mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication performed by a user equipment, UE, comprising: determining a prioritization rule that indicates a relative priority for different uplink communications included in a group of uplink communications, wherein the group of uplink communications includes at least a first uplink communication and a second uplink communication to be transmitted by the UE using time-division multiplexing during a make-before-break handover procedure; and transmitting , based at least in part on the prioritization rule, the first uplink communication to a target base station and the second uplink communication to a source base station using time-division multiplexing during the make-before-break handover procedure. determining a prioritization rule that indicates a relative priority for different uplink communications included in a group of uplink communications, wherein the group of uplink communications includes at least a first uplink communication and a second uplink communication to be transmitted by the UE using time-division multiplexing during a make-before-break handover procedure; and transmitting , based at least in part on the prioritization rule, the first uplink communication to a target base station and the second uplink communication to a source base station using time-division multiplexing during the make-before-break handover procedure.
A transmitter, comprising: a reserving unit , configured to reserve a first channel and a second channel, wherein the first channel is used to transmit the data and the second channel is used to transmit an acknowledgement, ACK; a sending unit , configured to send the data to a receiver on the reserved first channel; a receiving unit , configured to receive the ACK corresponding to the data sent by the receiver on the reserved second channel, before a time for reaching a maximum cache capacity of the transmitter, characterised in that the time for reaching a maximum cache capacity of the transmitter is calculated based on a rate carried by a preamble at which the transmitter sends the data and on the maximum cache capacity of the transmitter which is sent by the transmitter to the receiver. a reserving unit , configured to reserve a first channel and a second channel, wherein the first channel is used to transmit the data and the second channel is used to transmit an acknowledgement, ACK; a sending unit , configured to send the data to a receiver on the reserved first channel; a receiving unit , configured to receive the ACK corresponding to the data sent by the receiver on the reserved second channel, before a time for reaching a maximum cache capacity of the transmitter, characterised in that the time for reaching a maximum cache capacity of the transmitter is calculated based on a rate carried by a preamble at which the transmitter sends the data and on the maximum cache capacity of the transmitter which is sent by the transmitter to the receiver.
Electro-pneumatic converter having a baffle plate , an exhaust nozzle completely or partially closable by said baffle plate with an exhaust nozzle aperture and an output pressure P a , initial pressure P v and ambient pressure P u , wherein the initial pressure P v is supplied by an inlet throttle , wherein the output pressure P a is tapped between the inlet throttle and the exhaust nozzle , characterized in that 1.1 the air flows turbulently between the baffle plate and the exhaust nozzle edge surface , 1.2 when the exhaust nozzle aperture is closed by the baffle plate except for a gap , wherein the gap is less than 30 μm wide; 1.3 the initial pressure P v and the ambient pressure P u are constant and the output pressure P a is regulated; and 1.4 the width s of the edge of the exhaust nozzle is proportional to the sum of the roughness depths Rz P of the surface of the baffle plate in the area of the exhaust nozzle aperture and Rz D of the surface of the edge of the exhaust nozzle ; 1.4.1 wherein the proportionality factor K = s / Rz P + Rz D has a value between 10 and 28. 1.1 the air flows turbulently between the baffle plate and the exhaust nozzle edge surface , 1.2 when the exhaust nozzle aperture is closed by the baffle plate except for a gap , wherein the gap is less than 30 μm wide; 1.3 the initial pressure P v and the ambient pressure P u are constant and the output pressure P a is regulated; and 1.4 the width s of the edge of the exhaust nozzle is proportional to the sum of the roughness depths Rz P of the surface of the baffle plate in the area of the exhaust nozzle aperture and Rz D of the surface of the edge of the exhaust nozzle ; 1.4.1 wherein the proportionality factor K = s / Rz P + Rz D has a value between 10 and 28.
Hair treatment apparatus , comprising: - first and second arms which are movable relative to one another and capable of assuming a spaced-apart configuration in which a lock of hair can be inserted between them and a closed configuration for treating the lock of hair, first and second contact surfaces which are supported by the first and second arms , respectively, and arranged opposite each other, at least one of said contact surfaces being heated, - at least the first arm comprising at least one first part for supporting the first contact surface , - a sealing element comprising a central window so as to extend at least partially around the first contact surface between the latter and the first support part , said sealing element comprising at least one opening separate from the central window and said first support part and said first contact surface being in contact with each other through said at least one opening , characterised in that the apparatus comprises at least one steam outlet supported by one of the arms at a distance from the contact surface located on the same arm, to expose the hair engaged between the arms to steam. - first and second arms which are movable relative to one another and capable of assuming a spaced-apart configuration in which a lock of hair can be inserted between them and a closed configuration for treating the lock of hair, first and second contact surfaces which are supported by the first and second arms , respectively, and arranged opposite each other, at least one of said contact surfaces being heated, - at least the first arm comprising at least one first part for supporting the first contact surface , - a sealing element comprising a central window so as to extend at least partially around the first contact surface between the latter and the first support part , said sealing element comprising at least one opening separate from the central window and said first support part and said first contact surface being in contact with each other through said at least one opening ,
A computer-implemented method for adapting operation settings for a frequency sweep measurement of a polymer product, the method comprising the steps of: - providing (S1) at least one set of operation setting parameters comprising at least one frequency range for the frequency sweep measurement of the polymer product, the at least one frequency range comprising a plurality of specific measurement frequencies; - optimizing (S2) the frequency range by deleting at least one measurement frequency of the plurality of specific measurement frequencies within a lower half of the frequency range resulting in a first optimized frequency range; and - optimizing (S3) the first optimized frequency range by determining a value of measurement frequencies present per decade of frequency within at least a subrange of the frequency range and reducing the determined value of measurement frequencies present per decade within the at least one subrange of the frequency range by deleting at least one measurement frequency of the at least one subrange resulting in a second optimized frequency range. - providing (S1) at least one set of operation setting parameters comprising at least one frequency range for the frequency sweep measurement of the polymer product, the at least one frequency range comprising a plurality of specific measurement frequencies; - optimizing (S2) the frequency range by deleting at least one measurement frequency of the plurality of specific measurement frequencies within a lower half of the frequency range resulting in a first optimized frequency range; and - optimizing (S3) the first optimized frequency range by determining a value of measurement frequencies present per decade of frequency within at least a subrange of the frequency range and reducing the determined value of measurement frequencies present per decade within the at least one subrange of the frequency range by deleting at least one measurement frequency of the at least one subrange resulting in a second optimized frequency range.
Transport device for loads, with a drive for steering and travel, a control system and a power supply, wherein a support part for reception of the load is provided, wherein the drive, control system and power supply are in turn arranged within the space defined by the support part , wherein the transport device has at least two mutually spaced-apart axles each with at least one wheel, preferably at least two wheels , wherein at least a respective one of these wheels is driven and wherein the axles are mounted to be rotatable about a main axis and each comprise at least one drive unit for each driven wheel , characterised in that three or more wheels are provided and together form instead of an axle a subframe or turntable .
Method for producing a decorated wall or floor panel, comprising the method steps: a) providing a melted polymer mass; b) extruding the melted polymer mass through a die ; c) finish-sizing the melted polymer mass to form a plate-like carrier by means of an assembly of a plurality of rotatable rollers , wherein the individual rollers are arranged one above or behind the other and each individual roller forms with adjacent rollers at least one finish-sizing nip through which the melted polymer mass is passed, wherein the finish-sizing nip heights are variably adjustable by a horizontal and/or vertical movement of individual rollers during the production process; d) applying a decoration reproducing a decoration template onto at least one sub-region of the at least partially finish-sized carrier; and e) applying a protective coating to at least a sub-region of the decoration, characterized in that the finish-sizing in method step c) is carried out by use of at least one main roller pair consisting of two rollers with a larger diameter and at least three finish-sizing rollers arranged one behind the other with a smaller diameter compared to that of the main roller pair and wherein the height of the finish-sizing nip of the main roller pair H H differs from the heights of the finish-sizing nips of the finish-sizing rollers H K by greater than or equal to 10% and less than or equal to 50%, wherein the height of the last and/or the penultimate finish-sizing nip is selected such that the carrier is compressed in its height by a factor of less than or equal to 10 % and greater than or equal to 3%. a) providing a melted polymer mass; b) extruding the melted polymer mass through a die ; c) finish-sizing the melted polymer mass to form a plate-like carrier by means of an assembly of a plurality of rotatable rollers , wherein the individual rollers are arranged one above or behind the other and each individual roller forms with adjacent rollers at least one finish-sizing nip through which the melted polymer mass is passed, wherein the finish-sizing nip heights are variably adjustable by a horizontal and/or vertical movement of individual rollers during the production process; d) applying a decoration reproducing a decoration template onto at least one sub-region of the at least partially finish-sized carrier; and e) applying a protective coating to at least a sub-region of the decoration, characterized in that the finish-sizing in method step c) is carried out by use of at least one main roller pair consisting of two rollers with a larger diameter and at least three finish-sizing rollers arranged one behind the other with a smaller diameter compared to that of the main roller pair and wherein the height of the finish-sizing nip of the main roller pair H H differs from the heights of the finish-sizing nips of the finish-sizing rollers H K by greater than or equal to 10% and less than or equal to 50%, wherein the height of the last and/or the penultimate finish-sizing nip is selected such that the carrier is compressed in its height by a factor of less than or equal to 10 % and greater than or equal to 3%.
A fat composition comprising: from 10% to 30% by weight of diglycerides; and from 70% to 90% by weight of triglycerides, wherein the triglycerides comprise from 40% to 75% by weight of CN50 triglycerides and from 15% to 40% by weight of CN52 triglycerides; based on total triglycerides present in the composition; and wherein the fat composition has: from 55 to 85 solid fat content at 10°C; and from 35 to 70 solid fat content at 20°C; and from 5 to 25 solid fat content at 30°C; and from 0 to 10 solid fat content at 40°C; measured on 20°C stabilized fat according to ISO 8292-1. from 10% to 30% by weight of diglycerides; and from 70% to 90% by weight of triglycerides, wherein the triglycerides comprise from 40% to 75% by weight of CN50 triglycerides and from 15% to 40% by weight of CN52 triglycerides; based on total triglycerides present in the composition; and wherein the fat composition has: from 55 to 85 solid fat content at 10°C; and from 35 to 70 solid fat content at 20°C; and from 5 to 25 solid fat content at 30°C; and from 0 to 10 solid fat content at 40°C; measured on 20°C stabilized fat according to ISO 8292-1. from 55 to 85 solid fat content at 10°C; and from 35 to 70 solid fat content at 20°C; and from 5 to 25 solid fat content at 30°C; and from 0 to 10 solid fat content at 40°C; measured on 20°C stabilized fat according to ISO 8292-1.
A filter for an espresso coffee machine comprising a first portion having a cup-shaped body , for containing coffee powder, having at least one bottom wall having an acceleration hole for the dispensing of coffee; a second portion comprising a filtering wall placed in the cup-shaped body upstream of the acceleration hole and removably associated with the cup-shaped body and a seal placed between an edge of the filtering wall and the cup-shaped body ; said seal being coupled unremovably to the filtering wall ; characterised in that it exclusively comprises said first and said second portion.
A coating composition for forming a fastener adhesive, said coating composition comprising: A) an epoxy curing agent component; B) a microencapsulated epoxy resin component; C) an expansion agent component; D) a binder component; and E) a solvent component; wherein the microencapsulated epoxy resin component B) and the expansion agent component C) are present in a weight ratio of from about 15:1 to about 1:1. A) an epoxy curing agent component; B) a microencapsulated epoxy resin component; C) an expansion agent component; D) a binder component; and E) a solvent component;
A system comprising: a memory controller to interface with a memory , associated with a plurality of pins , based on a codeword including a plurality of n-bit symbols and a plurality of n-bit error correcting code, ECC, check symbols, wherein the system is configured to perform error detection and/or correction relating to the n-bit data symbols based on the codeword ; characterized in that an n-bit symbol of the codeword is formed from a plurality of n bursts of 1-bit data over time associated with a single one of the plurality of pins of the memory . a memory controller to interface with a memory , associated with a plurality of pins , based on a codeword including a plurality of n-bit symbols and a plurality of n-bit error correcting code, ECC, check symbols, wherein the system is configured to perform error detection and/or correction relating to the n-bit data symbols based on the codeword ; characterized in that an n-bit symbol of the codeword is formed from a plurality of n bursts of 1-bit data over time associated with a single one of the plurality of pins of the memory .
Process for the preparation of a topography for improved blood coagulation and/or cell attachment on a body made of a titanium-zirconium alloy, wherein the process comprises the subsequent steps of a) etching at least a portion of the surface of the body with a first etching solution comprising a mineral acid, said first etching solution being at least approximately devoid of hydrofluoric acid, and b) etching the surface etched under a) with a second etching solution different than the first etching solution, said second etching solution comprising hydrofluoric acid. a) etching at least a portion of the surface of the body with a first etching solution comprising a mineral acid, said first etching solution being at least approximately devoid of hydrofluoric acid, and b) etching the surface etched under a) with a second etching solution different than the first etching solution, said second etching solution comprising hydrofluoric acid.
A method for preparing an induced pluripotent stem cell, comprising introducing a composition for promoting the formation of an induced pluripotent stem cell into a mammalian somatic cell, wherein, said composition comprises nucleic acids encoding the following polypeptides: a c-Jun antagonist, Jhdm1b, Id1, and at least one factor selected only from Glis1, Sall4 and Lrh1; wherein the c-Jun antagonist comprises: c-JunDN having the amino acid sequence of SEQ ID NO. 2 or a functional variant thereof, wherein the functional variant thereof has a bZIP domain but lacks a transactivation domain and shows at least 70% homology to SEQ ID NO. 2, or Jdp2 having the amino acid sequence of SEQ ID NO. 3 or a functional variant thereof, wherein the functional variant thereof has a bZIP domain but lacks a transactivation domain and shows at least 70% homology to SEQ ID NO. 3; and wherein, when the c-Jun antagonist is c-JunDN, said composition does not comprise nucleic acids encoding the following four groups of polypeptides: Sox2, Klf4 and c-Myc, Oct3/4, Klf4 and c-Myc, Oct3/4, Lkf and Sox2, or Klf4 and Sox2. c-JunDN having the amino acid sequence of SEQ ID NO. 2 or a functional variant thereof, wherein the functional variant thereof has a bZIP domain but lacks a transactivation domain and shows at least 70% homology to SEQ ID NO. 2, or Jdp2 having the amino acid sequence of SEQ ID NO. 3 or a functional variant thereof, wherein the functional variant thereof has a bZIP domain but lacks a transactivation domain and shows at least 70% homology to SEQ ID NO. 3; and
A composite article , comprising: a multiple of composite layers impregnated with a polymer matrix ; a nanotube material that facilitates a mechanical interlock between at least two of the multiple of composite layers ; wherein the nanotube material is located adjacent an angle bend feature of the composite article. a multiple of composite layers impregnated with a polymer matrix ; a nanotube material that facilitates a mechanical interlock between at least two of the multiple of composite layers ; wherein the nanotube material is located adjacent an angle bend feature of the composite article. multiple of composite layers ; wherein the nanotube material is located adjacent an angle bend feature of the composite article.
A method comprising: generating, at a change detection circuit included in a first processing path , a control signal based on a change amount between first sensor data and second sensor data satisfying a threshold, the first sensor data corresponding to a first set of pixel values associated with a first image captured by a first sensor and the second sensor data corresponding to a second set of pixel values associated with a second image captured by the first sensor ; the method characterised by providing the second sensor data to a second processing path for computer vision application-specific processing based on the control signal , the second processing path different from the first processing path , wherein the computational power for the first processing path is less than the computational power for the second processing path . generating, at a change detection circuit included in a first processing path , a control signal based on a change amount between first sensor data and second sensor data satisfying a threshold, the first sensor data corresponding to a first set of pixel values associated with a first image captured by a first sensor and the second sensor data corresponding to a second set of pixel values associated with a second image captured by the first sensor ; the method characterised by providing the second sensor data to a second processing path for computer vision application-specific processing based on the control signal , the second processing path different from the first processing path , wherein the computational power for the first processing path is less than the computational power for the second processing path .
Measuring device for capturing instantaneous deformation of a component , having at least one sensor device , which can be fastened to the component , and at least one measuring electronic system , which is connected to the sensor device for signalling purposes, wherein the measuring electronic system is configured to determine the instantaneous deformation of the component from electrical resistance measurements at the sensor device , wherein, in order to measure the instantaneous deformation of the component , the sensor device has at least one sensor layer , which can be fastened to the component and has a carrier material and electrically conductive particles embedded therein, and at least three contact pairs each with two electrical measuring contacts arranged at a distance from one another on the sensor layer , wherein the contact pairs are arranged relative to one another in such a manner that it is possible to determine instantaneous deformations of the sensor layer in at least three different directions using electrical resistance measurements, and a multiplicity of measuring contacts spaced apart from one another are arranged on the sensor layer , wherein the measuring contacts are arranged in a matrix-like manner in a regular pattern, characterized in that the measuring electronic system is configured to determine forces instantaneously acting on the component in a location-dependent manner, wherein the sensor layer has a total of nine electrical measuring contacts which are arranged in the form of a 3x3 matrix with respect to one another.