mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle seat , in particular motor vehicle seat, having a seat part and having a backrest , wherein an operating device is provided in a padding of the backrest , wherein the operating device comprises a display element and a touch-sensitive input device, and the operating device is arranged in an upper region of the backrest and/or in the region of a side, facing toward a rear seat row, of the backrest of the vehicle seat .
A master configured to update software for a target electronic control unit that is a software update target among one or more electronic control units mounted in a vehicle, the master comprising: a communication section configured to communicate with a center ; and a control section configured to update the software for the target electronic control unit, wherein the control section is configured to acquire information related to a free space size of a storage of the master or the target electronic control unit, the communication section is configured to transmit, to the center , information requesting a download of update data with a size equal to or smaller than the free space size of the storage of the master or the target electronic control unit, and receive the update data from the center , and the control section is configured to update the software for the target electronic control unit by using the update data received by the communication section . a communication section configured to communicate with a center ; and a control section configured to update the software for the target electronic control unit, wherein the control section is configured to acquire information related to a free space size of a storage of the master or the target electronic control unit, the communication section is configured to transmit, to the center , information requesting a download of update data with a size equal to or smaller than the free space size of the storage of the master or the target electronic control unit, and receive the update data from the center , and transmit, to the center , information requesting a download of update data with a size equal to or smaller than the free space size of the storage of the master or the target electronic control unit, and receive the update data from the center , and the control section is configured to update the software for the target electronic control unit by using the update data received by the communication section .
A production method for a film laminate, comprising bonding a tough film having an elongated shape to a brittle film having an elongated shape while conveying the brittle film, wherein the method comprises bonding the brittle film and the tough film to each other by causing the brittle film and the tough film to travel between a first roll and a second roll facing each other, and wherein the first roll has an Asker C hardness of from 1 to50, wherein the brittle film has a fracture toughness value of from 0.1 MPa/m 1/2 to 10 MPa/m 1/2 and is a glass film, a ceramic film, or a film formed of a semiconductor material or an acrylic resin; and wherein the tough film is a resin film having a fracture toughness value that is larger than that of the brittle film and from 2 MPa/m 1/2 to 20 MPa/m 1/2 , said fracture toughness values being determined as described in the description wherein the method comprises bonding the brittle film and the tough film to each other by causing the brittle film and the tough film to travel between a first roll and a second roll facing each other, and wherein the first roll has an Asker C hardness of from 1 to50, wherein the brittle film has a fracture toughness value of from 0.1 MPa/m 1/2 to 10 MPa/m 1/2 and is a glass film, a ceramic film, or a film formed of a semiconductor material or an acrylic resin; and wherein the tough film is a resin film having a fracture toughness value that is larger than that of the brittle film and from 2 MPa/m 1/2 to 20 MPa/m 1/2 , said fracture toughness values being determined as described in the description
A thermal type flow meter , comprising: - a flow tube for a medium whose flow is to be determined, - a sensor tube , having an inlet fluidly connected to the flow tube at a first position and an outlet fluidly connected to the flow tube at a second, downstream position , wherein the sensor tube comprises a thermal flow sensor for measuring a temperature differential in the sensor tube in order to determine the flow, - a pressure sensor provided at or near the flow tube to measure the pressure of the flow of the medium through the flow tube, - a temperature sensor provided at the flow tube to measure the temperature of the flow of the medium through the flow tube, characterized by - a processing unit for determination of the actual medium properties , comprising actual density, viscosity, heat capacity, thermal conductivity and/or vapour pressure, based on the pressure measured by the pressure sensor, the temperature measured by the temperature sensor and intrinsic medium data retrieved from a database, comprising molecular mass, dipole momentum, and/or boiling point, wherein the intrinsic medium data is determined from the type of medium, instrument settings and/or medium mix , - a processing unit for determination of the flow by continuously and in real-time calculating the actual flow through the thermal flow sensor using the actual medium properties and calibration data , and - the pressure sensor and the temperature sensor being configured to respectively measure the pressure and the temperature of the flow of the medium through the flow tube continuously and in real-time. - a flow tube for a medium whose flow is to be determined, - a sensor tube , having an inlet fluidly connected to the flow tube at a first position and an outlet fluidly connected to the flow tube at a second, downstream position , wherein the sensor tube comprises a thermal flow sensor for measuring a temperature differential in the sensor tube in order to determine the flow, - a pressure sensor provided at or near the flow tube to measure the pressure of the flow of the medium through the flow tube, - a temperature sensor provided at the flow tube to measure the temperature of the flow of the medium through the flow tube, characterized by - a processing unit for determination of the actual medium properties , comprising actual density, viscosity, heat capacity, thermal conductivity and/or vapour pressure, based on the pressure measured by the pressure sensor, the temperature measured by the temperature sensor and intrinsic medium data retrieved from a database, comprising molecular mass, dipole momentum, and/or boiling point, wherein the intrinsic medium data is determined from the type of medium, instrument settings and/or medium mix , - a processing unit for determination of the flow by continuously and in real-time calculating the actual flow through the thermal flow sensor using the actual medium properties and calibration data , and - the pressure sensor and the temperature sensor being configured to respectively measure the pressure and the temperature of the flow of the medium through the flow tube continuously and in real-time.
A method for finding a second positioning (270_1, 270_2, 270_n) of an object relative to a CT scan of the object , comprising the steps of: performing or simulating the CT scan for a first positioning to obtain one or more radiographs for the first positioning; reconstructing a CT reconstruction of the object on the basis of the one or more radiographs for the first positioning to obtain a first data model (235, 235_1); locally evaluating an image quality for one or more local regions of the first data model to obtain one or more image quality values for the one or more local regions; judging the image quality for the CT reconstruction or a regional region of the CT reconstruction using the one or more image quality values; determining the second positioning of the object relative to the CT scan; and repeating the steps of performing or simulating the CT scan , reconstructing , locally evaluating , judging and determining for the second positioning while changing the second positioning; characterized in that the step of locally evaluating comprises the sub-step of adding up intensity values per local region from the one or more radiographs for the first positioning, wherein a high intensity value results in a high image quality value per local region; or characterized in that the step of locally evaluating comprises the sub-step of simulating a CT reconstruction of the object and the sub-step of comparing the simulated CT reconstruction to the CT reconstruction of the object, wherein a high match between the simulated CT reconstruction and the CT reconstruction results in a high image quality value per local region. performing or simulating the CT scan for a first positioning to obtain one or more radiographs for the first positioning; reconstructing a CT reconstruction of the object on the basis of the one or more radiographs for the first positioning to obtain a first data model (235, 235_1); locally evaluating an image quality for one or more local regions of the first data model to obtain one or more image quality values for the one or more local regions; judging the image quality for the CT reconstruction or a regional region of the CT reconstruction using the one or more image quality values; determining the second positioning of the object relative to the CT scan; and repeating the steps of performing or simulating the CT scan , reconstructing , locally evaluating , judging and determining for the second positioning while changing the second positioning; characterized in that the step of locally evaluating comprises the sub-step of adding up intensity values per local region from the one or more radiographs for the first positioning, wherein a high intensity value results in a high image quality value per local region; or characterized in that the step of locally evaluating comprises the sub-step of simulating a CT reconstruction of the object and the sub-step of comparing the simulated CT reconstruction to the CT reconstruction of the object, wherein a high match between the simulated CT reconstruction and the CT reconstruction results in a high image quality value per local region.
A process for the preparation of a catalyst, the process comprising: (a) mixing silica gel beads or diatomaceous earth with sodium aluminate, and water, at a pH above 11, thus forming a suspension of an amorphous catalyst support in water, (b) optionally washing the catalyst support with water, (c) separating the catalyst support from the water, (d) optionally drying and/or calcining the catalyst support (e) supporting on said catalyst support, a catalytically active component selected from the group consisting of: platinum, palladium, iridium, rhodium, gold, silver or mixtures thereof, wherein the temperature in step (a) is in the range of from 55 to 85°C. (a) mixing silica gel beads or diatomaceous earth with sodium aluminate, and water, at a pH above 11, thus forming a suspension of an amorphous catalyst support in water, (b) optionally washing the catalyst support with water, (c) separating the catalyst support from the water, (d) optionally drying and/or calcining the catalyst support (e) supporting on said catalyst support, a catalytically active component selected from the group consisting of: platinum, palladium, iridium, rhodium, gold, silver or mixtures thereof,
An image processing system, wherein the system comprises: an application client, a data source manager, a general-purpose data source, and at least two image input devices corresponding to the general-purpose data source; the general-purpose data source is configured to: switch a mapping relationship between the general-purpose data source and a previously mapped image input device to a mapping relationship between the general-purpose data source and a specified image input device; the application client is configured to send an image processing instruction for the general-purpose data source to the data source manager; the data source manager is configured to: when receiving the image processing instruction, send the image processing instruction to the general-purpose data source; the general-purpose data source is configured to: when receiving the image processing instruction, process, according to the image processing instruction, an image that is obtained by the specified image input device specified by the image processing instruction; and send a processing result to the data source manager; and the data source manager is further configured to: when receiving the processing result, send the processing result to the application client.
A carrier assembly for a harness for carrying a handheld motor-driven work tool, the carrier assembly comprising a back plate including connections for shoulder straps , a hip belt , and means for attaching the work tool, the back plate is arranged to be connected to the hip belt by means of a pivotal connection joint to allow rotation about an axis substantially perpendicular to a plane defined by the back plate , the back plate comprises a recess defining a cavity adapted to receive a corresponding tongue- shaped member arranged on the hip belt , characterized in that the recess further comprises a hole adapted to receive a corresponding protruding boss arranged on a resilient tab on the tongue-shaped member in a snap-fit connection, wherein the back plate is arranged to pivot about the boss on the resilient tab .
A laminated thin film comprising: a hard coat layer having a surface on which metal oxide particles are exposed; and an adhesion layer deposited on the surface of the hard coat layer on which the metal oxide particles are exposed, the adhesion layer being constituted by a metal oxide in an oxygen-deficient state of the same metal as the metal oxide particles or constituted by the same metal as the metal oxide particles ; wherein an arithmetical mean roughness Ra of the hard coat layer surface is 2 to 12 nm, wherein an average value of a protrusion ratio with respect to an average particle diameter of the metal oxide particles exposed on the surface of the hard coat layer is 60% or less, and wherein the metal oxide particles have an average particle diameter of 800 nm or less. a hard coat layer having a surface on which metal oxide particles are exposed; and an adhesion layer deposited on the surface of the hard coat layer on which the metal oxide particles are exposed, the adhesion layer being constituted by a metal oxide in an oxygen-deficient state of the same metal as the metal oxide particles or constituted by the same metal as the metal oxide particles ; wherein an arithmetical mean roughness Ra of the hard coat layer surface is 2 to 12 nm, wherein an average value of a protrusion ratio with respect to an average particle diameter of the metal oxide particles exposed on the surface of the hard coat layer is 60% or less, and wherein the metal oxide particles have an average particle diameter of 800 nm or less.
Arrangement for producing a corrugated cardboard web laminated on one side, comprising a) a corrugating apparatus (24, 26; 87) for generating a corrugated web , which has a corrugation, from a first material web , b) a glue applying apparatus for applying glue to tips of the corrugation of the corrugated web , c) a pressing apparatus for pressing a top web onto the tips provided with glue, of the corrugated web , d) a severing apparatus which is arranged upstream of the corrugating apparatus (24, 26; 87) and which serves for severing the first material web regionally in the transverse direction thereof, and e) an actuatable holding apparatus positioned downstream of the severing apparatus for holding a trailing web section of the first material web produced by the severing apparatus , i) wherein the holding apparatus is displaceable between an inactive position and an active position, characterized in that f) the holding apparatus is capable of immobilizing the first material web with clamping action. a) a corrugating apparatus (24, 26; 87) for generating a corrugated web , which has a corrugation, from a first material web , b) a glue applying apparatus for applying glue to tips of the corrugation of the corrugated web , c) a pressing apparatus for pressing a top web onto the tips provided with glue, of the corrugated web , d) a severing apparatus which is arranged upstream of the corrugating apparatus (24, 26; 87) and which serves for severing the first material web regionally in the transverse direction thereof, and e) an actuatable holding apparatus positioned downstream of the severing apparatus for holding a trailing web section of the first material web produced by the severing apparatus , i) wherein the holding apparatus is displaceable between an inactive position and an active position, characterized in that i) wherein the holding apparatus is displaceable between an inactive position and an active position, f) the holding apparatus is capable of immobilizing the first material web with clamping action.
A sharps bin for medicament delivery devices, which sharps bin comprises: - a first waste compartment , - a second waste compartment , - a receiving compartment for accommodating a medicament delivery device inserted into the sharps bin , - a separation tool for interacting with a medicament delivery device, the separation tool being arranged to separate a first part of the medicament delivery device accommodated in the receiving compartment from a second part of the medicament delivery device, such that the first part is stored in the first compartment and the second part is stored in the second compartment , wherein the receiving compartment and the separation tool are movable in relation to each other such that interaction between the separation tool and the medicament delivery device received in the receiving compartment separates the first part from the second part , characterised in that the separation tool is a cutting tool. - a first waste compartment , - a second waste compartment , - a receiving compartment for accommodating a medicament delivery device inserted into the sharps bin , - a separation tool for interacting with a medicament delivery device, the separation tool being arranged to separate a first part of the medicament delivery device accommodated in the receiving compartment from a second part of the medicament delivery device, such that the first part is stored in the first compartment and the second part is stored in the second compartment , wherein the receiving compartment and the separation tool are movable in relation to each other such that interaction between the separation tool and the medicament delivery device received in the receiving compartment separates the first part from the second part , characterised in that the separation tool is a cutting tool.
An oxidation catalyst for treating an exhaust gas produced by a compression ignition engine comprising: a substrate; a catalytic material disposed on the substrate, wherein the catalytic material comprises platinum (Pt) disposed or supported on a support material; and a region comprising a capture material comprising particles of a Pt-alloying metal, which is palladium, having a dispersion of ≤ 10 % as determined by CO chemisorption disposed or supported on a particulate support material comprising a refractory oxide having a mean specific surface area ≤ 50 m 2 /g determined by nitrogen physisorption at minus 196°C using the volumetric method and using the BET adsorption isotherm equation, wherein the refractory oxide is selected from the group consisting of alumina, silica, titania, zirconia, ceria and a mixed or composite oxide thereof, wherein the mixed or composite oxide is selected from the group consisting of alumina, silica, titania, zirconia, ceria, silica-alumina, titania-alumina, zirconia-alumina, ceria-alumina, titania-silica, zirconia-silica, zirconia-titania, ceria-zirconia and alumina-magnesium oxide, wherein the region is arranged to contact the exhaust gas after the exhaust gas has contacted and/or passed through the catalytic material. a substrate; a catalytic material disposed on the substrate, wherein the catalytic material comprises platinum (Pt) disposed or supported on a support material; and a region comprising a capture material comprising particles of a Pt-alloying metal, which is palladium, having a dispersion of ≤ 10 % as determined by CO chemisorption disposed or supported on a particulate support material comprising a refractory oxide having a mean specific surface area ≤ 50 m 2 /g determined by nitrogen physisorption at minus 196°C using the volumetric method and using the BET adsorption isotherm equation, wherein the refractory oxide is selected from the group consisting of alumina, silica, titania, zirconia, ceria and a mixed or composite oxide thereof, wherein the mixed or composite oxide is selected from the group consisting of alumina, silica, titania, zirconia, ceria, silica-alumina, titania-alumina, zirconia-alumina, ceria-alumina, titania-silica, zirconia-silica, zirconia-titania, ceria-zirconia and alumina-magnesium oxide, wherein the region is arranged to contact the exhaust gas after the exhaust gas has contacted and/or passed through the catalytic material.
A piezoelectric body film comprising: a perovskite-type oxide represented by Formula , wherein a content q of Nb with respect to the number of all atoms in the perovskite-type oxide and a ratio r of a diffraction peak intensity from a plane to a diffraction peak intensity from a plane of the perovskite-type oxide, which is measured using an X-ray diffraction method, satisfy Expression , Formula A 1+δ [(Zr y Ti 1-y ) 1-x Nb x ]O z 0.35 ≤ r / q < 0.58 in this case, in Formula , A represents an A site element containing Pb, x and y each independently represent a numerical value of more than 0 and less than 1, standard values of δ and z each are 0 and 3, but these values may deviate from the standard values as long as the perovskite-type oxide has a perovskite structure, and, in Expression , a unit of q is atm%. a perovskite-type oxide represented by Formula , wherein a content q of Nb with respect to the number of all atoms in the perovskite-type oxide and a ratio r of a diffraction peak intensity from a plane to a diffraction peak intensity from a plane of the perovskite-type oxide, which is measured using an X-ray diffraction method, satisfy Expression , Formula A 1+δ [(Zr y Ti 1-y ) 1-x Nb x ]O z 0.35 ≤ r / q < 0.58
Processing device for severing and/or cutting up a section of a coating material, in particular a surplus strip thereof, comprising: a cutting tool with a moveable blade , a cutting plate with a cutting edge , wherein the cutting edge is configured to interact with the blade of the cutting tool in order to sever and/or cut up a section of a coating material, characterised in that the position and/or orientation of the cutting edge can be changed in at least two directions. a cutting tool with a moveable blade , a cutting plate with a cutting edge , wherein the cutting edge is configured to interact with the blade of the cutting tool in order to sever and/or cut up a section of a coating material, characterised in that the position and/or orientation of the cutting edge can be changed in at least two directions.