mhurhangee/patent-ind-claim-en huggingface dataset:
A device for elastic pivoting about two orthogonal axes, comprising an inner frame and an outer frame , the inner frame concentrically arranged with the outer frame , a first and a second flexible spring element , the first and second flexible spring elements each having proximal and distal ends , the proximal end of the first flexible spring element being integrally formed with the inner frame and extending away from the inner frame , and the distal end of the first flexible spring element being integrally formed with the outer frame and extending away from the outer frame , and being located diagonally opposite to the second flexible spring element , the proximal end of the second flexible spring element being integrally formed with the inner frame and extending away from the inner frame , and the distal end of the second flexible spring element being integrally formed with the outer frame and extending away from the outer frame , a third and a fourth flexible spring element , the third and fourth flexible spring elements each having proximal and distal ends , the proximal end of the third flexible spring element being integrally formed with the outer frame and extending away from the outer frame , and being located diagonally opposite to the fourth flexible spring element , the proximal end of the fourth flexible spring element being integrally formed with the outer frame and extending away from the outer frame , the first to fourth flexible spring elements being placed so that the first and second flexible spring elements provide elastic rotation of the inner frame with respect to the outer frame about a first axis and the third and fourth flexible spring elements provide elastic rotation of the outer frame about a second axis orthogonal with the first axis, characterized by the proximal end of the first flexible spring element extending out of a plane in which the inner frame lies, the distal end of the first flexible spring element extending out of a plane in which the outer frame lies, the proximal end of the second flexible spring element extending out of the plane in which the inner frame lies, the distal end of the second flexible spring element extending out of the plane in which the outer frame lies, the proximal end of the third flexible spring element extending out of the plane in which the outer frame lies, the proximal end of the fourth flexible spring element extending out of the plane in which the outer frame lies.
A method for performing category-based access control by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S100) barring information mapped to multiple signaling categories from a network, wherein each of the multiple signaling categories corresponds to one or more procedures, wherein the one or more procedures includes one or more non-access stratum, NAS, procedures and one or more radio resource control, RRC, procedures; initiating an update procedure related to a radio access network, RAN, based area among the one or more procedures; determining (S110), by a RRC layer of the UE, a signaling category, among the multiple signaling categories, corresponding to the initiation of the update procedure related to the RAN based area; performing (S120) the category-based access control for the determined signaling category based on the barring information; and transmitting, to the network, a RRC message for the update procedure related to the RAN based area upon that the update procedure related to the RAN based area is not barred as a result of the category-based access control for the determined signaling category. receiving (S100) barring information mapped to multiple signaling categories from a network, wherein each of the multiple signaling categories corresponds to one or more procedures, wherein the one or more procedures includes one or more non-access stratum, NAS, procedures and one or more radio resource control, RRC, procedures; initiating an update procedure related to a radio access network, RAN, based area among the one or more procedures; determining (S110), by a RRC layer of the UE, a signaling category, among the multiple signaling categories, corresponding to the initiation of the update procedure related to the RAN based area; performing (S120) the category-based access control for the determined signaling category based on the barring information; and transmitting, to the network, a RRC message for the update procedure related to the RAN based area upon that the update procedure related to the RAN based area is not barred as a result of the category-based access control for the determined signaling category.
A filter medium comprising: a porous film that comprises polytetrafluoroethylene, has an average pore diameter of 2.5 μm or more, has a thickness of 5 to 10 μm, and has a porosity of 95% or more; wherein the polytetrafluoroethylene has a molecular weight distribution Mw/Mn of 4.0 or more; the polytetrafluoroethylene of the porous film contains modified polytetrafluoroethylene at 90 weight % or more, the modified polytetrafluoroethylene being a copolymer of tetrafluoroethylene and a comonomer; and the porous film does not contain homogeneous polytetrafluoroethylene or comprises homogeneous polytetrafluoroethylene at less than 10% by weight; and a support material that supports the porous film, wherein pressure loss when air is passed through the filter medium at a velocity of 5.3 cm/sec is less than 100 Pa, the collection efficiency of NaCl particles when air including NaCl particles with a particle diameter of 0.3 μm is passed through the filter medium at a velocity of 5.3 cm/sec is 95% or more, the PF value calculated in accordance with the equation PF = {-log[(100-collection efficiency (%))/100]/pressure loss (Pa)} × 1000 from the pressure loss and the collection efficiency is 30 or more, and the dust holding capacity of polyalphaolefin particles held in the filter medium when air including polyalphaolefin particles with a count median diameter of 0.25 μm is continuously passed through the filter medium at a velocity of 5.3 cm/sec and pressure loss reaches 300 Pa is 15 g/m 2 or more. a porous film that comprises polytetrafluoroethylene, has an average pore diameter of 2.5 μm or more, has a thickness of 5 to 10 μm, and has a porosity of 95% or more; wherein the polytetrafluoroethylene has a molecular weight distribution Mw/Mn of 4.0 or more; the polytetrafluoroethylene of the porous film contains modified polytetrafluoroethylene at 90 weight % or more, the modified polytetrafluoroethylene being a copolymer of tetrafluoroethylene and a comonomer; and the porous film does not contain homogeneous polytetrafluoroethylene or comprises homogeneous polytetrafluoroethylene at less than 10% by weight; and a support material that supports the porous film, wherein pressure loss when air is passed through the filter medium at a velocity of 5.3 cm/sec is less than 100 Pa, the collection efficiency of NaCl particles when air including NaCl particles with a particle diameter of 0.3 μm is passed through the filter medium at a velocity of 5.3 cm/sec is 95% or more, the PF value calculated in accordance with the equation PF = {-log[(100-collection efficiency (%))/100]/pressure loss (Pa)} × 1000 from the pressure loss and the collection efficiency is 30 or more, and the dust holding capacity of polyalphaolefin particles held in the filter medium when air including polyalphaolefin particles with a count median diameter of 0.25 μm is continuously passed through the filter medium at a velocity of 5.3 cm/sec and pressure loss reaches 300 Pa is 15 g/m 2 or more.
A method, comprising: printing a three-dimensional object with a print material comprising polymer and magnetic particles; heating the 3D object to a temperature at approximately a melting temperature of the polymer; and characterized by applying a magnetic field to the 3D object to locally move the magnetic particles in the polymer to generate heat and fuse the polymer around the magnetic particles to improve a z-axis strength of the 3D object, wherein the applying comprises oscillating the magnetic field to generate local movement of the magnetic particles. printing a three-dimensional object with a print material comprising polymer and magnetic particles; heating the 3D object to a temperature at approximately a melting temperature of the polymer; and characterized by applying a magnetic field to the 3D object to locally move the magnetic particles in the polymer to generate heat and fuse the polymer around the magnetic particles to improve a z-axis strength of the 3D object, wherein the applying comprises oscillating the magnetic field to generate local movement of the magnetic particles.
Conveyor belt system having a conveyor belt and having drivers fastened to the conveyor belt on an upper side , wherein the drivers have recesses facing the upper side of the conveyor belt for the insertion of a connecting element , and wherein the drivers are connected to the conveyor belt in each case by means of a connecting element pressed into the conveyor belt and into the recess , from the underside of the conveyor belt , characterized in that the connecting element has barbs which connect the connecting element to the driver , and the barbs extend counter to the insertion direction of the connecting element ..
A hydroelectric power generation apparatus comprising: a hydraulic turbine ; a braking force generation unit configured to apply a braking force to rotation of the hydraulic turbine ; and a controller configured to control the braking force generation unit to repeat increasing and decreasing the braking force to vary a rotational speed of the hydraulic turbine or stop the hydraulic turbine from rotating, characterized in that the controller is configured to perform a braking-force control to control the braking force generation unit to repeat increasing and decreasing the braking force when an operating condition for a debris removal operation is established, and the operating condition for a debris removal operation includes that an amount of power generated by the hydroelectric power generation unit decreases below a threshold value, or a rotation speed of the hydraulic turbine decreases below a threshold value, or a voltage of the hydroelectric power generation apparatus decreases below a threshold value, or a predetermined period of time has passed since the braking-force control was immediately previously performed. a hydraulic turbine ; a braking force generation unit configured to apply a braking force to rotation of the hydraulic turbine ; and a controller configured to control the braking force generation unit to repeat increasing and decreasing the braking force to vary a rotational speed of the hydraulic turbine or stop the hydraulic turbine from rotating, characterized in that the controller is configured to perform a braking-force control to control the braking force generation unit to repeat increasing and decreasing the braking force when an operating condition for a debris removal operation is established, and the operating condition for a debris removal operation includes that an amount of power generated by the hydroelectric power generation unit decreases below a threshold value, or a rotation speed of the hydraulic turbine decreases below a threshold value, or a voltage of the hydroelectric power generation apparatus decreases below a threshold value, or a predetermined period of time has passed since the braking-force control was immediately previously performed. an amount of power generated by the hydroelectric power generation unit decreases below a threshold value, or a rotation speed of the hydraulic turbine decreases below a threshold value, or a voltage of the hydroelectric power generation apparatus decreases below a threshold value, or a predetermined period of time has passed since the braking-force control was immediately previously performed.
A system for removing material, comprising: a high-pressure fluid connector ; and a bit , including: a bit body ; a high-pressure fluid conduit located in the bit body and in fluid communication with the high-pressure fluid connector ; and a high-pressure nozzle coupled to the bit body and in fluid communication with the high-pressure fluid conduit ; a low-pressure nozzle ; a low-pressure fluid conduit located in the bit body and in fluid communication with a bit plenum and the low-pressure nozzle ; wherein the high-pressure fluid connector is coupled to the high-pressure fluid conduit via a high-pressure connection interface , and the high-pressure connection interface is at least partially within and fluidly isolated from the low-pressure conduit , the high-pressure connection interface comprising a swivel connection . a high-pressure fluid connector ; and a bit , including: a bit body ; a high-pressure fluid conduit located in the bit body and in fluid communication with the high-pressure fluid connector ; and a high-pressure nozzle coupled to the bit body and in fluid communication with the high-pressure fluid conduit ; a low-pressure nozzle ; a low-pressure fluid conduit located in the bit body and in fluid communication with a bit plenum and the low-pressure nozzle ; wherein the high-pressure fluid connector is coupled to the high-pressure fluid conduit via a high-pressure connection interface , and the high-pressure connection interface is at least partially within and fluidly isolated from the low-pressure conduit , the high-pressure connection interface comprising a swivel connection . a bit body ; a high-pressure fluid conduit located in the bit body and in fluid communication with the high-pressure fluid connector ; and a high-pressure nozzle coupled to the bit body and in fluid communication with the high-pressure fluid conduit ; a low-pressure nozzle ; a low-pressure fluid conduit located in the bit body and in fluid communication with a bit plenum and the low-pressure nozzle ; wherein the high-pressure fluid connector is coupled to the high-pressure fluid conduit via a high-pressure connection interface , and the high-pressure connection interface is at least partially within and fluidly isolated from the low-pressure conduit , the high-pressure connection interface comprising a swivel connection .
Method for operating a hybrid drive device of a motor vehicle , the hybrid drive device having an internal combustion engine that can be operatively connected to a first axle of the motor vehicle , a first electric motor that can likewise be operatively connected to the first axle , and a second electric motor that can be operatively connected to a second axle of the motor vehicle , wherein the electrical energy used to operate the second electric motor is generated in a first operating mode by the first electric motor driven by the internal combustion engine with an increase in its output and in a second operating mode is taken exclusively from an energy store for electrical energy, and wherein in a third operating mode the energy store is charged by means of the first electric motor driven by the internal combustion engine with an increase in its output, characterised in that, when a torque generated by the second electric motor is requested when the charge level of the energy storage device falls below a first threshold value, the first operating mode and otherwise the second operating mode is selected, and in that the third operating mode is selected when no torque generated by the second electric motor is requested and a noise emission expected during the charging of the energy storage device by the increase of the output of the internal combustion engine is smaller than a limit value, wherein the third operating mode is selected only when the charge level of the energy store is smaller than a second threshold value that is different to the first threshold value.
A compound of the formula (A): wherein n1, n2, and n3 are independently 1, 2, 3, or 4; X and X' are independently a bond, oxygen, or nitrogen; R 1 and R 2 are independently C 8 -C 25 hydrocarbon groups optionally containing from 1-4 double or triple bonds; and G is a polymer moiety. n1, n2, and n3 are independently 1, 2, 3, or 4; X and X' are independently a bond, oxygen, or nitrogen; R 1 and R 2 are independently C 8 -C 25 hydrocarbon groups optionally containing from 1-4 double or triple bonds; and G is a polymer moiety.
A radio access network node referred to as master radio access network node for dual connectivity operation, such as master eNodeB for evolved universal terrestrial radio access network, adapted to: - signal to a radio access network node referred to as secondary radio access network node for said dual connectivity operation, such as secondary eNodeB for evolved universal terrestrial radio access network, for offload to said secondary radio access network node of a bearer involving a local gateway collocated with said master radio access network node, addressing information of said local gateway enabling routing of uplink traffic by said secondary radio access network node to said local gateway. - signal to a radio access network node referred to as secondary radio access network node for said dual connectivity operation, such as secondary eNodeB for evolved universal terrestrial radio access network, for offload to said secondary radio access network node of a bearer involving a local gateway collocated with said master radio access network node, addressing information of said local gateway enabling routing of uplink traffic by said secondary radio access network node to said local gateway.
Window spacer, comprising: - a spacer substrate comprising two pane contact surfaces , an adhesive surface and a glazing interior surface ; - a multilayer barrier film being in contact with the adhesive surface of the spacer substrate , wherein said multilayer barrier film comprises: - at least two first polymeric layers ; and - at least two inorganic layers , said inorganic layers having a thickness between between 10 and 400 nm, preferably between 10 and 200 nm, more preferably between 30 and 100 nm, most preferably between 20 and 100 nm, said inorganic layers being separated by a second polymeric layer , characterised in that said second polymeric layer has a thickness lower than 4 μm, more preferably having a thickness between 1 μm and 4 μm. - a spacer substrate comprising two pane contact surfaces , an adhesive surface and a glazing interior surface ; - a multilayer barrier film being in contact with the adhesive surface of the spacer substrate , wherein said multilayer barrier film comprises: - at least two first polymeric layers ; and - at least two inorganic layers , said inorganic layers having a thickness between between 10 and 400 nm, preferably between 10 and 200 nm, more preferably between 30 and 100 nm, most preferably between 20 and 100 nm, said inorganic layers being separated by a second polymeric layer , characterised in that said second polymeric layer has a thickness lower than 4 μm, more preferably having a thickness between 1 μm and 4 μm. - at least two first polymeric layers ; and - at least two inorganic layers , said inorganic layers having a thickness between between 10 and 400 nm, preferably between 10 and 200 nm, more preferably between 30 and 100 nm, most preferably between 20 and 100 nm, said inorganic layers being separated by a second polymeric layer , characterised in that said second polymeric layer has a thickness lower than 4 μm, more preferably having a thickness between 1 μm and 4 μm.
An ethylene-vinyl alcohol copolymer composition comprising: (A) an ethylene-vinyl alcohol copolymer; and (B) sorbic acid; characterized in that the ethylene-vinyl alcohol copolymer composition further comprises: (C) a sorbic acid ester; wherein the sorbic acid ester (C) is present in an amount of 0.00001 to 10 ppm based on the weight of the ethylene-vinyl alcohol copolymer composition; and wherein sorbic acid (B) and the sorbic acid ester (C) are present in a weight ratio (B)/(C) of 100 to 100,000. (A) an ethylene-vinyl alcohol copolymer; and (B) sorbic acid; characterized in that the ethylene-vinyl alcohol copolymer composition further comprises: (C) a sorbic acid ester; wherein the sorbic acid ester (C) is present in an amount of 0.00001 to 10 ppm based on the weight of the ethylene-vinyl alcohol copolymer composition; and wherein sorbic acid (B) and the sorbic acid ester (C) are present in a weight ratio (B)/(C) of 100 to 100,000. wherein the sorbic acid ester (C) is present in an amount of 0.00001 to 10 ppm based on the weight of the ethylene-vinyl alcohol copolymer composition; and wherein sorbic acid (B) and the sorbic acid ester (C) are present in a weight ratio (B)/(C) of 100 to 100,000.
A safety laser scanner for detecting objects in a monitored area , comprising a light emitter for emitting a light beam into the monitored area , a light receiver for generating a received signal from the light beam remitted from the objects, a rotatable deflection unit for periodically deflecting the light beam to scan the monitored area as it moves, an internal reference target which reflects the emitted light beam within the safety laser scanner back to the light receiver in order to generate a reference signal, and having a control and evaluation unit which is designed to detect objects on the basis of the received signal and to check the operability of the safety laser scanner on the basis of the reference signal, characterised in that the control and evaluation unit is designed to detect an intensity distribution of the reference signal when the light beam sweeps over the reference target and is further designed to output a warning signal in the event of a deviation in the shape of the intensity distribution of the reference signal from a predefined reference shape of the intensity distribution beyond a predetermined tolerance, and in that the control and evaluation unit is designed to derive from the intensity distribution a measure of dew formation on the reference target and the warning signal is a signal which reflects the degree of moisture in the interior of the safety laser scanner.
A method for producing an illumination component with at least one spacer arranged thereon, which spacer is being provided as a gap limiter, which method provides, that initially at least one elastic part is being produced as spacer by injection moulding of a first component, and subsequently after the at least partial solidification of the first component the illumination component is injected onto the at least one elastic part as a spacer by injection moulding of a second component onto the at least one part already produced by injection moulding of the first component or by partially overmoulding the at least one part already produced by injection moulding of the first component by injection moulding of the second component, wherein pre-mouldings provided to be the elastic parts are themselves already produced by multi-component injection moulding, wherein a part of the material provided for the illumination component is injected onto a part of the elastic part consisting of elastic material.