mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber assembly-forming method used in sheet forming comprising: providing a first feedstock containing fibers with a binding material bonding the fibers to each other (S11); forming disintegrated matter by disintegrating the first feedstock provided with the binding material (S12); depositing the disintegrated matter (S13); and heating the deposited disintegrated matter (S14). providing a first feedstock containing fibers with a binding material bonding the fibers to each other (S11); forming disintegrated matter by disintegrating the first feedstock provided with the binding material (S12); depositing the disintegrated matter (S13); and heating the deposited disintegrated matter (S14).
Plug connector comprising: - at least one housing with at least one cutout and - at least one single-piece conductor and an outer conductor , - wherein the at least one conductor comprises a first limb and a second limb , - wherein the second limb of the at least one conductor is partially held in the cutout of the housing , - wherein at least one spring region is arranged between the first limb and the second limb , - wherein the first limb of the at least one conductor is aligned in a plug-in direction and is resiliently deflectable from the spring region for the compensation of an axial offset, - wherein the outer conductor is at least partially arranged around the first limb of the at least one conductor , characterized in that - the outer conductor comprises, at a first end and at a second end , a spring cage , and - in that the spring cage at the second end presses against the cutout of the housing . - at least one housing with at least one cutout and - at least one single-piece conductor and an outer conductor , - wherein the at least one conductor comprises a first limb and a second limb , - wherein the second limb of the at least one conductor is partially held in the cutout of the housing , - wherein at least one spring region is arranged between the first limb and the second limb , - wherein the first limb of the at least one conductor is aligned in a plug-in direction and is resiliently deflectable from the spring region for the compensation of an axial offset, - wherein the outer conductor is at least partially arranged around the first limb of the at least one conductor , - the outer conductor comprises, at a first end and at a second end , a spring cage , and - in that the spring cage at the second end presses against the cutout of the housing .
A method for controlling cellular network operation, the method comprising: a node of a cellular network obtaining a metric defined as a ratio of a first value and a second value, the first value representing a strength of a reference signal, RS, transmitted by the node of a cell of the cellular network, as measured by a user equipment , and characterised by : the second value representing a strength of interference, IF, from outside the cellular network at the user equipment ; the node selecting between controlling a radio access configuration depending on the metric and controlling the radio access configuration depending on another metric, wherein the another metric is Reference Signal Receiver Power, RSRP or Reference Signal Received Quality, RSRQ, wherein said selecting depends on the second value and/or on a load of the cell and/or on a load of other cells of the cellular network and/or on one or more previous cell selection processes; and the node controlling the radio access configuration for the user equipment and the cell based on the selection. a node of a cellular network obtaining a metric defined as a ratio of a first value and a second value, the first value representing a strength of a reference signal, RS, transmitted by the node of a cell of the cellular network, as measured by a user equipment , and characterised by : the second value representing a strength of interference, IF, from outside the cellular network at the user equipment ; the node selecting between controlling a radio access configuration depending on the metric and controlling the radio access configuration depending on another metric, wherein the another metric is Reference Signal Receiver Power, RSRP or Reference Signal Received Quality, RSRQ, wherein said selecting depends on the second value and/or on a load of the cell and/or on a load of other cells of the cellular network and/or on one or more previous cell selection processes; and the node controlling the radio access configuration for the user equipment and the cell based on the selection.
A submerged grind conveyor system for removing bottom ash from a large-scale coal fired combustion device having a bottom hopper for collecting the bottom ash with a bottom gate for controlling the flow of the ash from the bottom hopper and a grinder to reduce the size of large ash particles passing through the bottom gate, comprising; a submerged chain conveyor unit having a chain conveyor housing that is separate from the bottom hopper, an elongated closed duct with a receiving section positioned for receiving ash from the bottom gate and an inclined section for elevating the ash, and having an internal continuous drag chain conveying unit for transporting the ash from the bottom hopper to the inclined section where the accumulated ash is dewatered for discharge from the system, wherein the feed of the ash into the chain conveyor unit is controlled by a conveyor drive unit through a signal relating to the drive torque output, the signal including but not limited to the motor current or hydraulic drive pressure and wherein the submerged grind conveyor system further comprises; a valve positioned to receive reduced size ash particles from the grinder and to provide the reduced sized ash particles to the submerged chain conveyor unit, wherein the valve is controlled by the signal from the conveyor drive unit to accomplish control of the feed of the ash into the chain conveyor unit.
A semiconductor device including an electronic circuit , an interconnection contact and a plate configured to concentrate magnetic flux to a predetermined area suitable for including a sensing element for measuring magnetic field flux, the plate being electrically conductive, wherein the plate is electrically connected to the electronic circuit , characterized in that the plate provides an electric path between the interconnection contact and the electronic circuit .
A compressor comprising: a shell defining a first passage forming a first discharge passage; a compression mechanism supported within said shell and including first and second scroll members meshingly engaged with one another and forming a series of compression pockets, (e.g. 588, 590, 592, 594, 596, 598) said first scroll member including a second passage extending therethrough defining a second discharge passage; and a seal assembly extending between said first scroll member and said shell and forming a sealed discharge path between said first and second passages, said seal assembly including a first seal member axially displaceable between first and second positions relative to said shell and said first scroll member, said first seal member axially abutting said first scroll member when in said first position and free from axial contact with said first scroll member when in said second position, said seal assembly maintaining said sealed discharge path when said first seal member is in said first position by sealingly engaging said first scroll member and said shell, characterized by said seal assembly including a second seal member sealingly engaged with said first seal member, said first seal member sealingly engaged with said first scroll member and said second seal member sealingly engaged with said shell, wherein said first seal member is axially displaceable relative to said second seal member. a shell defining a first passage forming a first discharge passage; a compression mechanism supported within said shell and including first and second scroll members meshingly engaged with one another and forming a series of compression pockets, (e.g. 588, 590, 592, 594, 596, 598) said first scroll member including a second passage extending therethrough defining a second discharge passage; and a seal assembly extending between said first scroll member and said shell and forming a sealed discharge path between said first and second passages, said seal assembly including a first seal member axially displaceable between first and second positions relative to said shell and said first scroll member, said first seal member axially abutting said first scroll member when in said first position and free from axial contact with said first scroll member when in said second position, said seal assembly maintaining said sealed discharge path when said first seal member is in said first position by sealingly engaging said first scroll member and said shell, characterized by said seal assembly including a second seal member sealingly engaged with said first seal member, said first seal member sealingly engaged with said first scroll member and said second seal member sealingly engaged with said shell, wherein said first seal member is axially displaceable relative to said second seal member.
A configuration method, comprising: receiving (S602), by a donor distributed unit, DU, first configuration information from a donor centralized unit, CU, wherein the first configuration information indicates that when one or more respective values of one or more first fields in a data packet correspondingly meets one or more respective first value ranges of the one or more first fields, the data packet is transmitted through a first channel that is between the donor DU and a child node, and the first configuration information indicates that when one or more respective values of one or more second fields in a data packet correspondingly meets one or more respective second value ranges of the one or more second fields, the data packet is transmitted through a second channel that is between the donor DU and the child IAB node, and a data packet can meet only one of the one or more respective first value ranges of the one or more first fields and the one or more respective second value ranges of the one or more second fields, and at least one field in the one or more first fields are different from each of the one or more second fields, and the one or more first fields comprise one or more of a destination Internet Protocol, IP address, a differentiated services code point, a flow label, and the one or more second fields comprises one or more of a destination IP address, a differentiated services code point, a flow label; storing, by the donor DU, the first configuration information. receiving (S602), by a donor distributed unit, DU, first configuration information from a donor centralized unit, CU, wherein the first configuration information indicates that when one or more respective values of one or more first fields in a data packet correspondingly meets one or more respective first value ranges of the one or more first fields, the data packet is transmitted through a first channel that is between the donor DU and a child node, and the first configuration information indicates that when one or more respective values of one or more second fields in a data packet correspondingly meets one or more respective second value ranges of the one or more second fields, the data packet is transmitted through a second channel that is between the donor DU and the child IAB node, and a data packet can meet only one of the one or more respective first value ranges of the one or more first fields and the one or more respective second value ranges of the one or more second fields, and at least one field in the one or more first fields are different from each of the one or more second fields, and the one or more first fields comprise one or more of a destination Internet Protocol, IP address, a differentiated services code point, a flow label, and the one or more second fields comprises one or more of a destination IP address, a differentiated services code point, a flow label; storing, by the donor DU, the first configuration information.
A calibration device comprising: a measurement housing , wherein a dry gas pipe for feeding a dry gas to the measurement housing is detachably mounted to the measurement housing ; a filling vessel , accommodated in the measurement housing , to said filling vessel a high pressure fuel gas being fed from outside of the measurement housing , the high pressure fuel gas being hydrogen gas; a scale for measuring a weight of the measurement housing , wherein the scale is adapted to measure the weight of the measurement housing before and after filling hydrogen gas into the filling vessel ; and a control device (CU) for eliminating an error caused by changing buoyant force from the dry gas in the measurement housing before and after filling the fuel gas, wherein the control device (CU) is adapted to calculate and determine a variation amount (ΔF) of buoyant force of the gas before and after filling the hydrogen gas into the measurement housing based on a solid capacity (Q) and dry gas densities (p (t1)) and (p (t2)) in the measurement housing before and after filling hydrogen gas. a measurement housing , wherein a dry gas pipe for feeding a dry gas to the measurement housing is detachably mounted to the measurement housing ; a filling vessel , accommodated in the measurement housing , to said filling vessel a high pressure fuel gas being fed from outside of the measurement housing , the high pressure fuel gas being hydrogen gas; a scale for measuring a weight of the measurement housing , wherein the scale is adapted to measure the weight of the measurement housing before and after filling hydrogen gas into the filling vessel ; and a control device (CU) for eliminating an error caused by changing buoyant force from the dry gas in the measurement housing before and after filling the fuel gas, wherein the control device (CU) is adapted to calculate and determine a variation amount (ΔF) of buoyant force of the gas before and after filling the hydrogen gas into the measurement housing based on a solid capacity (Q) and dry gas densities (p (t1)) and (p (t2)) in the measurement housing before and after filling hydrogen gas.
Isolated antibody or antibody fragment that binds CD269 (BCMA) and disrupts a BAFF-CD269 interaction, comprising a VH domain and a VL domain, wherein said VH domain comprises a sequence with at least 80% sequence identity to SEQ ID No. 7, and wherein said VH domain comprises CDR regions of CDR H1 according to SEQ ID No. 1 (RYWMS), CDR H2 according to SEQ ID No. 2 (ElNPDSSTlNYAPSLKD) and CDR H3 according to SEQ ID No. 3 (SLYYDYGDAMDYW), and said VL domain comprises a sequence with at least 80% sequence identity to SEQ ID No. 8, and wherein said VL domain comprises CDR regions of CDR L1 according to SEQ ID No. 4 (KASQSVDSNVA), CDR L2 according to SEQ ID No. 5 (SASLRFS) and CDR L3 according to SEQ ID No. 6 (QQYNNYPLTFG), and wherein the antibody or antibody fragment has an affinity to CD269 with a Kd of 54 pM when measured with surface plasmon resonance (SPR). wherein said VH domain comprises a sequence with at least 80% sequence identity to SEQ ID No. 7, and wherein said VH domain comprises CDR regions of CDR H1 according to SEQ ID No. 1 (RYWMS), CDR H2 according to SEQ ID No. 2 (ElNPDSSTlNYAPSLKD) and CDR H3 according to SEQ ID No. 3 (SLYYDYGDAMDYW), and said VL domain comprises a sequence with at least 80% sequence identity to SEQ ID No. 8, and wherein said VL domain comprises CDR regions of CDR L1 according to SEQ ID No. 4 (KASQSVDSNVA), CDR L2 according to SEQ ID No. 5 (SASLRFS) and CDR L3 according to SEQ ID No. 6 (QQYNNYPLTFG), and wherein the antibody or antibody fragment has an affinity to CD269 with a Kd of 54 pM when measured with surface plasmon resonance (SPR).
A visible light signal generating method comprising: generating a preamble in which a first luminance value and a second luminance value alternately appear along a time axis, the first luminance value and second luminance value being different luminance values from each other; generating a first payload in which the first luminance value and the second luminance value alternately appear along the time axis by determining a first time length of the first luminance value and a second time length of the second luminance value using a first formula, the first time length being a time length in which the first luminance value continues in the first payload, the second time length being a time length in which the second luminance value continues in the first payload, the first formula determining the first time length and the second time length according to a transmission target signal; characterized by generating a second payload by determining a time length according to a second mode, the second payload having a complementary relationship with a luminance expressed by the first payload, the time length being the time length during which each of the first and second luminance values continues in the second payload in which the first and second luminance values alternately appear along the time axis, the second mode matching the transmission target signal; generating a visible light signal by joining the preamble and the first and second payloads in order of the first payload, the preamble, and the second payload; and transmitting the visible light signal by a change in luminance of a light source. generating a preamble in which a first luminance value and a second luminance value alternately appear along a time axis, the first luminance value and second luminance value being different luminance values from each other; generating a first payload in which the first luminance value and the second luminance value alternately appear along the time axis by determining a first time length of the first luminance value and a second time length of the second luminance value using a first formula, the first time length being a time length in which the first luminance value continues in the first payload, the second time length being a time length in which the second luminance value continues in the first payload, the first formula determining the first time length and the second time length according to a transmission target signal; characterized by generating a second payload by determining a time length according to a second mode, the second payload having a complementary relationship with a luminance expressed by the first payload, the time length being the time length during which each of the first and second luminance values continues in the second payload in which the first and second luminance values alternately appear along the time axis, the second mode matching the transmission target signal; generating a visible light signal by joining the preamble and the first and second payloads in order of the first payload, the preamble, and the second payload; and transmitting the visible light signal by a change in luminance of a light source.
A system for determining an angular speed (Vω) of an axle of a railway vehicle, comprising: - a deformation detection circuit coupled to the axle of the railway vehicle; said deformation detection circuit being arranged to detect the trend over time of a value of flexural deformation of the axle due to a value of a normal load exerted by the axle on the rail; - a control means arranged to estimate a value of angular speed (Yω) of the axle as a function of a frequency f derived from the trend over time of the value of flexural deformation of the axle detected by the deformation detection circuit . - a deformation detection circuit coupled to the axle of the railway vehicle; said deformation detection circuit being arranged to detect the trend over time of a value of flexural deformation of the axle due to a value of a normal load exerted by the axle on the rail; - a control means arranged to estimate a value of angular speed (Yω) of the axle as a function of a frequency f derived from the trend over time of the value of flexural deformation of the axle detected by the deformation detection circuit .
A heat transfer plate comprising at least one first port hole area , opposing front and back sides and an outer edge portion comprising corrugations extending between and in first and second planes defining the extension of the heat transfer plate , which first and second planes are parallel to each other and to an intermediate plane extending between the first and second planes , the front and back sides of the heat transfer plate facing the first and second planes , respectively, wherein each of said at least one first port hole area comprises a first port hole defined by an annular first inner edge of the heat transfer plate , said first inner edge consisting of a first and a second section , which first section is 25-65% of the first inner edge , a front gasket groove on the front side of the heat transfer plate extending along the first section of said first inner edge , and a back gasket groove on the back side of the heat transfer plate extending along the first and second sections of said first inner edge , each of said at least one first port hole area further comprising an annular first inner port portion extending along the first and second sections of said first inner edge , a first intermediate port portion encircling the first inner port portion , and a first outer port portion encircling the first intermediate port portion , the front and back gasket grooves extending within the first inner, intermediate and outer port portions , characterized in that the first inner port portion comprises, as seen from the front side of the heat transfer plate , a number ≥ 1 of first support projections along the second section of the first inner edge , each of said number of first support projections comprising a first top portion extending in the first plane , and the heat transfer plate extends, within the first inner port portion and outside said number of first support projections , at a distance ≠ 0 from the first and second planes .
A medical device, the surface of the medical device comprising a metal having a native oxide surface, and a functionalizing layer disposed thereon, wherein the functionalizing layer comprises a functionalized organophosphonate covalently bonded to the native oxide surface, a quaternary ammonium anti-infective agent covalently bonded to the functionalized organophosphonate, wherein the functionalized organophosphonate is a hydroxyl, amino or thiol omega-functionalized organophosphonate, wherein the organo group is a linear or branched, saturated or unsaturated, substituted or unsubstituted, aliphatic or aromatic alkylene hydrocarbon of from 2 to 40 carbon atoms, and wherein the quaternary ammonium anti-infective agent is bonded to the organo group of the organophosphonate via a urethane, car-bonate, urea, thiocarbonate or thiourea group.