mhurhangee/patent-ind-claim-en huggingface dataset:
An orthopedic rod-to-rod connector comprising: a first connector portion with a first aperture configured to receive at least a portion of a tulip with a first channel of a screw ; the first connector portion having two legs designed so as to create voids that do not conflict with a rod extending through the first channel extending along a first central axis , the first aperture in communication with the first channel , and a second connector portion with a second aperture and a third aperture , the second connector portion having a second channel extending along a second central axis , the third aperture in communication with the second channel for receiving a second spinal rod , characterized in that the second connector portion is rotatably coupled with the first connector portion and includes a fourth aperture to receive the second spinal rod orthogonal to the second channel . a first connector portion with a first aperture configured to receive at least a portion of a tulip with a first channel of a screw ; the first connector portion having two legs designed so as to create voids that do not conflict with a rod extending through the first channel extending along a first central axis , the first aperture in communication with the first channel , and a second connector portion with a second aperture and a third aperture , the second connector portion having a second channel extending along a second central axis , the third aperture in communication with the second channel for receiving a second spinal rod , characterized in that the second connector portion is rotatably coupled with the first connector portion and includes a fourth aperture to receive the second spinal rod orthogonal to the second channel .
A position sensor for determining a position of a target, said position sensor comprising: - an integrated circuit and - a magnetic position sensor unit adapted to detect two different orders of a multipole expansion of a magnetic field at the location of the magnetic position sensor unit, adapted to generate two signals indicative of the two different orders of the multipole expansion and adapted to provide said two signals to the integrated circuit via an input thereof, the integrated circuit comprising: - said input for receiving said two signals, in which a first signal of said two signals is representative of a physical quantity in a first range and a second signal of said two signals is representative of said physical quantity in a second range, wherein said first range and said second range are different ranges that overlap, - a processor configured to detect an inconsistency between the two signals by taking said first and second range into account, said inconsistency being indicative of an error, wherein the integrated circuit and the magnetic position sensor unit are integrated into a single integrated circuit device. - an integrated circuit and - a magnetic position sensor unit adapted to detect two different orders of a multipole expansion of a magnetic field at the location of the magnetic position sensor unit, adapted to generate two signals indicative of the two different orders of the multipole expansion and adapted to provide said two signals to the integrated circuit via an input thereof, - said input for receiving said two signals, in which a first signal of said two signals is representative of a physical quantity in a first range and a second signal of said two signals is representative of said physical quantity in a second range, wherein said first range and said second range are different ranges that overlap, - a processor configured to detect an inconsistency between the two signals by taking said first and second range into account, said inconsistency being indicative of an error, wherein the integrated circuit and the magnetic position sensor unit are integrated into a single integrated circuit device.
A clot retrieval device comprising: an outer cage ; an inner cage concentrically positioned within the outer cage; a first elongated member in communication with the outer cage; and a second elongated member in communication with the inner cage; and characterised in that the device further comprises a clip comprising c-shaped features at each end of the clip, each feature configured to receive one of: the first elongated member or the second elongated member, the clip configured to couple the first and second elongated member when attached. an outer cage ; an inner cage concentrically positioned within the outer cage; a first elongated member in communication with the outer cage; and a second elongated member in communication with the inner cage; and characterised in that the device further comprises a clip comprising c-shaped features at each end of the clip, each feature configured to receive one of: the first elongated member or the second elongated member, the clip configured to couple the first and second elongated member when attached.
A method for over-the-air (OTA) virtual card transfer between near field communications (NFC)-enabled mobile devices, the method comprising: at an OTA provisioning server comprising at least one computer having associated hardware: receiving, from a sending mobile device, a virtual card intended for a receiving mobile device and recipient number data associated with the receiving mobile device, wherein each of the sending mobile device and the receiving mobile device is an NFC-enabled mobile phone device; accessing, by the OTA provisioning server, a database using the recipient number data to obtain mobile device type information associated with the receiving mobile device; and in response to determining that the mobile device type information indicates that the receiving mobile device is an NFC-enabled mobile device, provisioning the virtual card to the receiving mobile device via an OTA interface, wherein provisioning the virtual card includes sending a control message that triggers a wallet application in the receiving mobile device to initiate a downloading of the virtual card from the OTA provisioning server to the receiving mobile device, wherein the virtual card is immediately presentable by the receiving mobile device at a point of sale terminal, and wherein the virtual card is selected for use at the point of sale terminal upon interfacing, via NFC, the receiving mobile device with a wireless device reader associated with the point of sale terminal. receiving, from a sending mobile device, a virtual card intended for a receiving mobile device and recipient number data associated with the receiving mobile device, wherein each of the sending mobile device and the receiving mobile device is an NFC-enabled mobile phone device; accessing, by the OTA provisioning server, a database using the recipient number data to obtain mobile device type information associated with the receiving mobile device; and in response to determining that the mobile device type information indicates that the receiving mobile device is an NFC-enabled mobile device, provisioning the virtual card to the receiving mobile device via an OTA interface, wherein provisioning the virtual card includes sending a control message that triggers a wallet application in the receiving mobile device to initiate a downloading of the virtual card from the OTA provisioning server to the receiving mobile device, wherein the virtual card is immediately presentable by the receiving mobile device at a point of sale terminal, and wherein the virtual card is selected for use at the point of sale terminal upon interfacing, via NFC, the receiving mobile device with a wireless device reader associated with the point of sale terminal.
A platform for a gas turbine engine comprising: a platform body defining one or more slots between a plurality of flanges , the one or more slots dimensioned to receive a respective flange of a hub , the platform body including a plurality of composite layers (L), wherein the plurality of composite layers (L) are a plurality of layers (L) made of a composite material, characterized in that the plurality of composite layers (L) join together to bound an internal cavity between surfaces of different layers of the plurality of composite layers (L); and in that a lattice structure extends in the internal cavity between the surfaces of the plurality of composite layers (L), the lattice structure including a plurality of branches that extend from a plurality of nodes .
Revolving door comprising a wall or walls in which openings for inlet and outlet of persons and/or objects are provided, and rotatable door wings (7, 7.1, 7.2, 7.3) that during use are rotatable around an imaginary central vertical axis in a passage area , said passage area being surrounded by the wall or walls , wherein each of said door wings (7, 7.1, 7.2, 7.3) is provided with a slidable door wing part for extending and/or retracting the door wing of which it forms a part, characterized in that each of said door wings (7, 7.1, 7.2, 7.3) substantially comprises slidable door wing parts (7', 7") only so as to provide that the slidable door wing parts (7', 7") of any single door wing (7, 7.1, 7.2, 7.3) are selectable to be placed in at least two positions, a first position wherein said door wing parts (7', 7") are entirely adjacent or next to each other and wherein edges of said door wing parts (7', 7") are adjacent to the wall or walls , and wherein said door wing parts (7', 7") extend radially away from said wall or walls towards the imaginary central vertical axis , and a second position wherein said door wing parts (7', 7") are entirely adjacent or next to each other and wherein edges of said door wing parts (7', 7") are adjacent to the central vertical axis , and wherein said door wing parts (7', 7") extend radially away from the central vertical axis towards the wall or walls .
An audibility meter calibration system comprising: - an acoustic transducer configured to produce an acoustic signal from an electrical signal, wherein the acoustic transducer comprises a memory , wherein identification information and calibration information of said transducer are stored; - an audibility meter configured to generate an electrical signal capable of producing a corresponding acoustic signal in the transducer , wherein the audibility meter comprises a microprocessor , and a memory wherein calibration information of the audibility meter itself is stored and wherein the audibility meter is also configured to read the memory of the acoustic transducer and to compensate the response of the acoustic transducer based on the calibration information read on the memory of the acoustic transducer and on the frequency response of the human ear; characterised in that the audibility meter calibration system further comprises: - a calibration device comprising a voltage reference circuit configured to generate at least one voltage reference with a specific value in the audibility meter to which it is connected; and in that the audibility meter is further configured to compensate the frequency response of the audibility meter itself by modifying the electrical signal generated, and to update the calibration information for same based on the voltage reference for the calibration device . - an acoustic transducer configured to produce an acoustic signal from an electrical signal, wherein the acoustic transducer comprises a memory , wherein identification information and calibration information of said transducer are stored; - an audibility meter configured to generate an electrical signal capable of producing a corresponding acoustic signal in the transducer , wherein the audibility meter comprises a microprocessor , and a memory wherein calibration information of the audibility meter itself is stored and wherein the audibility meter is also configured to read the memory of the acoustic transducer and to compensate the response of the acoustic transducer based on the calibration information read on the memory of the acoustic transducer and on the frequency response of the human ear; characterised in that the audibility meter calibration system further comprises: - a calibration device comprising a voltage reference circuit configured to generate at least one voltage reference with a specific value in the audibility meter to which it is connected; - a calibration device comprising a voltage reference circuit configured to generate at least one voltage reference with a specific value in the audibility meter to which it is connected; and in that the audibility meter is further configured to compensate the frequency response of the audibility meter itself by modifying the electrical signal generated, and to update the calibration information for same based on the voltage reference for the calibration device .
A patient lift apparatus comprising a supporting frame , a boom portion connected to the supporting frame via a pivot joint (PJ1) to allow the boom portion to pivot with respect to the supporting frame about a pivot axis (PA1), a boom actuator to mechanically assist pivotal movement of the boom portion with respect to the supporting frame , and a leg/knee support connected to the supporting frame , wherein the leg/knee support is configured to be selectively releasable from the supporting frame , characterized in that the leg/knee support comprises a manually-operable release mechanism (51/52/55) forming an integral part of the leg/knee support , which manually-operable release mechanism (51/52/55) is configured to allow selective release of the leg/knee support from the supporting frame , said manually-operable release mechanism (51/52/55) comprising: - a retaining device configured to cooperate with a support mount provided on the supporting frame to secure the leg/knee support onto the supporting frame ; and - a manually-operable handle cooperating with the retaining device to allow selective release of the retaining device from the support mount and thereby allow removal of the leg/knee support from the supporting frame . wherein the leg/knee support is configured to be selectively releasable from the supporting frame , characterized in that the leg/knee support comprises a manually-operable release mechanism (51/52/55) forming an integral part of the leg/knee support , which manually-operable release mechanism (51/52/55) is configured to allow selective release of the leg/knee support from the supporting frame , said manually-operable release mechanism (51/52/55) comprising: - a retaining device configured to cooperate with a support mount provided on the supporting frame to secure the leg/knee support onto the supporting frame ; and - a manually-operable handle cooperating with the retaining device to allow selective release of the retaining device from the support mount and thereby allow removal of the leg/knee support from the supporting frame . - a retaining device configured to cooperate with a support mount provided on the supporting frame to secure the leg/knee support onto the supporting frame ; and - a manually-operable handle cooperating with the retaining device to allow selective release of the retaining device from the support mount and thereby allow removal of the leg/knee support from the supporting frame .
Laboratory instrument , comprising: - a single base plate , wherein the single base plate comprises at least one embedded compartment , wherein the embedded compartment and the single base plate consist of one single formed piece, wherein the at least one embedded compartment comprises at least two side walls which encompass an inner volume , a bottom , and an open top , wherein the at least two side walls are opposite each other or adjacent each other, wherein at least one of said embedded compartment is selected from a group consisting of an embedded consumable compartment , an embedded sample processing compartment , an embedded waste compartment , an embedded activation device compartment , an embedded rack receiving compartment , or a combination thereof, characterized in that the laboratory instrument additionally comprising: - at least one electrically conductive element , wherein the at least one electrically conductive element is mounted on the single base plate , wherein the electrically conductive element comprises at least one reference structure , wherein the at least one electrically conductive element comprises one or more electrically conductive sheets , wherein at least one of the one or more electrically conductive sheets comprises at least one through-hole , wherein the at least one through-hole is aligned with the open top of at least one embedded compartment , wherein the at least one through-hole is the least one reference structure . - a single base plate , wherein the single base plate comprises at least one embedded compartment , wherein the embedded compartment and the single base plate consist of one single formed piece, wherein the at least one embedded compartment comprises at least two side walls which encompass an inner volume , a bottom , and an open top , wherein the at least two side walls are opposite each other or adjacent each other, wherein at least one of said embedded compartment is selected from a group consisting of an embedded consumable compartment , an embedded sample processing compartment , an embedded waste compartment , an embedded activation device compartment , an embedded rack receiving compartment , or a combination thereof, - at least one electrically conductive element , wherein the at least one electrically conductive element is mounted on the single base plate , wherein the electrically conductive element comprises at least one reference structure , wherein the at least one electrically conductive element comprises one or more electrically conductive sheets , wherein at least one of the one or more electrically conductive sheets comprises at least one through-hole , wherein the at least one through-hole is aligned with the open top of at least one embedded compartment , wherein the at least one through-hole is the least one reference structure .
A spreader structure for a ring seal for sealing an annular gap , comprising a radially inner first component with an inner contact surface , a radially outer second component with an outer contact surface , and a first spreading mechanism formed between these two components that comprises a first spreading bevel formed on one of the two components , and a first spreading element formed on the other component , that can be moved along the first spreading bevel , wherein the two components can be displaced in relation to one another in the axial direction (X) of the spreader structure from an assembly state to a spreading state, by means of which the first spreading element is moved from a first section of the first spreading bevel to a second section of the spreading bevel , and enlarging a radial spacing (A) between the inner contact surface and the outer contact surface , characterized in that the spreader structure has a second spreading mechanism formed between these two components , the second spreading mechanism comprises a second spreading bevel formed on one of the two components and a second spreading element formed on the other component that can move along the second spreading bevel and the two spreading mechanisms are offset to one another in the axial direction (X) of the spreader structure . comprising a radially inner first component with an inner contact surface , a radially outer second component with an outer contact surface , and a first spreading mechanism formed between these two components that comprises a first spreading bevel formed on one of the two components , and a first spreading element formed on the other component , that can be moved along the first spreading bevel , wherein the two components can be displaced in relation to one another in the axial direction (X) of the spreader structure from an assembly state to a spreading state, by means of which the first spreading element is moved from a first section of the first spreading bevel to a second section of the spreading bevel , and enlarging a radial spacing (A) between the inner contact surface and the outer contact surface , characterized in that the spreader structure has a second spreading mechanism formed between these two components , the second spreading mechanism comprises a second spreading bevel formed on one of the two components and a second spreading element formed on the other component that can move along the second spreading bevel and the two spreading mechanisms are offset to one another in the axial direction (X) of the spreader structure .
Method for producing a user-individual mouth protection mask, in which method, in particular optically, facial data of a user facial region to be protected are captured, a three-dimensional model of the facial region is created, and a user-individual contact frame is produced on the basis of the model, wherein the contact frame of the mouth protection mask is connected in an airtight manner to a functional device , wherein the functional device comprises at least one filter for filtering particles from the air, characterised in that the facial data, after being captured, are matched with a database in which anatomical data are stored, wherein the database has data groups, in each of which anatomical data of a population group are stored, wherein the data of a population group comprise positional data of bones and/or cartilages. in which method, in particular optically, facial data of a user facial region to be protected are captured, a three-dimensional model of the facial region is created, and a user-individual contact frame is produced on the basis of the model, wherein the contact frame of the mouth protection mask is connected in an airtight manner to a functional device , wherein the functional device comprises at least one filter for filtering particles from the air, characterised in that the facial data, after being captured, are matched with a database in which anatomical data are stored, wherein the database has data groups, in each of which anatomical data of a population group are stored, wherein the data of a population group comprise positional data of bones and/or cartilages.
A thermoplastic resin sheet having hairlike bodies arranged regularly on at least one surface of a base layer , wherein a continuous phase is formed without a structural boundary between the base layer and the hairlike bodies , characterized in that the average height of the hairlike bodies is no less than 100 μm and no greater than 1,200 μm, the average diameter of the hairlike bodies is no less than 1 μm and no greater than 50 μm, and the average spacing of the hairlike bodies is no less than 20 μm and no greater than 200 μm.