mhurhangee/patent-ind-claim-en huggingface dataset:
A vertebral fixation device comprising: an expanding device having a fixing end and a top end , wherein the expanding device is configured to be adjusted between an expanded state and a contracted state; and a three-dimensional porous device having a front end and a connecting end , wherein the front end of the three-dimensional porous device is connected with the top end of the expanding device , and the connecting end of the three-dimensional porous device is adapted for fixing to the fixing end of the expanding device ; characterized in that the three-dimensional porous device is disposed inside the expanding device , and in that the expanding device and the three-dimensional porous device are configured to be placed into the vertebrae, the expanding device is configured to be adjusted to an expanded state to expand a space, and the three-dimensional porous device inside the expanding device is configured to expand and fill into the space, a medical filler is fillable into the three-dimensional porous device from the fixing end of the expanding device , and in that the three-dimensional porous device is configured effectively to control a flow direction and infusion range of the medical filler. an expanding device having a fixing end and a top end , wherein the expanding device is configured to be adjusted between an expanded state and a contracted state; and a three-dimensional porous device having a front end and a connecting end , wherein the front end of the three-dimensional porous device is connected with the top end of the expanding device , and the connecting end of the three-dimensional porous device is adapted for fixing to the fixing end of the expanding device ; characterized in that the three-dimensional porous device is disposed inside the expanding device , and in that the expanding device and the three-dimensional porous device are configured to be placed into the vertebrae, the expanding device is configured to be adjusted to an expanded state to expand a space, and the three-dimensional porous device inside the expanding device is configured to expand and fill into the space, a medical filler is fillable into the three-dimensional porous device from the fixing end of the expanding device , and in that the three-dimensional porous device is configured effectively to control a flow direction and infusion range of the medical filler.
A facet distraction prosthesis comprising: an array of facet distraction base elements , adjacent ones of said base elements being connected to each other by a set of connector elements located at said adjacent ones of said base elements; wherein said set of connector elements comprises a male connector having an at least partial cylindrical or spherical contour that is received in, and articulates with, an at least partial cylindrical or spherical recess of a female connector so that adjacent ones of said base elements can bend in multiple degrees of freedom about different bending axes with respect to each other and adapt to a geometry of a facet joint. an array of facet distraction base elements , adjacent ones of said base elements being connected to each other by a set of connector elements located at said adjacent ones of said base elements; wherein said set of connector elements comprises a male connector having an at least partial cylindrical or spherical contour that is received in, and articulates with, an at least partial cylindrical or spherical recess of a female connector so that adjacent ones of said base elements can bend in multiple degrees of freedom about different bending axes with respect to each other and adapt to a geometry of a facet joint.
A rail vehicle , having: a grid converter ; a traction converter connected to the grid converter via a DC voltage intermediate circuit for supplying a traction motor of the rail vehicle ; an auxiliary converter connected to the DC intermediate circuit for supplying auxiliary systems; and a traction battery connected to the DC intermediate circuit , wherein the traction battery is configured to supply the DC intermediate circuit with current when passing through a separation point; wherein, during normal operation, the rail vehicle is supplied with electrical energy via an electrical grid; and the traction battery is charged with electrical energy from the DC intermediate circuit ; wherein the rail vehicle is configured to be operated in a hybrid operating mode, wherein, outside of the separation point, the grid converter is supplied with external electrical energy, and the DC intermediate circuit is only supplied with electrical energy from the traction battery, or the DC intermediate circuit is supplied both with external electrical energy and also with electrical energy from the traction battery; wherein the rail vehicle is configured to generate an operating point analysis of the rail vehicle to determine whether the normal operation or the hybrid operating mode is carried out; wherein the operating point analysis includes the determination of an efficiency in an operating point for energy supply only by external electrical energy, for energy supply only by the traction battery, and also for energy supply by both external energy and also by the traction battery. a grid converter ; a traction converter connected to the grid converter via a DC voltage intermediate circuit for supplying a traction motor of the rail vehicle ; an auxiliary converter connected to the DC intermediate circuit for supplying auxiliary systems; and a traction battery connected to the DC intermediate circuit , wherein the traction battery is configured to supply the DC intermediate circuit with current when passing through a separation point; wherein, during normal operation, the rail vehicle is supplied with electrical energy via an electrical grid; and the traction battery is charged with electrical energy from the DC intermediate circuit ; wherein the rail vehicle is configured to be operated in a hybrid operating mode, wherein, outside of the separation point, the grid converter is supplied with external electrical energy, and the DC intermediate circuit is only supplied with electrical energy from the traction battery, or the DC intermediate circuit is supplied both with external electrical energy and also with electrical energy from the traction battery; wherein the rail vehicle is configured to generate an operating point analysis of the rail vehicle to determine whether the normal operation or the hybrid operating mode is carried out; wherein the operating point analysis includes the determination of an efficiency in an operating point for energy supply only by external electrical energy, for energy supply only by the traction battery, and also for energy supply by both external energy and also by the traction battery.
A solid electrolytic capacitor comprising: a capacitor element that contains a sintered porous anode body, a dielectric that overlies the anode body, and a solid electrolyte that overlies the dielectric; a lead wire that is in electrical contact with the anode body and contains a first region that is located adjacent to a surface of the capacitor element , wherein the lead wire contains a core that extends outwardly from the surface of the capacitor element , and further wherein an oxide layer coats at least a portion of the core within the first region , and wherein the oxide layer is discontinuous and defines one or more gaps; an anode termination that is in electrical connection with the lead wire ; and a cathode termination that is in electrical connection with the solid electrolyte. a capacitor element that contains a sintered porous anode body, a dielectric that overlies the anode body, and a solid electrolyte that overlies the dielectric; a lead wire that is in electrical contact with the anode body and contains a first region that is located adjacent to a surface of the capacitor element , wherein the lead wire contains a core that extends outwardly from the surface of the capacitor element , and further wherein an oxide layer coats at least a portion of the core within the first region , and wherein the oxide layer is discontinuous and defines one or more gaps; an anode termination that is in electrical connection with the lead wire ; and a cathode termination that is in electrical connection with the solid electrolyte.
A method of fabricating a layer of an electronic product, the method comprising: depositing material onto a substrate using an inkjet printer; transporting the substrate during deposition of the material using a conveyance system comprising a floatation table to support the substrate on a gas bearing, and a gripper to operatively engage the substrate and transport the substrate along a transport path, relative to the floatation table; wherein at least one of the printer or the gripper has a component advanced along the transport path, wherein advancement of the component is characterized by mechanical imperfections that create at least one error of translational error and rotational error affecting deposition of the material on the substrate; and characterised in that the method further comprising the step of driving at least one transducer operatively coupled to the gripper, as a function of said at least one error so as to offset the substrate relative to the advancement of the component, so as to compensate for said mechanical imperfections, wherein each transducer of the at least one transducer is to displace the substrate linearly in a dimension orthogonal to the transport path. depositing material onto a substrate using an inkjet printer; transporting the substrate during deposition of the material using a conveyance system comprising a floatation table to support the substrate on a gas bearing, and a gripper to operatively engage the substrate and transport the substrate along a transport path, relative to the floatation table; wherein at least one of the printer or the gripper has a component advanced along the transport path, wherein advancement of the component is characterized by mechanical imperfections that create at least one error of translational error and rotational error affecting deposition of the material on the substrate; and characterised in that the method further comprising the step of driving at least one transducer operatively coupled to the gripper, as a function of said at least one error so as to offset the substrate relative to the advancement of the component, so as to compensate for said mechanical imperfections, wherein each transducer of the at least one transducer is to displace the substrate linearly in a dimension orthogonal to the transport path.
A method performed by a terminal for determining system information validity, the method comprising: receiving a first system information block 1, SIB1, including a first public land mobile network, PLMN, identity list comprised of multiple PLMNs and at least one first value tag for at least one system information block, SIB; receiving an SIB based on scheduling information for the SIB in the first SIB1 storing at least part of the first SIB1 and the SIB, wherein the stored at least part of the first SIB1 comprises a first entry of the first PLMN identity list and a value tag for the SIB in the first SIB1; performing cell reselection based on the received SIB and receiving , from a camped cell, a second SIB1 including a second PLMN identity list and at least one second value tag for at least one SIB; and determining that the stored SIB is valid for the cell based on: a first entry of the second PLMN identity list in the second SIB1 being identical to the stored first entry, and a value tag for the SIB in the second SIB1 being identical to the stored value tag. receiving a first system information block 1, SIB1, including a first public land mobile network, PLMN, identity list comprised of multiple PLMNs and at least one first value tag for at least one system information block, SIB; receiving an SIB based on scheduling information for the SIB in the first SIB1 storing at least part of the first SIB1 and the SIB, wherein the stored at least part of the first SIB1 comprises a first entry of the first PLMN identity list and a value tag for the SIB in the first SIB1; performing cell reselection based on the received SIB and receiving , from a camped cell, a second SIB1 including a second PLMN identity list and at least one second value tag for at least one SIB; and determining that the stored SIB is valid for the cell based on: a first entry of the second PLMN identity list in the second SIB1 being identical to the stored first entry, and a value tag for the SIB in the second SIB1 being identical to the stored value tag. a first entry of the second PLMN identity list in the second SIB1 being identical to the stored first entry, and a value tag for the SIB in the second SIB1 being identical to the stored value tag.
An intravascular stent for being implanted into blood vessels, which is woven by at least eight wires and is in a tubular structure, wherein, at least one of the wires is a radiopaque wire , wherein, the at least eight wires have an even number of free ends (2/2'), and the free ends of the at least eight wires are aligned and jointed together with each other, and wherein, the free ends (2/2') of the at least eight wires all have cutting portions , and the cutting portions of two free ends (2/2') that are aligned and jointed together match each other to form a joint portion with a diameter identical to that of the wire. wherein, the at least eight wires have an even number of free ends (2/2'), and the free ends of the at least eight wires are aligned and jointed together with each other, and wherein, the free ends (2/2') of the at least eight wires all have cutting portions , and the cutting portions of two free ends (2/2') that are aligned and jointed together match each other to form a joint portion with a diameter identical to that of the wire.
An alkali-free glass comprising, as represented by mole percentage based on oxides, SiO 2 : 57 to 70%, Al 2 O 3 : 5 to 15%, B 2 O 3 : 15 to 24%, MgO: 0.2 to 10%, CaO: 0.1 to 7%, SrO: 0.1 to 2.5%, BaO: 0 to 10%, and ZnO: 0 to 0.1%, wherein formula (A) is [Al 2 O 3 ]/[B 2 O 3 ], and a value of the formula (A) is larger than 0.35 and 1.4 or smaller, and wherein formula (D) is [SrO]/([MgO]+[CaO]+[SrO]+[BaO]), and a value of the formula (D) is 0.64 or larger. SiO 2 : 57 to 70%, Al 2 O 3 : 5 to 15%, B 2 O 3 : 15 to 24%, MgO: 0.2 to 10%, CaO: 0.1 to 7%, SrO: 0.1 to 2.5%, BaO: 0 to 10%, and ZnO: 0 to 0.1%, wherein formula (A) is [Al 2 O 3 ]/[B 2 O 3 ], and a value of the formula (A) is larger than 0.35 and 1.4 or smaller, and wherein formula (D) is [SrO]/([MgO]+[CaO]+[SrO]+[BaO]), and a value of the formula (D) is 0.64 or larger.
An infrared sensor comprising: an insulating film ; a pair of first terminal electrodes and a pair of second terminal electrodes that are formed by patterning on one surface of the insulating film ; a first heat sensitive element and a second heat sensitive element that are provided on the one surface of the insulating film ; a pair of first pattern wirings that are formed by patterning on the one surface of the insulating film with one ends thereof being connected to the first heat sensitive element and the other ends thereof being connected to the pair of first terminal electrodes ; a pair of second pattern wirings that are formed by patterning on the one surface of the insulating film with one ends thereof being connected to the second heat sensitive element and the other ends thereof being connected to the pair of second terminal electrodes ; a light receiving region (D) that is provided on the other surface of the insulating film and faces the first heat sensitive element ; and an infrared reflection film formed on the other surface of the insulating film so as to cover at least a region facing the second heat sensitive element while avoiding the light receiving region (D), wherein the infrared reflection film expands around the region facing the second heat sensitive element while avoiding a region facing the pair of second pattern wirings , and wherein cut portions are respectively formed in regions of the infrared reflection film facing the pair of second pattern wirings such that the infrared reflection film is partially removed. an insulating film ; a pair of first terminal electrodes and a pair of second terminal electrodes that are formed by patterning on one surface of the insulating film ; a first heat sensitive element and a second heat sensitive element that are provided on the one surface of the insulating film ; a pair of first pattern wirings that are formed by patterning on the one surface of the insulating film with one ends thereof being connected to the first heat sensitive element and the other ends thereof being connected to the pair of first terminal electrodes ; a pair of second pattern wirings that are formed by patterning on the one surface of the insulating film with one ends thereof being connected to the second heat sensitive element and the other ends thereof being connected to the pair of second terminal electrodes ; a light receiving region (D) that is provided on the other surface of the insulating film and faces the first heat sensitive element ; and an infrared reflection film formed on the other surface of the insulating film so as to cover at least a region facing the second heat sensitive element while avoiding the light receiving region (D), wherein the infrared reflection film expands around the region facing the second heat sensitive element while avoiding a region facing the pair of second pattern wirings , and wherein cut portions are respectively formed in regions of the infrared reflection film facing the pair of second pattern wirings such that the infrared reflection film is partially removed.
Brake caliper for a disk brake, having a tensioning side and a rim side , comprising: a. a brake cylinder flange face which for receiving a brake cylinder is disposed on the tensioning side , b. a first sliding bush and a second sliding bush for the axial displacement of the brake caliper on a brake support, c. two flange faces which for receiving a sensor resetting unit are disposed in an axially parallel manner on the tensioning side between the first sliding bush and the second sliding bush , characterized in that the brake caliper on the tensioning side between the first sliding bush and the flange face , in a manner radially counter to the direction of the brake cylinder flange face , has a first rib and/or between the second sliding bush and the flange face has a second rib , wherein the flange faces for receiving the sensor restoring unit in a manner axially counter to a rim side of the brake caliper project in relation to a brake caliper housing and the first rib and/or the second rib , and wherein the first rib or the second rib is disposed at an axial spacing from the sensor resetting unit . a. a brake cylinder flange face which for receiving a brake cylinder is disposed on the tensioning side , b. a first sliding bush and a second sliding bush for the axial displacement of the brake caliper on a brake support, c. two flange faces which for receiving a sensor resetting unit are disposed in an axially parallel manner on the tensioning side between the first sliding bush and the second sliding bush , characterized in that the brake caliper on the tensioning side between the first sliding bush and the flange face , in a manner radially counter to the direction of the brake cylinder flange face , has a first rib and/or between the second sliding bush and the flange face has a second rib , wherein the flange faces for receiving the sensor restoring unit in a manner axially counter to a rim side of the brake caliper project in relation to a brake caliper housing and the first rib and/or the second rib , and
A voltage source converter configured to generate a pulse train using two voltage levels (+Vdc/2, -Vdc/2; +Vdc/2, 0), said converter comprising a first converter arm (ua) connected between a junction (j) and a first DC terminal (DC1) having a first voltage level (Vdc/2), a second converter arm (la) connected between the junction (j) and a second DC terminal (DC2) having a second voltage level (-Vdc/2) and a string of capacitors (C1, C2) connected between the first and second DC terminals, wherein at least one of the converter arms (ua, la) comprises cells (Cua1, Cua2, Cua3, Cua4, Cla1, Cla2, Cla3, Cla4); the voltage source converter further comprising a control unit configured to insert or bypass the cells from the arms so that a stepping is made to provide a slope in the transition between the two voltage levels, said control unit being configured to control a group of cells (Cua1, Cua2, Cua3, Cua4) used in the transition between the two voltage levels for commutating a current running through a corresponding one of the converter arms (ua) involved in the transition, said group comprising the cells of said converter arm, where the control unit is configured to control the group of cells during said transition between the two voltage levels by obtaining values of a current (I DCL ) running between said string of capacitors and said converter arm (ua) and handling a cell (Cua4) of the group selected to be used last for reaching one of the voltage levels, which handling comprises inserting or bypassing said cell when the current between the string of capacitors and the converter arm is at a zero level, such that resonance in the voltage source converter is limited.
A belt for an elevator system comprising: a core ; an elastomeric sheath positioned over the core ; and an elastomer and phosphonate blended bonding agent adhering the core to the sheath ; characterised in that the elastomer and phosphonate blended bonding agent is mixed with a resin that forms the core . a core ; an elastomeric sheath positioned over the core ; and an elastomer and phosphonate blended bonding agent adhering the core to the sheath ; characterised in that the elastomer and phosphonate blended bonding agent is mixed with a resin that forms the core .
A method for determining correction values for correcting the position of a track , with an actual geometry of a track section being recorded by means of an inertial measurement device arranged on a track inspection vehicle while the track is being travelled on, and with measuring data of the recorded track section being output by the inertial measurement device to an evaluation device , characterised in that a virtual inertial measurement of the same track section with a target geometry is calculated by means of a simulation device in order to obtain simulated measuring data for the target geometry , and that correction values for correcting the position of the track are determined by subtracting the simulated measuring data from the measuring data of the inertial measurement device by means of a computing unit .
A device, the device comprising: a capillary tube , the capillary tube being capable of absorbing and retaining a sample of a first liquid by capillary action when placed in contact with the first liquid , the capillary tube having a hollow tubular body that is open on one or both ends, and wherein the capillary tube is made of a dissolvable polymer, wherein the dissoluble polymer dissolves when submerged in a second liquid characterized in that the second liquid is an assay diluent, wherein the first liquid and the assay diluent have different pH values, and the capillary tube is composed of a material that is pH sensitive and is dissolveable in the assay diluent but not the first liquid . a capillary tube , the capillary tube being capable of absorbing and retaining a sample of a first liquid by capillary action when placed in contact with the first liquid , the capillary tube having a hollow tubular body that is open on one or both ends, and wherein the capillary tube is made of a dissolvable polymer, wherein the dissoluble polymer dissolves when submerged in a second liquid characterized in that the second liquid is an assay diluent, wherein the first liquid and the assay diluent have different pH values, and the capillary tube is composed of a material that is pH sensitive and is dissolveable in the assay diluent but not the first liquid .