mhurhangee/patent-ind-claim-en huggingface dataset:
Bench with adjustable pedals at various heights comprising at least one telescopic arm supporting said pedals , said telescopic arm being adjustable in length as a function of the length of the lower or upper limbs of the user by means of fastening elements with pin, characterized in that the telescopic arm is connected to a side of the bench, and in that the bench further comprises fastening means , so that the telescopic arm and the pedals can be rotated hundred and eighty degrees to set an angle, wherein the pedals are external to a containment body which is fixed to the telescopic arm , allowing to pedal with the lower or upper limbs to the height and the angle set by the fastening means , both above and below the horizontal plane of the bench.
Process for producing a glass article having a high hydrolytic resistance, in which a glass tube composed of a borosilicate glass having an Al 2 O 3 content of less than 1% by weight and a ZrO 2 content of 2-12% by weight and having a glass transition temperature T g is firstly formed into a glass article and is subsequently subjected to a thermal after-treatment, characterized in that the glass article is subjected to a treatment temperature T B ≥ T g + 5 K for a treatment time of t B ≥ 5 min in the thermal after-treatment and is subsequently cooled.
A sensor assembly with a number of monitoring sensors for monitoring an installation , wherein state detection sensors are associated with at least some of the monitoring sensors , wherein state variables of the installation are determined with the state detection sensors and are passed on to the respectively associated monitoring sensor , that the monitoring sensors each have a sensor unit , a computer unit and an interface , the computer unit being designed to process sensor signals from the sensor unit and to process sensor signals from the associated status detection sensors , and in that sensor signals from the status detection sensors or data generated in the computer unit as a function of the sensor signals are passed on from the respective monitoring sensor to a higher-level unit via the interface .
A system comprising: a sensor housing containing a detector , the sensor housing arranged for placement with a drill-string element , the sensor housing being a modular unit of hardware to make measurements in a well; and a processor operable to apply calibration coefficients from a data storage unit relative to a measurement reading from the detector such that the sensor housing is transferable to another drill-string element without a calibration measurement during or after the transfer, the calibration coefficients including calibration data correlated to variations in spacing and/or orientation of a source position relative to the detector or the sensor housing due to the transfer to another drill-string element. a sensor housing containing a detector , the sensor housing arranged for placement with a drill-string element , the sensor housing being a modular unit of hardware to make measurements in a well; and a processor operable to apply calibration coefficients from a data storage unit relative to a measurement reading from the detector such that the sensor housing is transferable to another drill-string element without a calibration measurement during or after the transfer, the calibration coefficients including calibration data correlated to variations in spacing and/or orientation of a source position relative to the detector or the sensor housing due to the transfer to another drill-string element.
An isolated monoclonal antibody or antigen-binding fragment thereof, comprising: a heavy chain variable region (VH) comprising the sequence set forth as SEQ ID NO: 1 with up to 10 conservative amino acid substitutions in the framework regions of the heavy chain and a heavy chain complementarity determining region (HCDR)1, a HCDR2, and a HCDR3 comprising amino acids 26-33, 51-57, and 96-108 of SEQ ID NO: 1, respectively; and a light chain variable region (VL) comprising the sequence set forth as SEQ ID NO: 2 with up to 10 conservative amino acid substitutions in the framework regions of the light chain and a light chain complementarity determining region (LCDR)1, a LCDR2, and a LCDR3 comprising amino acids 27-32, 50-52, and 89-97 of SEQ ID NO: 2, respectively, wherein the monoclonal antibody or antigen binding fragment specifically binds to Ebola virus glycoprotein (GP) and neutralizes Ebola virus. a heavy chain variable region (VH) comprising the sequence set forth as SEQ ID NO: 1 with up to 10 conservative amino acid substitutions in the framework regions of the heavy chain and a heavy chain complementarity determining region (HCDR)1, a HCDR2, and a HCDR3 comprising amino acids 26-33, 51-57, and 96-108 of SEQ ID NO: 1, respectively; and a light chain variable region (VL) comprising the sequence set forth as SEQ ID NO: 2 with up to 10 conservative amino acid substitutions in the framework regions of the light chain and a light chain complementarity determining region (LCDR)1, a LCDR2, and a LCDR3 comprising amino acids 27-32, 50-52, and 89-97 of SEQ ID NO: 2, respectively, wherein the monoclonal antibody or antigen binding fragment specifically binds to Ebola virus glycoprotein (GP) and neutralizes Ebola virus.
An inner conductor element for a coaxial plug connector between a first electronic subassembly and a second electronic subassembly having a first contact region for making contact with the first electronic subassembly , a second contact region for making contact with the second electronic subassembly and a connection region connecting the first contact region to the second contact region , wherein the outer diameter of the first contact region is reduced compared to an outer diameter of the second contact region , characterized in that a plurality spring tabs distributed over a circumference of the connection region and directed radially outwards are fastened to a surface of the connection region .
Method for activating a hydraulic actuator drive which has an actuator (1.1), the position of which is set with at least one electrohydraulic proportional valve , which has at least one electric input and at least one hydraulic output , having the following steps: 1.1 the position of the actuator (1.1) is detected and a current position value is generated therefrom; 1.2 a position setpoint is predefined as a function of a default for a desired position of the actuator (1.1) and, by using the at least one electrohydraulic proportional valve , a setpoint/current value difference is regulated, so that the actuator (1.1) assumes a position corresponding to the position setpoint; wherein 1.3 the position setpoint is varied even if a default for a desired position of the actuator (1.1) is unchanged; characterized in that the hydraulic actuator drive has at least two electrohydraulic proportional valves , which each have at least one electric input and at least one hydraulic output , and of which the hydraulic outputs are connected together to activate the actuator drive with a common hydraulic input pressure; wherein, during the position setpoint manipulation of the position setpoint supplied to one of the electrohydraulic proportional valves , a pressure change in the hydraulic output of this electrohydraulic proportional valve is compensated for by a change in the pressure in its hydraulic output set by using the at least one other electrohydraulic proportional valve , in order to keep the common hydraulic input pressure for the actuator drive constant. 1.1 the position of the actuator (1.1) is detected and a current position value is generated therefrom; 1.2 a position setpoint is predefined as a function of a default for a desired position of the actuator (1.1) and, by using the at least one electrohydraulic proportional valve , a setpoint/current value difference is regulated, so that the actuator (1.1) assumes a position corresponding to the position setpoint; wherein 1.3 the position setpoint is varied even if a default for a desired position of the actuator (1.1) is unchanged;
A high-speed turbine dental handpiece adapted for single safe use comprises a nose , a handle connected to the rear end of the nose, and a plug connector disposed at the rear end of the handle, characterized in that it further comprises a clip ring for fixing the handle and the plug connector, wherein the plug connector is provided with a first fixing slot at a side wall, the tail end of the handle is provided with a second fixing slot matched with the first fixing slot, the inner wall of the clip ring is provided with bumps matched with the first fixing slot and the second fixing slot, and when the clip ring is hooped on the plug connector, the bumps are embedded into the first fixing slot and the second fixing slot to limit and fix the handle and the plug connector.
A disc-shaped plate for a noise attenuator , the disc-shaped plate comprising: a plurality of sector-shaped plates , the plurality of sector-shaped plates having openings defining flow paths, each of the plurality of sector-shaped plates having a first radial edge forming a first mating feature and a second radial edge forming a second mating feature that is complementary to the first mating feature such that, with the plurality of sector-shaped plates arranged together, the first mating feature of each of the plurality of sector-shaped plates mates with the second mating feature of an adjacent one of the plurality of sector-shaped plates , and, with the plurality of sector-shaped plates arranged together, a portion of each of the plurality of sector-shaped plates overlaps in an axial direction with an adjacent one of the plurality of sector-shaped plates .
A method for producing a porous carbon electrode, which method comprises the steps of preparing a slurry by mixing a porous, particulate, conductive carbon powder with a solution of a polymer binding agent for the carbon powder in a solvent for the polymer binding agent; forming a precursor electrode by casting the slurry as a layer and subjecting the cast layer to a wet phase inversion to realize porosity in the cast layer; subjecting the thus obtained precursor electrode to a thermal treatment comprising a first step of heating the precursor electrode in the presence of an oxidizing agent, preferably an oxygen containing gas, in particular oxygen or air, to a temperature which is equal to or lower than the melting temperature of the polymer binding agent, the temperature being maximally 300°C and at least 50°C with the purpose of converting the polymer binding agent into a conductive binding agent binding the particles of the conductive carbon powder together, wherein the polymer binding agent is a polymer material having a degradation temperature which is lower than the melting temperature, and wherein the polymer binding agent is selected from the group of nitrile polymers, preferably polyacrylonitrile.
A method, comprising: setting a first control unit to a first operation mode, wherein the first control unit is located on a first antenna path of a first antenna array which has a plurality of antennas, and wherein under the first operation mode of the first control unit, a calibration signal for the first antenna path is isolated from interference of reflected signals by in-active components in the first antenna path; obtaining a measurement based at least partly on the calibration signal isolated from interference for the first antenna path; and performing antenna calibration for the plurality of antennas of the first antenna array based at least partly on the obtained measurement. setting a first control unit to a first operation mode, wherein the first control unit is located on a first antenna path of a first antenna array which has a plurality of antennas, and wherein under the first operation mode of the first control unit, a calibration signal for the first antenna path is isolated from interference of reflected signals by in-active components in the first antenna path; obtaining a measurement based at least partly on the calibration signal isolated from interference for the first antenna path; and performing antenna calibration for the plurality of antennas of the first antenna array based at least partly on the obtained measurement.
An Internet Protocol, IP, address assignment method, wherein the method comprises: obtaining , by a control network element, first weight information of a first distributed gateway, DGW, and assigning a first address segment to the first DGW according to the first weight information; and sending , by the control network element, address segment information of the first address segment to the first DGW; obtaining, by the control network element, a second weight information of a second DGW, and when determining that a remaining address segment resource in address segment resources is insufficient to assign an address segment corresponding to the second weight information, and there is an idle address segment in the first address segment, releasing the idle address segment in the first address segment, and assigning the idle address segment in the first address segment to the second DGW;wherein the weight information includes a quantity of resources. obtaining , by a control network element, first weight information of a first distributed gateway, DGW, and assigning a first address segment to the first DGW according to the first weight information; and sending , by the control network element, address segment information of the first address segment to the first DGW; obtaining, by the control network element, a second weight information of a second DGW, and when determining that a remaining address segment resource in address segment resources is insufficient to assign an address segment corresponding to the second weight information, and there is an idle address segment in the first address segment, releasing the idle address segment in the first address segment, and assigning the idle address segment in the first address segment to the second DGW;wherein the weight information includes a quantity of resources.
A method for assembling an electronic module comprising the steps: mounting a base electronic component on a base substrate ; mounting a cover electronic component on a cover substrate ; depositing an electrically conductive filament directly onto the base electronic component or directly onto the cover electronic component; free-forming a self-supported interconnect pillar with the deposited electrically conductive filament, the free-formed, self-supported interconnect pillar extending upright from the base electronic component or the cover electronic component; arranging the cover substrate over the opposing base substrate and aligning the base electronic component with the cover electronic component; electrically connecting the base electronic component to the cover electronic component with the free-formed, self-supported interconnect pillar; attaching a compressible electrical interposer at a free-end of the free-formed, self-supported interconnect pillar; and electrically interposing the compressible electrical interposer in the electrical path between the respective free-formed, self-supported interconnect pillar and the base electronic component or the cover electronic component. mounting a base electronic component on a base substrate ; mounting a cover electronic component on a cover substrate ; depositing an electrically conductive filament directly onto the base electronic component or directly onto the cover electronic component; free-forming a self-supported interconnect pillar with the deposited electrically conductive filament, the free-formed, self-supported interconnect pillar extending upright from the base electronic component or the cover electronic component; arranging the cover substrate over the opposing base substrate and aligning the base electronic component with the cover electronic component; electrically connecting the base electronic component to the cover electronic component with the free-formed, self-supported interconnect pillar; attaching a compressible electrical interposer at a free-end of the free-formed, self-supported interconnect pillar; and electrically interposing the compressible electrical interposer in the electrical path between the respective free-formed, self-supported interconnect pillar and the base electronic component or the cover electronic component.
A systematic encoder apparatus for use in a communication system for reliable transfer of a source data block (SDB), the systematic encoder apparatus comprising: an inner encoder specified by an inner transform matrix; and an outer encoder specified by an outer transform matrix, wherein the inner encoder is configured to receive the SDB and generate an output constraint block (OCB) as an image of the SDB under an inverse of a submatrix of the inner transform matrix, wherein the outer encoder is configured to receive a fixed data block (FDB) and the OCB and generate a transform output block (TOB) subject to a first systematic coding constraint that the TOB is an image of a transform input block (TIB) under the outer transform matrix, a second systematic coding constraint that the TOB contains the OCB transparently in a sub-block of the TOB, and a third systematic coding constraint that the TIB contains the FDB transparently in a sub-block of the TIB, wherein the inner encoder is further configured to receive the TOB and generate a transmitted code block (TCB) subject to a fourth systematic coding constraint that the TCB is an image of the TOB under the inner transform matrix and a fifth systematic coding constraint that the TCB contains the SDB transparently in a sub-block of the TCB. an inner encoder specified by an inner transform matrix; and an outer encoder specified by an outer transform matrix, wherein the inner encoder is configured to receive the SDB and generate an output constraint block (OCB) as an image of the SDB under an inverse of a submatrix of the inner transform matrix, wherein the outer encoder is configured to receive a fixed data block (FDB) and the OCB and generate a transform output block (TOB) subject to a first systematic coding constraint that the TOB is an image of a transform input block (TIB) under the outer transform matrix, a second systematic coding constraint that the TOB contains the OCB transparently in a sub-block of the TOB, and a third systematic coding constraint that the TIB contains the FDB transparently in a sub-block of the TIB, wherein the inner encoder is further configured to receive the TOB and generate a transmitted code block (TCB) subject to a fourth systematic coding constraint that the TCB is an image of the TOB under the inner transform matrix and a fifth systematic coding constraint that the TCB contains the SDB transparently in a sub-block of the TCB.
Accessory (10, 10', 10", 10"', 10ʺʺ) for a kitchen appliance comprising a power unit (20, 20ʺʺ) with a vacuum pump, wherein the accessory is connected or connectable with the vacuum pump and comprises - a mouth element (11, 11', 11", 11"', 11ʺʺ) configured to be joined to an object a vacuum is to be applied to, and - a transition portion (12, 12', 12", 12'", 12"") configured to conduct air pumped, in operation of the vacuum pump, from said object through said mouth element to the vacuum pump, wherein the transition portion (12, 12', 12", 12'", 12ʺʺ) is at least partially transparent, wherein the transition portion contains direction means (123, 123", 123'", 123ʺʺ) configured to disturb a flow of pumped air the transition portion is configured to conduct and characterized in that the direction means (123, 123", 123'", 123"") comprises - at least a section (123p, 123'") configured to direct the pumped air away from the vacuum pump; and/or - at least a portion configured to direct the air along a screwed path. - a mouth element (11, 11', 11", 11"', 11ʺʺ) configured to be joined to an object a vacuum is to be applied to, and - a transition portion (12, 12', 12", 12'", 12"") configured to conduct air pumped, in operation of the vacuum pump, from said object through said mouth element to the vacuum pump, wherein the transition portion (12, 12', 12", 12'", 12ʺʺ) is at least partially transparent, wherein the transition portion contains direction means (123, 123", 123'", 123ʺʺ) configured to disturb a flow of pumped air the transition portion is configured to conduct and characterized in that the direction means (123, 123", 123'", 123"") comprises wherein the transition portion (12, 12', 12", 12'", 12ʺʺ) is at least partially transparent, wherein the transition portion contains direction means (123, 123", 123'", 123ʺʺ) configured to disturb a flow of pumped air the transition portion is configured to conduct and characterized in that the direction means (123, 123", 123'", 123"") comprises - at least a section (123p, 123'") configured to direct the pumped air away from the vacuum pump; and/or - at least a portion configured to direct the air along a screwed path.
An electrical coupling part for attaching to an electrical line , which has several electrical conductors surrounded by an insulation, which are surrounded by a common sheath consisting of insulation material, having a contact carrier , which is provided with through-holes for receiving electrical contact parts, which are electrically connected in the mounting position with in each case one electrical conductor of the line and having a protective body injection-molded thereon wherein the coupling part comprises an outer housing , into which the contract carrier is inserted, wherein on the end face of the coupling part facing the line , which is jointly formed by contact carrier and outer housing , a sealing disk is arranged in a tight-fitting manner, and wherein the sealing disk has through-openings for feeding through the electrical conductors of the line surrounded by an insulation, which are dimensioned, so that the through-openings of the sealing disk fit tightly against the insulations of the conductors in the mounting position, characterized in that the sealing disk has sealing pins, which close mounting slots arranged between the outer housing and the contact carrier .
A vehicle including: a reconfigurable door having a first surface and a second surface ; an arrangement for configuring the door so that in a first configuration at least part of the first surface is external to the vehicle, and in a second configuration at least part of the second surface is external to the vehicle, wherein the first surface and/or the second surface includes at least one device mounting arrangement ; the vehicle being characterized in that it further includes a transfer system for, in use, transferring at least one device to said mounting arrangement . a reconfigurable door having a first surface and a second surface ; an arrangement for configuring the door so that in a first configuration at least part of the first surface is external to the vehicle, and in a second configuration at least part of the second surface is external to the vehicle, wherein the first surface and/or the second surface includes at least one device mounting arrangement ; the vehicle being characterized in that it further includes a transfer system for, in use, transferring at least one device to said mounting arrangement .