coupled to one side of the clamping frame and configured to cut the secondary battery material when coming into contact with the secondary battery material ; a first drive part disposed spaced apart from the clamping part and configured to move the clamping roller so as to be close to or far from the secondary battery material ; and a second drive part disposed between the clamping part and the first drive part and configured to move the cutter so as to be close to or far from the secondary battery material , wherein when the supply reel is replaced, the secondary battery material is cut while the secondary battery material is suctioned to the vacuum suction part after being adhered to a secondary battery material wound around a replacement supply reel . a reel support part configured to support a supply reel around which the secondary battery material is wound; a material support part disposed spaced apart from the reel support part and configured to support the secondary battery material unwound from the supply reel ; a clamping part including a clamping roller disposed spaced apart from the reel support part and configured to come into contact with the secondary battery material when replacing the supply reel , a vacuum suction part disposed adjacent to the clamping roller and configured to suction the secondary battery material by vacuum, a clamping frame configured to rotatably support the clamping roller and the vacuum suction part , and a cutter coupled to one side of the clamping frame and configured to cut the secondary battery material when coming into contact with the secondary battery material ; a first drive part disposed spaced apart from the clamping part and configured to move the clamping roller so as to be close to or far from the secondary battery material ; and a second drive part disposed between the clamping part and the first drive part and configured to move the cutter so as to be close to or far from the secondary battery material , wherein when the supply reel is replaced, the secondary battery material is cut while the secondary battery material is suctioned to the vacuum suction part after being adhered to a secondary battery material wound around a replacement supply reel .
A method for wireless communication at a user equipment, UE, comprising: receiving resource partitioning information for channel quality indicator, CQI, reporting, the resource partitioning information identifying a first set of subframes associated with a first channel state information, CSI, condition for a serving base station and a second set of subframes associated with a second CSI condition for the serving base station; receiving a first request for aperiodic CQI in a first subframe; reporting a first CQI responsive to the first request for aperiodic CQI, the first CQI comprising CQI for the first CSI condition for a first reference subframe of the first set of subframes having an offset from the first subframe ; receiving a second request for aperiodic CQI in a second subframe; and reporting a second CQI responsive to the second request for aperiodic CQI, the second CQI comprising CQI for the second CSI condition for a second reference subframe of the second set of subframes having another offset from the second subframe. receiving resource partitioning information for channel quality indicator, CQI, reporting, the resource partitioning information identifying a first set of subframes associated with a first channel state information, CSI, condition for a serving base station and a second set of subframes associated with a second CSI condition for the serving base station; receiving a first request for aperiodic CQI in a first subframe; reporting a first CQI responsive to the first request for aperiodic CQI, the first CQI comprising CQI for the first CSI condition for a first reference subframe of the first set of subframes having an offset from the first subframe ; receiving a second request for aperiodic CQI in a second subframe; and reporting a second CQI responsive to the second request for aperiodic CQI, the second CQI comprising CQI for the second CSI condition for a second reference subframe of the second set of subframes having another offset from the second subframe.
A mixer sheath for a vascular catheter, the mixer sheath comprising a tube having a wall patterned with a line of weakness which is configured to cause buckling of a portion of the tube wall when a longitudinal compression force is applied to the tube to form a blood mixing element which extends radially outwards with respect to a location of the portion of the tube wall prior to buckling, characterized in that , in an unbuckled state, the line of weakness extends for at least some of its length in a direction with a non-zero longitudinal component with respect to an axis of the tube.
A motor operated valve comprising: an assembly of a body including a valve section therein, and a motor unit including a stator coated with molding resin, wherein the motor unit includes: a case integrated with the stator by the molding resin, wherein a number of terminals are molded in the case , wherein one of the terminals is a ground terminal and a circuit board provided in the case , the case has an insertion hole , the insertion hole being an insertion trace of a mold component in the molding resin, and a conductive member is inserted in the insertion hole and electrically connected with a ground line of the circuit board , the ground terminal is electrically connected to the conductive member through the ground line formed on the circuit board , wherein the conductive member has one end connected with the ground line and the other end connected with a core of the stator , and wherein a face of the circuit board on which the ground line is formed and one end face of the core face each other in an axial direction of the core , and the conductive member is arranged therebetween. an assembly of a body including a valve section therein, and a motor unit including a stator coated with molding resin, wherein the motor unit includes: a case integrated with the stator by the molding resin, wherein a number of terminals are molded in the case , wherein one of the terminals is a ground terminal and a circuit board provided in the case , a case integrated with the stator by the molding resin, wherein a number of terminals are molded in the case , wherein one of the terminals is a ground terminal and a circuit board provided in the case , the case has an insertion hole , the insertion hole being an insertion trace of a mold component in the molding resin, and a conductive member is inserted in the insertion hole and electrically connected with a ground line of the circuit board , the ground terminal is electrically connected to the conductive member through the ground line formed on the circuit board , wherein the conductive member has one end connected with the ground line and the other end connected with a core of the stator , and wherein a face of the circuit board on which the ground line is formed and one end face of the core face each other in an axial direction of the core , and the conductive member is arranged therebetween.
A signal transmission method, comprising: combining (S110) a plurality of lower-order modulation signals into K higher-order modulation signals; and transmitting (S120) the K higher-order modulation signals through L antennas, characterized by wherein K=4, and L=2; wherein the two antennas comprise a first antenna and a second antenna, the first antenna is corresponding to a first channel and a second channel, the second antenna is corresponding to the first channel and the second channel, and a higher-order modulation signal transmitted on the first channel corresponding to the first antenna and a higher-order modulation signal transmitted on the second channel corresponding to the second antenna are obtained by combining same lower-order modulation signals; wherein the combining (S110) a plurality of lower-order modulation signals into K higher-order modulation signals comprises: determining the K higher-order modulation signals based on the plurality of lower-order modulation signals and a channel matrix Q. combining (S110) a plurality of lower-order modulation signals into K higher-order modulation signals; and transmitting (S120) the K higher-order modulation signals through L antennas, characterized by wherein K=4, and L=2; wherein the two antennas comprise a first antenna and a second antenna, the first antenna is corresponding to a first channel and a second channel, the second antenna is corresponding to the first channel and the second channel, and a higher-order modulation signal transmitted on the first channel corresponding to the first antenna and a higher-order modulation signal transmitted on the second channel corresponding to the second antenna are obtained by combining same lower-order modulation signals; wherein the combining (S110) a plurality of lower-order modulation signals into K higher-order modulation signals comprises: determining the K higher-order modulation signals based on the plurality of lower-order modulation signals and a channel matrix Q.
A high-resolution microscopy device comprising a light source, a sample area , a plurality of focusing micromirrors and a plurality of detector elements wherein said sample area is located in the focus area of said micromirrors, wherein each focusing micromirror is adapted to collect and direct a sample information towards said detector elements , the high-resolution microscopy device being characterized in that it further comprises an imaging optical system and one or a plurality of aperture stops for filtering out collected sample information that is not originating from foci of the micromirrors for confocal detection, and a translation mechanism adapted for establishing a relative motion between said sample area and said plurality of focusing micromirrors to provide a plurality of positions of the micromirrors relative to the sample area for producing a scanned confocal image of the sample.
A joining device , comprising a joining press arranged to join components to an assembly in a processing area, wherein the joining press has a first side and a second side, wherein the first side and the second side being opposite sides of the joining press , a first handling device arranged to move at least one component to the first side of the joining press , and a second handling device which is arranged to move at least one further component to the second side of the joining press towards the processing area of the joining press , wherein the first handling device and/or the second handling device is/are arranged to hold a component during a joining operation of the joining press , characterized in that the first handling device and the second handling device are configured as multi-axis robots. a joining press arranged to join components to an assembly in a processing area, wherein the joining press has a first side and a second side, wherein the first side and the second side being opposite sides of the joining press , a first handling device arranged to move at least one component to the first side of the joining press , and a second handling device which is arranged to move at least one further component to the second side of the joining press towards the processing area of the joining press , wherein the first handling device and/or the second handling device is/are arranged to hold a component during a joining operation of the joining press , characterized in that the first handling device and the second handling device are configured as multi-axis robots.
Robot system with a robot manipulator and with a control unit for the robot manipulator and with a control unit , wherein the robot manipulator comprises a plurality of members connected by joints with at least partially redundant degrees of freedom in such a way that at least a subset of the members of the robot manipulator can be moveable within a zero space without changing a position and/or orientation of a distal end of the robot manipulator , wherein the control unit is designed to detect an input from a user regarding at least one selected direction of a force and/or a torque at the distal end of the robot manipulator and to transmit the detected input to the control unit , characterized in that the control unit is designed to determine components of a transposed element of a Jacobian matrix belonging to the respective selected direction for a given position and/or orientation of the distal end of the robot manipulator within the zero space in such a way that a first metric based on the components satisfies one of the following criteria: not equal to zero, greater than a predetermined limit value as a maximum; and the control unit is designed to control the robot manipulator to move the subset of members within the zero space to assume a pose in accordance with the determined components of the transposed element of the Jacobian matrix. the control unit is designed to determine components of a transposed element of a Jacobian matrix belonging to the respective selected direction for a given position and/or orientation of the distal end of the robot manipulator within the zero space in such a way that a first metric based on the components satisfies one of the following criteria: not equal to zero, greater than a predetermined limit value as a maximum; and the control unit is designed to control the robot manipulator to move the subset of members within the zero space to assume a pose in accordance with the determined components of the transposed element of the Jacobian matrix.
A method of detecting a substituted or nonsubstituted mono-, di- or tri- picolinic acid in a sample of a peracid composition comprising; adding to said sample an effective amount of a reducing agent to form a sample solution and so that peracid is reduced, assaying said sample solution with florescence detection.
A method of producing a component incorporating a bioactive material wherein the method comprises: (a) using a twin-screw extruder to mix a polymeric material (I) with a bioactive material (II) and melt the polymeric material (I); and (b) making a component by moulding; and wherein the polymeric material (I) comprises polyetheretherketone (PEEK); wherein the bioactive material (II) comprises hydroxyapatite wherein the component comprises polymeric material (I) in an amount of between 75% and 85% by weight of the component and bioactive material (II) in an amount of between 15% and 25% by weight of the component; and wherein the component comprises a polymeric material-bioactive material composite having a tensile strength of at least 80MPa. (a) using a twin-screw extruder to mix a polymeric material (I) with a bioactive material (II) and melt the polymeric material (I); and (b) making a component by moulding; and wherein the polymeric material (I) comprises polyetheretherketone (PEEK); wherein the bioactive material (II) comprises hydroxyapatite wherein the component comprises polymeric material (I) in an amount of between 75% and 85% by weight of the component and bioactive material (II) in an amount of between 15% and 25% by weight of the component; and wherein the component comprises a polymeric material-bioactive material composite having a tensile strength of at least 80MPa.
Bolus for administration into a forestomach of a ruminant, wherein the bolus comprises a mixture of crude fibres and at least one binder , wherein the mixture of crude fibres and the at least one binder accounts for a proportion of at least 20% of the volume of the bolus and wherein the crude fibres stimulate the forestomach by means of mechanical stimuli on the walls of the forestomach.
A method for sorting of items based on material type, comprising: - depositing (S1) an array of nanostructures onto a surface portion of an item to form a material identification tag , the nanostructures having an optical response dependent on a material type of the item onto which they are deposited, - illuminating (S2) the material identification tag , - detecting (S3) an optical extinction and/or reflectance spectrum of the illuminated material identification tag , which optical extinction and/or reflectance spectrum is dependent on the material type of the item in that the refractive index of the material influences an optical extinction and/or reflectance peak of the array of nanostructures forming the material identification tag, - categorizing (S4) the item into one category of a plurality of predetermined categories according to material type based on the detected optical extinction and/or reflectance spectrum, wherein categorizing the item comprises comparing at least peak positions and/or peak widths and/or peak heights of the detected optical extinction and/or reflectance spectrum to predetermined ranges or threshold values, which have been determined beforehand for a variety of material types, and - sorting (S5) the item according to material type of the item in accordance with the categorization, wherein depositing the array of nanostructures comprises using the same type of nanostructures for all items to be sorted, thus forming, within deposition tolerances, identical material identification tags. - depositing (S1) an array of nanostructures onto a surface portion of an item to form a material identification tag , the nanostructures having an optical response dependent on a material type of the item onto which they are deposited, - illuminating (S2) the material identification tag , - detecting (S3) an optical extinction and/or reflectance spectrum of the illuminated material identification tag , which optical extinction and/or reflectance spectrum is dependent on the material type of the item in that the refractive index of the material influences an optical extinction and/or reflectance peak of the array of nanostructures forming the material identification tag, - categorizing (S4) the item into one category of a plurality of predetermined categories according to material type based on the detected optical extinction and/or reflectance spectrum, wherein categorizing the item comprises comparing at least peak positions and/or peak widths and/or peak heights of the detected optical extinction and/or reflectance spectrum to predetermined ranges or threshold values, which have been determined beforehand for a variety of material types, and - sorting (S5) the item according to material type of the item in accordance with the categorization,
A router comprising: an ingress port for receiving network data packets from a plurality of source nodes of a plurality of networks, each network data packet having a destination address; an egress port for transmitting the network data packets to at least one destination node; M+1 virtual routing and forwarding instances, VRFIs , for routing at least one of the network data packets to at least one of M service appliances , M being an integer greater than one; wherein at least two of the M service appliances form a service chain, the M+1 VRFIs comprise a VRFI for each of the M service appliances and an additional VRFI, the additional VRFI is either for the ingress port or the egress port of the router; and a persistent store for storing a plurality of routing tables, each routing table defining a plurality of routing rules for a VRFI of the M+1 VRFIs based on the destination addresses of the network data packets. an ingress port for receiving network data packets from a plurality of source nodes of a plurality of networks, each network data packet having a destination address; an egress port for transmitting the network data packets to at least one destination node; M+1 virtual routing and forwarding instances, VRFIs , for routing at least one of the network data packets to at least one of M service appliances , M being an integer greater than one; wherein at least two of the M service appliances form a service chain, the M+1 VRFIs comprise a VRFI for each of the M service appliances and an additional VRFI, the additional VRFI is either for the ingress port or the egress port of the router; and a persistent store for storing a plurality of routing tables, each routing table defining a plurality of routing rules for a VRFI of the M+1 VRFIs based on the destination addresses of the network data packets.
Transport and loading assembly for a motor vehicle , such as in particular a passenger car, with a loading space extending up to a rear opening , with a transport car which comprises a chassis with multiple rollers and at least one transport mount , wherein the chassis can be adjusted between a transport position and a loading position, and with a loading device which can be installed in the loading space and which has a loading mechanism for loading and/or unloading the transport car into or out of the loading space , wherein the transport car has an electrically operated height adjustment apparatus by means of which a height (H, H1, H2) of the transport car can be adjusted in the transport position, characterized in that the chassis has an at least partially telescopic linkage for adjusting the height (H, H1, H2) of the transport car , and three rollers are held on a respective telescopic apparatus , wherein the telescopic apparatuses are adjustable independently of one another. with a transport car which comprises a chassis with multiple rollers and at least one transport mount , wherein the chassis can be adjusted between a transport position and a loading position, and with a loading device which can be installed in the loading space and which has a loading mechanism for loading and/or unloading the transport car into or out of the loading space , wherein the transport car has an electrically operated height adjustment apparatus by means of which a height (H, H1, H2) of the transport car can be adjusted in the transport position, characterized in that the chassis has an at least partially telescopic linkage for adjusting the height (H, H1, H2) of the transport car , and three rollers are held on a respective telescopic apparatus , wherein the telescopic apparatuses are adjustable independently of one another.
Use of an aromatic polyphenol derivative comprising at least one aromatic ring bearing at least two -O-Z groups in the meta position relative to one another, the two positions ortho to at least one of the -O-Z groups being unsubstituted, and in which each -O-Z group represents an -O-Si(R 1 R 2 R 3 ) group with R 1 , R 2 , R 3 representing, independently of one another, a hydrocarbon-based radical or a substituted hydrocarbon-based radical, for the manufacture of a phenol-aldehyde resin for reinforcing a rubber composition.