mhurhangee/ep-ind-claims huggingface dataset:
Method for contactless determination of forces and/or moments acting on a hollow cylindrical body, in which - by means of a light source (20; 38; 40), light radiation is produced inside of the hollow cylindrical body; - measurement signals are recorded by means of an optoelectronic sensor (22; 34); - the measurement signals recorded by the optoelectronic sensor (22; 34) are supplied to a signal processing unit; - the signal processing unit detects and outputs changes of the measurement signals relative to an initial state determined beforehand by calibration, corresponding to the initial undeformed state of the hollow cylindrical body; - when a mechanical deformation of the hollow cylindrical body is present, the signal processing unit outputs an output signal according to a calibration function or a calculation rule, which describes the forces and/or moments that are causing the mechanical deformation of the hollow cylindrical body, wherein determination of the forces and/or moments is carried out on a rotating hollow cylindrical body and by using a photodetector and a laser module which are each located on a cover that closes the hollow cylindrical body. - by means of a light source (20; 38; 40), light radiation is produced inside of the hollow cylindrical body; - measurement signals are recorded by means of an optoelectronic sensor (22; 34); - the measurement signals recorded by the optoelectronic sensor (22; 34) are supplied to a signal processing unit; - the signal processing unit detects and outputs changes of the measurement signals relative to an initial state determined beforehand by calibration, corresponding to the initial undeformed state of the hollow cylindrical body; - when a mechanical deformation of the hollow cylindrical body is present, the signal processing unit outputs an output signal according to a calibration function or a calculation rule, which describes the forces and/or moments that are causing the mechanical deformation of the hollow cylindrical body, wherein determination of the forces and/or moments is carried out on a rotating hollow cylindrical body and by using a photodetector and a laser module which are each located on a cover that closes the hollow cylindrical body.
A hot rolled and bent steel plate for automobile chassis parts superior in fatigue characteristics characterized by the steel plate containing, in mass%, C: 0.05 to 0.23%, Si: 0.05 to 1.0%, Mn: 0.3 to 2.0%, P: 0.03% or less, S: 0.01% or less, Nb: 0.01 to 0.1%, Mo: 0.1 to 0.5%, Sol. Al: 0.01 to 0.05%, N: 0.006% or less, and further optionally containing at least one of Ti: 0.005 to 0.03%, V: 0.005 to 0.1%, Cr: 0.1 to 0.5%, Cu: 0.001 to 0.5%, Ni: 0.001 to 0.5%, B: 0.0001 to 0.003%, Ca: 0.0001 to 0.003%, and Mg: 0.0001 to 0.004%, and the balance of Fe and having a difference of 50 to 150 points between a Vicker's hardness of the center of plate thickness and a maximum value of Vicker's hardness within 0.5 mm from the surface of the plate measured after bending by a bending radius R of the plate outer surface of 2 to 5 times the plate thickness, the hardnesses measured by a load 100 gf micro Vicker's system.
An ultrasonic surgical device (10, 110) comprising: an elongate waveguide (12, 112) having a longitudinal axis (L, L8, L9) and a distal end; the ultrasonic surgical device further comprising: a blade (24, 124, 224, 324, 424, 524, 624, 824) extending away from the distal end of the waveguide (12, 112), said blade (24, 124, 224, 324, 424, 524, 624, 824) having a length, a distal end, and a curved portion that includes at least five faces extending lengthwise along at least a portion of the length of the blade (24, 124, 224, 324, 424, 524, 624, 824), each of said faces having a width that extends perpendicular to the longitudinal axis (L, L8, L9) of the waveguide (12, 112) and a length that extends orthogonal to said width, wherein each of the faces is flat across its width and is either flat along its entire length or includes one or more curved segments (28A, 28C, 34A, 34C) along its length, with each of the curved segments (28A, 28C, 34A, 34C) of an individual face being curved in the same direction such that the axes of curvature of each of the curved segments (28A, 28C, 34A, 34C) of an individual face are parallel to one another, and the axis of curvature of each of the curved segments (28A, 28C, 34A, 34C) of the faces of the blade (24, 124, 224, 324, 424, 524, 624, 824) is perpendicular to a plane which includes the longitudinal axis (L, L8, L9) of the waveguide (12, 112); and further wherein at least one of the faces of the blade (24, 124, 224, 324, 424, 524, 624, 824) includes one of said curved segments (28A, 28C, 34A, 34C).
A fastening device for mounting an accessory structure on a cladding of a building and wherein the cladding comprises metallic elements and standing seams between the adjacent elements; and wherein the fastening device comprises: a bracket for providing support for the accessory structure; a support element for mounting the bracket to the standing seam; at least one force element actuation of which is configured to generate fastening force; the bracket is configured to be moved in transverse direction towards the standing seam in response to the actuation of the force element; and the support element comprises a first branch and a second branch, and the bracket and the standing seam are mountable between the branches (7a, 7b); characterized in that the bracket is provided with at least one protrusion facing transversally towards a lateral side of the standing seam and is configured the generate a local deformation to the standing seam when the protrusion is forced against the standing seam under influence of the fastening force; and wherein the support element is a longitudinal bar-like piece cross section of which resembles an inverted letter U wherein the parallel first branch and second branch are connected by means of a transverse connecting part. a bracket for providing support for the accessory structure; a support element for mounting the bracket to the standing seam; at least one force element actuation of which is configured to generate fastening force; the bracket is configured to be moved in transverse direction towards the standing seam in response to the actuation of the force element; and the support element comprises a first branch and a second branch, and the bracket and the standing seam are mountable between the branches (7a, 7b); characterized in that the bracket is provided with at least one protrusion facing transversally towards a lateral side of the standing seam and is configured the generate a local deformation to the standing seam when the protrusion is forced against the standing seam under influence of the fastening force; and wherein the support element is a longitudinal bar-like piece cross section of which resembles an inverted letter U wherein the parallel first branch and second branch are connected by means of a transverse connecting part.
A surgical forceps, comprising: a housing; a shaft extending distally from the housing; an end effector assembly disposed at a distal end of the shaft and including first and second jaw members (110, 120) configured for grasping tissue therebetween; a knife assembly disposed within the shaft and including a knife bar having a knife disposed at a distal end thereof, the knife bar longitudinally translatable through the shaft and relative to the end effector assembly to translate the knife between a retracted position, wherein the knife is disposed proximally of the end effector assembly, a first extended position, wherein the knife extends between the first and second jaw members, and a second extended position, wherein the knife extends distally from the first and second jaw members; a trigger assembly associated with the housing and including a trigger operably coupled with the knife bar such that movement of the trigger between an un-actuated position, a first actuated position, and a second actuated position moves the knife between the retracted position, the first extended position, and the second extended position, respectively; and a knife lock assembly associated with the housing, the knife lock assembly including an actuator movable between a locked position and an unlocked position and configured to selectively permit movement of the knife between the retracted position or first extended position and the second extended position. a housing; a shaft extending distally from the housing; an end effector assembly disposed at a distal end of the shaft and including first and second jaw members (110, 120) configured for grasping tissue therebetween; a knife assembly disposed within the shaft and including a knife bar having a knife disposed at a distal end thereof, the knife bar longitudinally translatable through the shaft and relative to the end effector assembly to translate the knife between a retracted position, wherein the knife is disposed proximally of the end effector assembly, a first extended position, wherein the knife extends between the first and second jaw members, and a second extended position, wherein the knife extends distally from the first and second jaw members; a trigger assembly associated with the housing and including a trigger operably coupled with the knife bar such that movement of the trigger between an un-actuated position, a first actuated position, and a second actuated position moves the knife between the retracted position, the first extended position, and the second extended position, respectively; and a knife lock assembly associated with the housing, the knife lock assembly including an actuator movable between a locked position and an unlocked position and configured to selectively permit movement of the knife between the retracted position or first extended position and the second extended position.
A method of operating a wireless communication network to serve User Equipment, UE, over co-located Access Gateway User Planes, AGW-Us, and External GW User Planes, EGW-Us,, the method comprising: a Gateway Control Plane, GW-C, receiving a session request for the UE from an Access Point, AP, that is wirelessly serving the UE and responsively transferring an AGW-U request indicating a Fifth Generation New Radio, 5GNR, service and that has network data and an AP Identifier, ID, for the serving AP; a Domain Name System, DNS, receiving the AGW-U request, translating the AP ID and the network data into an AGW-U ID for one of the AGW-Us responsive to the one of the AGW-Us being capable of supporting the 5GNR service, and transferring an AGW-U response that has the AGW-U ID; the GW-C receiving the AGW-U response and transferring an EGW-U request that has the network data and the AGW-U ID; the DNS receiving the EGW-U request, translating the AGW-U ID and the network data into an EGW-U ID for one of the EGW-Us that is co-located with the one of the AGW-Us based on a location ID and in response to the one of the EGW-Us being capable of supporting the 5GNR service, and transferring an EGW-U response that has an EGW-U ID for the co-located one of the EGW-Us; the GW-C receiving the EGW-U response and responsively transferring AGW-U control signals using the AGW-U ID and transferring EGW-U control signals using the EGW-U ID; and the one of the AGW-Us serving the UE and supporting the 5GNR service for the UE responsive to the AGW-U control signals and the co-located one of the EGW-Us serving the UE and supporting the 5GNR service for the UE responsive to the EGW-U control signals. a Gateway Control Plane, GW-C, receiving a session request for the UE from an Access Point, AP, that is wirelessly serving the UE and responsively transferring an AGW-U request indicating a Fifth Generation New Radio, 5GNR, service and that has network data and an AP Identifier, ID, for the serving AP; a Domain Name System, DNS, receiving the AGW-U request, translating the AP ID and the network data into an AGW-U ID for one of the AGW-Us responsive to the one of the AGW-Us being capable of supporting the 5GNR service, and transferring an AGW-U response that has the AGW-U ID; the GW-C receiving the AGW-U response and transferring an EGW-U request that has the network data and the AGW-U ID; the DNS receiving the EGW-U request, translating the AGW-U ID and the network data into an EGW-U ID for one of the EGW-Us that is co-located with the one of the AGW-Us based on a location ID and in response to the one of the EGW-Us being capable of supporting the 5GNR service, and transferring an EGW-U response that has an EGW-U ID for the co-located one of the EGW-Us; the GW-C receiving the EGW-U response and responsively transferring AGW-U control signals using the AGW-U ID and transferring EGW-U control signals using the EGW-U ID; and the one of the AGW-Us serving the UE and supporting the 5GNR service for the UE responsive to the AGW-U control signals and the co-located one of the EGW-Us serving the UE and supporting the 5GNR service for the UE responsive to the EGW-U control signals.
An aqueous conditioner formulation for thermally styled hair, comprising: a cosmetically acceptable aqueous carrier; and a modified carbohydrate polymer, comprising a cellulose ether base material functionalized with (i) trialkyl ammonium moieties of formula wherein each R 1 is independently selected from the group consisting of a C 1-7 alkyl group and wherein the modified carbohydrate polymer has a Kjeldahl nitrogen content, TKN, corrected for ash and volatiles, of 0.75 to 2.5 wt%; and (ii) hydrophobic substituents each having 16 carbon atoms; wherein the modified carbohydrate polymer comprises 0.005 to 1.5 wt%, based on weight of the cellulose ether base material, of the hydrophobic substituents; wherein the hydrophobic substituents are randomly distributed across the backbone of the cellulose ether base material; wherein the cellulose ether base material has a weight average molecular weight, Mw, of > 1,000,000 Daltons; and wherein the modified carbohydrate polymer comprises < 0.001 wt%, based on weight of modified carbohydrate polymer, of crosslinking units. a cosmetically acceptable aqueous carrier; and a modified carbohydrate polymer, comprising a cellulose ether base material functionalized with (i) trialkyl ammonium moieties of formula
A touch window, comprising: a transparent window comprising a view area (V/A), a wiring area (D/A) and a function area (F/A); a printed layer formed on one surface of the transparent window, and comprising, in the function area (F/A), openings in the form of icons, each icon symbolizing an associated function and transmitting light; and metal pattern parts which are touch sensing units for the functions associated to the icons and disposed to correspond to the openings in the function area (F/A); a sensing unit comprising sensing electrode patterns formed in the view area (V/A); wiring patterns formed in the wiring area (D/A) and electrically connected to the sensing electrode patterns, wherein the sensing unit is adapted to sense a contact through the sensing electrode patterns; wherein the metal pattern parts are connected with ends of the wiring patterns, wherein the sensing electrode patterns, the wiring patterns and the metal pattern parts are made of the same material, and are formed on a same transparent substrate. a transparent window comprising a view area (V/A), a wiring area (D/A) and a function area (F/A); a printed layer formed on one surface of the transparent window, and comprising, in the function area (F/A), openings in the form of icons, each icon symbolizing an associated function and transmitting light; and metal pattern parts which are touch sensing units for the functions associated to the icons and disposed to correspond to the openings in the function area (F/A); a sensing unit comprising sensing electrode patterns formed in the view area (V/A); wiring patterns formed in the wiring area (D/A) and electrically connected to the sensing electrode patterns, wherein the sensing unit is adapted to sense a contact through the sensing electrode patterns; wherein the metal pattern parts are connected with ends of the wiring patterns, wherein the sensing electrode patterns, the wiring patterns and the metal pattern parts are made of the same material, and are formed on a same transparent substrate.
An agricultural and horticultural film having an infrared absorbing layer containing infrared absorbing material ultrafine particles, wherein the infrared absorbing material ultrafine particles are composite tungsten oxide ultrafine particles, characterised in that the composite tungsten oxide ultrafine particles have a X-ray diffraction peak top intensity ratio value of 0.13 or more based on a X-ray diffraction peak intensity ratio value of 1 on a lattice plane of a National Institute of Standards and Technology (NIST) 640c silicon powder standard sample. wherein the infrared absorbing material ultrafine particles are composite tungsten oxide ultrafine particles, characterised in that the composite tungsten oxide ultrafine particles have a X-ray diffraction peak top intensity ratio value of 0.13 or more based on a X-ray diffraction peak intensity ratio value of 1 on a lattice plane of a National Institute of Standards and Technology (NIST) 640c silicon powder standard sample.
A catalytic treatment process for exhaust gases from a turbocharged internal combustion engine, ICE, comprising the steps of: providing a catalytic treatment device, AT, connected to an exhaust conduit carrying exhaust gases from the ICE; providing a secondary air pump, SAP, comprising a single-stage centrifugal compressor, CC, comprising a compressor wheel affixed to a shaft rotatable about an axis, a compressor housing enclosing the compressor wheel and defining an air inlet, IN, that leads air into the compressor wheel, the compressor housing defining a volute that receives pressurized air from the compressor wheel, and a recirculation passage, RP, connected between the volute and the air inlet for causing a first portion of the pressurized air produced by the compressor wheel to recirculate back to the air inlet; providing an air injection line connected between the SAP and the exhaust conduit at a point upstream of the catalytic treatment device for injecting a second portion of the pressurized air into the exhaust gases proceeding toward the catalytic treatment device; operating the SAP to supply pressurized air into the volute such that the first portion of the pressurized air continuously recirculates so as to heat up the pressurized air in the volute, thereby heating the second portion of the pressurized air that is injected into the exhaust gases proceeding toward the catalytic treatment device. providing a catalytic treatment device, AT, connected to an exhaust conduit carrying exhaust gases from the ICE; providing a secondary air pump, SAP, comprising a single-stage centrifugal compressor, CC, comprising a compressor wheel affixed to a shaft rotatable about an axis, a compressor housing enclosing the compressor wheel and defining an air inlet, IN, that leads air into the compressor wheel, the compressor housing defining a volute that receives pressurized air from the compressor wheel, and a recirculation passage, RP, connected between the volute and the air inlet for causing a first portion of the pressurized air produced by the compressor wheel to recirculate back to the air inlet; providing an air injection line connected between the SAP and the exhaust conduit at a point upstream of the catalytic treatment device for injecting a second portion of the pressurized air into the exhaust gases proceeding toward the catalytic treatment device; operating the SAP to supply pressurized air into the volute such that the first portion of the pressurized air continuously recirculates so as to heat up the pressurized air in the volute, thereby heating the second portion of the pressurized air that is injected into the exhaust gases proceeding toward the catalytic treatment device.
A method of wireless communication, comprising: receiving, by a wireless communication device (115, 300) from a first link in a first time interval, first control information (610, 710, 712) associated with a second link and the first time interval; obtaining, by the wireless communication device, a report configuration including a delayed power headroom, PHR, report configuration; transmitting, by the wireless communication device via the second link in the first time interval, a control report (612, 714) associated with the second link based on the report configuration that is independent from the first control information, the report configuration associated with a waveform type, wherein the control report indicates a transmit PHR of the wireless communication device; receiving, by the wireless communication device from the first link in a second time interval following the first time interval, second control information (610, 710, 712) that is dependent on the control report; receiving, by the wireless communication device in a third time interval prior to the first time interval, third control information indicating at least one of a number of resource blocks, RBs, a modulation coding scheme, MCS, or the waveform type for a transmission in the third time interval; and determining, by the wireless communication device, the transmit PHR based on the at least one of a number of RBs, a MCS, or the waveform type for the transmission in the third time interval and the delayed PHR report configuration. receiving, by a wireless communication device (115, 300) from a first link in a first time interval, first control information (610, 710, 712) associated with a second link and the first time interval; obtaining, by the wireless communication device, a report configuration including a delayed power headroom, PHR, report configuration; transmitting, by the wireless communication device via the second link in the first time interval, a control report (612, 714) associated with the second link based on the report configuration that is independent from the first control information, the report configuration associated with a waveform type, wherein the control report indicates a transmit PHR of the wireless communication device; receiving, by the wireless communication device from the first link in a second time interval following the first time interval, second control information (610, 710, 712) that is dependent on the control report; receiving, by the wireless communication device in a third time interval prior to the first time interval, third control information indicating at least one of a number of resource blocks, RBs, a modulation coding scheme, MCS, or the waveform type for a transmission in the third time interval; and determining, by the wireless communication device, the transmit PHR based on the at least one of a number of RBs, a MCS, or the waveform type for the transmission in the third time interval and the delayed PHR report configuration.