mhurhangee/patent-ind-claim-en huggingface dataset:
An exhaust gas purification system comprising a gasoline engine followed in consecutive order by the following devices: a first three-way-catalyst (TWC1), a gasoline particulate filter (GPF) and a second three-way-catalyst (TWC2), wherein the wash coat load (WCL) of the TWC2 is greater than the WCL of the GPF, wherein the WCL is determined in g/l of the volume of the device, and wherein the wash coat load (WCL) of the TWC1 is greater than the WCL of the TWC2, wherein the WCL is determined in g/l of the volume of the device. a first three-way-catalyst (TWC1), a gasoline particulate filter (GPF) and a second three-way-catalyst (TWC2), wherein the wash coat load (WCL) of the TWC2 is greater than the WCL of the GPF, wherein the WCL is determined in g/l of the volume of the device, and wherein the wash coat load (WCL) of the TWC1 is greater than the WCL of the TWC2, wherein the WCL is determined in g/l of the volume of the device.
A sewing management system comprising: a sewing device that transmits production management information including identification information of an operator (OP; OP1; OP2; OP3) and operation information of a device main body; and a management device that manages the production management information for each process of a product sewn in a sewing line (SL) or for each process of a component that configures the product, wherein the management device estimates a sewing skill of the operator (OP; OP1; OP2; OP3) based on the production management information, characterized in that the sewing management system further comprising: a terminal (10; 30; 40; 50; 60; 70) that detects physical condition management information of the operator (OP; OP1; OP2; OP3); wherein the management device manages the physical condition management information for each operator (OP; OP1; OP2; OP3), and estimates production capacity of the operator (OP; OP1; OP2; OP3) based on the sewing skill and the physical condition management information. a sewing device that transmits production management information including identification information of an operator (OP; OP1; OP2; OP3) and operation information of a device main body; and a management device that manages the production management information for each process of a product sewn in a sewing line (SL) or for each process of a component that configures the product, wherein the management device estimates a sewing skill of the operator (OP; OP1; OP2; OP3) based on the production management information, characterized in that the sewing management system further comprising: a terminal (10; 30; 40; 50; 60; 70) that detects physical condition management information of the operator (OP; OP1; OP2; OP3); wherein the management device manages the physical condition management information for each operator (OP; OP1; OP2; OP3), and estimates production capacity of the operator (OP; OP1; OP2; OP3) based on the sewing skill and the physical condition management information. a terminal (10; 30; 40; 50; 60; 70) that detects physical condition management information of the operator (OP; OP1; OP2; OP3); wherein the management device manages the physical condition management information for each operator (OP; OP1; OP2; OP3), and estimates production capacity of the operator (OP; OP1; OP2; OP3) based on the sewing skill and the physical condition management information.
A method of wireless communication at a user equipment, UE, the method comprising: receiving triggering information associated with transmitting one or more channel state information, CSI, reports associated with one or more downlink, DL, semi-persistent scheduling, SPS, transmissions in one or more physical downlink shared channel, PDSCH, occasions; receiving a first DL SPS transmission of the one or more DL SPS transmissions in a first PDSCH occasion of the one or more PDSCH occasions; and transmitting a first CSI report associated with the first DL SPS transmission based on receiving the triggering information, wherein the first PDSCH occasion includes a first demodulation reference signal, DM-RS, and wherein receiving the triggering information comprises receiving the first DM-RS, the first DM-RS triggering the UE to transmit the first CSI report. receiving triggering information associated with transmitting one or more channel state information, CSI, reports associated with one or more downlink, DL, semi-persistent scheduling, SPS, transmissions in one or more physical downlink shared channel, PDSCH, occasions; receiving a first DL SPS transmission of the one or more DL SPS transmissions in a first PDSCH occasion of the one or more PDSCH occasions; and transmitting a first CSI report associated with the first DL SPS transmission based on receiving the triggering information, wherein the first PDSCH occasion includes a first demodulation reference signal, DM-RS, and wherein receiving the triggering information comprises receiving the first DM-RS, the first DM-RS triggering the UE to transmit the first CSI report.
Holding device for a load on a vehicle seat comprising - a supporting element for fixing a load , - a support element which is pivotably connected to the supporting element - at least one fastening device for engaging in a retaining bracket, which is connected to the support element and/or the supporting element , and - an adjusting element , said adjusting element being adapted to adjust an angle α between the support element and the supporting element in such a way that, in the installed state, the supporting element can be spread against a seat surface and the support element can be spread against a seat back of the vehicle seat and a rotation of the holding device around a horizontal axis and/or a movement perpendicular to the seat surface is prevented, characterised in that the adjusting element exclusively restricts a decrease of the angle a, and thus in the dismantled state of the holding device the support element can be pivoted away from the supporting element without changing the adjusting element. - a supporting element for fixing a load , - a support element which is pivotably connected to the supporting element - at least one fastening device for engaging in a retaining bracket, which is connected to the support element and/or the supporting element , and - an adjusting element , said adjusting element being adapted to adjust an angle α between the support element and the supporting element in such a way that, in the installed state, the supporting element can be spread against a seat surface and the support element can be spread against a seat back of the vehicle seat and a rotation of the holding device around a horizontal axis and/or a movement perpendicular to the seat surface is prevented, characterised in that the adjusting element exclusively restricts a decrease of the angle a, and thus in the dismantled state of the holding device the support element can be pivoted away from the supporting element without changing the adjusting element.
A battery module comprising: a battery cell assembly including a plurality of battery cells ; a sensing assembly which covers front and rear of the battery cell assembly ; a module case which receives the battery cell assembly having the mounted sensing assembly ; and a thermal conductive adhesive interposed between an upper inner surface of the module case and an upper side of the battery cell assembly , wherein the sensing assembly includes: a first busbar frame assembly positioned in front of the battery cell assembly ; a second busbar frame assembly positioned at the rear of the battery cell assembly , facing the first busbar frame assembly ; and a sensing wire which connects the first busbar frame assembly and the second busbar frame assembly , and runs across the upper side of the battery cell assembly in a diagonal direction, and the thermal conductive adhesive is disposed on two sides of the sensing wire . a battery cell assembly including a plurality of battery cells ; a sensing assembly which covers front and rear of the battery cell assembly ; a module case which receives the battery cell assembly having the mounted sensing assembly ; and a thermal conductive adhesive interposed between an upper inner surface of the module case and an upper side of the battery cell assembly , wherein the sensing assembly includes: a first busbar frame assembly positioned in front of the battery cell assembly ; a second busbar frame assembly positioned at the rear of the battery cell assembly , facing the first busbar frame assembly ; and a sensing wire which connects the first busbar frame assembly and the second busbar frame assembly , and runs across the upper side of the battery cell assembly in a diagonal direction, and the thermal conductive adhesive is disposed on two sides of the sensing wire . a first busbar frame assembly positioned in front of the battery cell assembly ; a second busbar frame assembly positioned at the rear of the battery cell assembly , facing the first busbar frame assembly ; and a sensing wire which connects the first busbar frame assembly and the second busbar frame assembly , and runs across the upper side of the battery cell assembly in a diagonal direction, and the thermal conductive adhesive is disposed on two sides of the sensing wire .
A conjugate of a protein or peptide with a therapeutic agent, said conjugate containing a protein or peptide bonding portion and having a linker which connects the therapeutic agent to the protein or peptide bonding portion, said linker including a polyethylene glycol portion; in which said protein or peptide bonding portion has the general formula: in which: Pr represents said protein or peptide; each Nu represents a sulfur atom or an amine group provided by a cysteine, lysine or histidine residue present in the protein or peptide Pr; or each Nu represents an imidazole group present in a polyhistidine tag attached to the protein or peptide Pr; each of A and B independently represents a C 1-4 alkylene or alkenylene chain; and W' represents a keto group or a CH.OH group; said polyethylene glycol portion is or includes a pendant polyethylene glycol chain which has a terminal end group of formula -CH 2 CH 2 OR, in which R represents a hydrogen atom, an alkyl group, or an optionally substituted aryl group, and wherein said pendant polyethylene glycol chain has a number average molecular weight of up to 75,000 glmole; the linker includes the grouping: in which F' represents said protein or peptide bonding portion of formula I; and the protein or peptide is a receptor or ligand binding protein, an antibody or antibody fragment. Pr represents said protein or peptide; each Nu represents a sulfur atom or an amine group provided by a cysteine, lysine or histidine residue present in the protein or peptide Pr; or each Nu represents an imidazole group present in a polyhistidine tag attached to the protein or peptide Pr; each of A and B independently represents a C 1-4 alkylene or alkenylene chain; and W' represents a keto group or a CH.OH group; said polyethylene glycol portion is or includes a pendant polyethylene glycol chain which has a terminal end group of formula -CH 2 CH 2 OR, in which R represents a hydrogen atom, an alkyl group, or an optionally substituted aryl group, and wherein said pendant polyethylene glycol chain has a number average molecular weight of up to 75,000 glmole; the linker includes the grouping: in which F' represents said protein or peptide bonding portion of formula I; and the protein or peptide is a receptor or ligand binding protein, an antibody or antibody fragment.
A system for aberrant splicing determination, including numerous processors operating in parallel, coupled to memory, the memory loaded with computer instructions to determine aberrant splicing, comprising: a trained atrous convolutional neural network, abbreviated ACNN, running on the numerous processors, that processes pre-mRNA sequences, including: an input module that receives a variant sequence of at least 101 target nucleotides and flanking nucleotides, comprising at least 901 nucleotides with the target nucleotide flanked by at least 400 nucleotides on each side; and accesses a reference sequence comprising at least 901 nucleotides; layers that perform atrous convolutions on the target nucleotides in the variant sequence and the reference sequence, and assign splice site scores for likelihood that each of the target nucleotides is a donor splice site, an acceptor splice site, or a non-splicing site; and an output module that determines, from position-wise differences in the splice site scores of the target nucleotides in the variant sequence and the reference sequence, whether a variant in the variant sequence causes aberrant splicing at any of the target nucleotides in the variant sequence and is therefore pathogenic. an input module that receives a variant sequence of at least 101 target nucleotides and flanking nucleotides, comprising at least 901 nucleotides with the target nucleotide flanked by at least 400 nucleotides on each side; and accesses a reference sequence comprising at least 901 nucleotides; receives a variant sequence of at least 101 target nucleotides and flanking nucleotides, comprising at least 901 nucleotides with the target nucleotide flanked by at least 400 nucleotides on each side; and accesses a reference sequence comprising at least 901 nucleotides; layers that perform atrous convolutions on the target nucleotides in the variant sequence and the reference sequence, and assign splice site scores for likelihood that each of the target nucleotides is a donor splice site, an acceptor splice site, or a non-splicing site; and an output module that determines, from position-wise differences in the splice site scores of the target nucleotides in the variant sequence and the reference sequence, whether a variant in the variant sequence causes aberrant splicing at any of the target nucleotides in the variant sequence and is therefore pathogenic.
A bumper arrangement for a motor vehicle , the bumper arrangement comprising : - a front lighting and/or signalling device ; - a bumper skin located below the lighting and/or signalling device ; - a bumper skin extension fixed integrally to an upper longitudinal end of the bumper skin by means of a fastening member, the bumper skin extension being configured to protect a lower part of the lighting and/or signalling device of a motor vehicle , characterized in that the member for fixing the bumper skin extension to the bumper skin forms a hinge. - a front lighting and/or signalling device ; - a bumper skin located below the lighting and/or signalling device ; - a bumper skin extension fixed integrally to an upper longitudinal end of the bumper skin by means of a fastening member, the bumper skin extension being configured to protect a lower part of the lighting and/or signalling device of a motor vehicle ,
Method for operating an automotive lighting device comprising at least one solid-state light source , a plurality of sensors , configured to provide device data; - a control unit ; the method comprising performing at the control unit the following steps: - receiving and processing the device data; - generating an estimated condition of the lighting device based on the device data; and - controlling an operation parameter of the automotive lighting device using the estimated condition; the method being characterised in that generating the estimated condition comprises: - training the control unit to generate an estimated condition with a training dataset; - simulate a first time for derating if no action is carried out; - associate an action over an operation parameter to the values of the estimated condition; - simulate the action over the operation parameter; and - testing the control unit with the simulated action to verify whether the time for derating is greater than the first time for derating; wherein the step of training the control unit comprises the use of a machine learning algorithm. at least one solid-state light source , a plurality of sensors , configured to provide device data; - a control unit ; - a control unit ; the method comprising performing at the control unit the following steps: - receiving and processing the device data; - generating an estimated condition of the lighting device based on the device data; and - controlling an operation parameter of the automotive lighting device using the estimated condition; - receiving and processing the device data; - generating an estimated condition of the lighting device based on the device data; and - controlling an operation parameter of the automotive lighting device using the estimated condition; the method being characterised in that generating the estimated condition comprises: - training the control unit to generate an estimated condition with a training dataset; - simulate a first time for derating if no action is carried out; - associate an action over an operation parameter to the values of the estimated condition; - simulate the action over the operation parameter; and - testing the control unit with the simulated action to verify whether the time for derating is greater than the first time for derating; wherein the step of training the control unit comprises the use of a machine learning algorithm. - training the control unit to generate an estimated condition with a training dataset; - simulate a first time for derating if no action is carried out; - associate an action over an operation parameter to the values of the estimated condition; - simulate the action over the operation parameter; and - testing the control unit with the simulated action to verify whether the time for derating is greater than the first time for derating; wherein the step of training the control unit comprises the use of a machine learning algorithm.
A method of controlling a liquid ejecting apparatus , the liquid ejecting apparatus including a pressure chamber that communicates with a nozzle (N) that ejects a liquid, a drive element that changes a pressure of the liquid in the pressure chamber, and a drive circuit that supplies the drive element with an ejection pulse that generates a change in the pressure that ejects the liquid from the nozzle, the method comprising: (S1-S3) specifying a viscosity of the liquid in the nozzle and a surface tension of the liquid in the nozzle from a residual vibration when the pressure of the liquid in the pressure chamber is changed; and (S4) controlling a waveform of the ejection pulse according to the viscosity and the surface tension, wherein the specifying the surface tension includes specifying the surface tension from a frequency of the residual vibration. a pressure chamber that communicates with a nozzle (N) that ejects a liquid, a drive element that changes a pressure of the liquid in the pressure chamber, and a drive circuit that supplies the drive element with an ejection pulse that generates a change in the pressure that ejects the liquid from the nozzle, the method comprising: (S1-S3) specifying a viscosity of the liquid in the nozzle and a surface tension of the liquid in the nozzle from a residual vibration when the pressure of the liquid in the pressure chamber is changed; and (S4) controlling a waveform of the ejection pulse according to the viscosity and the surface tension, wherein the specifying the surface tension includes specifying the surface tension from a frequency of the residual vibration. (S1-S3) specifying a viscosity of the liquid in the nozzle and a surface tension of the liquid in the nozzle from a residual vibration when the pressure of the liquid in the pressure chamber is changed; and (S4) controlling a waveform of the ejection pulse according to the viscosity and the surface tension, wherein the specifying the surface tension includes specifying the surface tension from a frequency of the residual vibration.
A stent-valve for cardiac valve replacement, the stent-valve comprising: a valve component ; and a stent component housing the valve component ; the stent component and the valve component being capable of a collapsed configuration for delivery to an implantation site by a catheter, and an expanded configuration after implantation; characterized in that the stent-valve comprises loop material on an exterior surface of the stent component, the loop material being capable of forming a hook-and-loop fastening with respect to a microscopic hook material on an interior surface of a second stent component , wherein the loop material comprises a micro-velour material. a valve component ; and a stent component housing the valve component ; the stent component and the valve component being capable of a collapsed configuration for delivery to an implantation site by a catheter, and an expanded configuration after implantation; characterized in that the stent-valve comprises loop material on an exterior surface of the stent component, the loop material being capable of forming a hook-and-loop fastening with respect to a microscopic hook material on an interior surface of a second stent component , wherein the loop material comprises a micro-velour material.
Method for loading a heat treatment unit with plate-shaped objects , in particular glass plates, wherein the method comprises the following steps of: a. detecting in each case at least one parameter of plate-shaped objects of an object stream, wherein a length, a width, a thickness, a diameter, a coating type, a material type and/or a batch number is or are detected as parameters of the respective plate-shaped object ; b. storing the plate-shaped objects in a storage unit having a plurality of storage locations ; c. storing information on the respective storage location and/or on the respective at least one detected parameter of the respective plate-shaped objects ; d. calculating a loading arrangement of a selection of the plate-shaped objects for the arrangement of the plate-shaped objects of this selection on or in a loading system , wherein the calculation is carried out on the basis of the stored information and by taking into account predeterminable main conditions; e. removing the selection of plate-shaped objects from the respective storage location ; f. transporting the selection of plate-shaped objects to the loading system ; g. transferring the selection of plate-shaped objects to the loading system in a loading sequence corresponding to the calculated loading arrangement ; h. positioning the selection of plate-shaped objects on or in the loading system , whereby the loading arrangement is produced; i. conveying the selection of plate-shaped objects located in the loading arrangement from the loading system into the heat treatment unit . a. detecting in each case at least one parameter of plate-shaped objects of an object stream, wherein a length, a width, a thickness, a diameter, a coating type, a material type and/or a batch number is or are detected as parameters of the respective plate-shaped object ; b. storing the plate-shaped objects in a storage unit having a plurality of storage locations ; c. storing information on the respective storage location and/or on the respective at least one detected parameter of the respective plate-shaped objects ; d. calculating a loading arrangement of a selection of the plate-shaped objects for the arrangement of the plate-shaped objects of this selection on or in a loading system , wherein the calculation is carried out on the basis of the stored information and by taking into account predeterminable main conditions; e. removing the selection of plate-shaped objects from the respective storage location ; f. transporting the selection of plate-shaped objects to the loading system ; g. transferring the selection of plate-shaped objects to the loading system in a loading sequence corresponding to the calculated loading arrangement ; h. positioning the selection of plate-shaped objects on or in the loading system , whereby the loading arrangement is produced; i. conveying the selection of plate-shaped objects located in the loading arrangement from the loading system into the heat treatment unit .