mhurhangee/ep-ind-claims huggingface dataset:
A stretch flange cracking evaluation method for evaluating stretch flange cracking of an evaluation metal sheet formed by a metal sheet with a sheared end face, the stretch flange cracking evaluation method comprising: including reference strain gradient information acquired by performing, under set forming conditions, a forming analysis of a hole expansion test on a second metal sheet being a metal sheet selected regardless of the evaluation metal sheet and having randomly selected sheet conditions and converting a hole expansion ratio to a strain at a hole edge composed of true strain, the reference strain gradient information being represented by a relationship between the strain at the hole edge and a strain gradient along a radial direction from the hole edge, and two or more pieces of the reference strain gradient information being included by changing the forming conditions; performing hole expansion forming on the evaluation metal sheet each under the same forming conditions as respective forming conditions corresponding to at least two pieces of the reference strain gradient information out of the two or more pieces of the reference strain gradient information to obtain at least two limit hole expansion ratios at a hole expansion limit of the evaluation metal sheet; obtaining a formable region of the evaluation metal sheet from the at least two pieces of the reference strain gradient information and the obtained at least two limit hole expansion ratios at the hole expansion limit; and evaluating stretch flange cracking at the sheared end face of the evaluation metal sheet by the obtained formable region. including reference strain gradient information acquired by performing, under set forming conditions, a forming analysis of a hole expansion test on a second metal sheet being a metal sheet selected regardless of the evaluation metal sheet and having randomly selected sheet conditions and converting a hole expansion ratio to a strain at a hole edge composed of true strain, the reference strain gradient information being represented by a relationship between the strain at the hole edge and a strain gradient along a radial direction from the hole edge, and two or more pieces of the reference strain gradient information being included by changing the forming conditions; performing hole expansion forming on the evaluation metal sheet each under the same forming conditions as respective forming conditions corresponding to at least two pieces of the reference strain gradient information out of the two or more pieces of the reference strain gradient information to obtain at least two limit hole expansion ratios at a hole expansion limit of the evaluation metal sheet; obtaining a formable region of the evaluation metal sheet from the at least two pieces of the reference strain gradient information and the obtained at least two limit hole expansion ratios at the hole expansion limit; and evaluating stretch flange cracking at the sheared end face of the evaluation metal sheet by the obtained formable region.
A method of handover from a first radio access technology, RAT, within an access point, the method comprising: receiving a request for a second RAT on a second frequency band, wherein a communication link with an access terminal on the second RAT cannot be maintained concurrently with the first RAT; receiving a dual radio access capability of the access terminal in response to receiving the request; preparing a first measurement request associated with providing the second RAT based on the dual radio access capability of the access terminal; transmitting the first measurement request for the second RAT to the access terminal; receiving a first measurement report for the second RAT from the access terminal, the first measurement report comprising at least one measurement of a frequency provided by the second RAT; selecting a third RAT on a third frequency band, a communication link on which can be maintained concurrently with the second RAT, to replace the first RAT, the selecting utilizing the at least one frequency measurement from the first measurement report and based on the dual radio access capability of the access terminal; preparing a second measurement request associated with providing the third RAT utilizing the at least one measurement from the first measurement report; transmitting the second measurement request for the third RAT to the access terminal; and receiving a second measurement report for the third RAT from the access terminal, wherein the second measurement report comprises at least one measurement; and initiating a handover from the first RAT to the second and third RAT (520, 530) concurrently. receiving a request for a second RAT on a second frequency band, wherein a communication link with an access terminal on the second RAT cannot be maintained concurrently with the first RAT; receiving a dual radio access capability of the access terminal in response to receiving the request; preparing a first measurement request associated with providing the second RAT based on the dual radio access capability of the access terminal; transmitting the first measurement request for the second RAT to the access terminal; receiving a first measurement report for the second RAT from the access terminal, the first measurement report comprising at least one measurement of a frequency provided by the second RAT; selecting a third RAT on a third frequency band, a communication link on which can be maintained concurrently with the second RAT, to replace the first RAT, the selecting utilizing the at least one frequency measurement from the first measurement report and based on the dual radio access capability of the access terminal; preparing a second measurement request associated with providing the third RAT utilizing the at least one measurement from the first measurement report; transmitting the second measurement request for the third RAT to the access terminal; and receiving a second measurement report for the third RAT from the access terminal, wherein the second measurement report comprises at least one measurement; and initiating a handover from the first RAT to the second and third RAT (520, 530) concurrently.
A method that segments or concatenates radio link control, RLC, service data units, SDUs, into RLC protocol data units, PDUs, comprising: receiving a first RLC SDU and a second RLC SDU; partitioning the first RLC SDU into a first RLC PDU and a second RLC PDU, and the second RLC SDU into a third RLC PDU and a fourth RLC PDU, wherein the second RLC PDU and the fourth RLC PDU are limited to a maximum size corresponding to a size of a length indicator, LI, field, the LI field being associated with the second RLC PDU and the fourth RLC PDU; setting the LI field in the second RLC PDU and in the fourth RLC PDU to indicate the size of information contained in the second RLC PDU and the fourth RLC PDU; concatenating the second RLC PDU with the third RLC PDU to form a concatenated RLC PDU; the LI field of the concatenated RLC PDU indicating the boundary between the second RLC PDU and the third RLC PDU; and dispatching the first RLC PDU, the concatenated RLC PDU, and the fourth RLC PDU, wherein the first RLC PDU and the third RLC PDU are not constrained by the maximum size. receiving a first RLC SDU and a second RLC SDU; partitioning the first RLC SDU into a first RLC PDU and a second RLC PDU, and the second RLC SDU into a third RLC PDU and a fourth RLC PDU, wherein the second RLC PDU and the fourth RLC PDU are limited to a maximum size corresponding to a size of a length indicator, LI, field, the LI field being associated with the second RLC PDU and the fourth RLC PDU; setting the LI field in the second RLC PDU and in the fourth RLC PDU to indicate the size of information contained in the second RLC PDU and the fourth RLC PDU; concatenating the second RLC PDU with the third RLC PDU to form a concatenated RLC PDU; the LI field of the concatenated RLC PDU indicating the boundary between the second RLC PDU and the third RLC PDU; and dispatching the first RLC PDU, the concatenated RLC PDU, and the fourth RLC PDU, wherein the first RLC PDU and the third RLC PDU are not constrained by the maximum size.
Device for inspection of a solar panel arrangement, comprising an optical detection device, means for moving the optical detection device with respect to a surface of the solar panel arrangement, and an evaluation unit for analysis of image data of the solar panel arrangement surface grabbed by the optical detection device, wherein the optical detection device is configured to detect alterations including environmental pollutions and defects located within the surface of the solar panel arrangement, wherein the optical detection device comprises a contact image scanner device, characterized in that the distance between the contact image scanner device and the examined surface of the solar panel arrangement ranges between 1.5 cm and 4 cm, and that a scanner enhancement arrangement configured as optical lens is provided in front of said contact image scanner device. an optical detection device, means for moving the optical detection device with respect to a surface of the solar panel arrangement, and an evaluation unit for analysis of image data of the solar panel arrangement surface grabbed by the optical detection device,
An inflatable cushion (10, 10A, 10B) extending from a seat of a vehicle comprises: a front first side panel; a rear second side panel; a top panel spaced between an upper edge of the front and rear side panels (22, 24); a bottom panel spaced between a lower edge of the front and rear side panels (22, 24); and wherein the top and bottom panels (26, 28) are configured to create a contoured shaped fully inflated side airbag cushion, wherein said contoured shaped fully inflated airbag cushion has a larger sized forward end volume and a smaller sized end volume at a mid-location region extending vertically from the bottom panel to the top panel, wherein in a vehicle said fully inflated side airbag cushion extends from the seat along a door adjacent to a door trim with said larger sized forward end volume forward and with a smaller sized end volume at a mid-location region and wherein the inflated airbag cushion fills a gap between a door trim and a vehicle seat. a front first side panel; a rear second side panel; a top panel spaced between an upper edge of the front and rear side panels (22, 24); a bottom panel spaced between a lower edge of the front and rear side panels (22, 24); and wherein the top and bottom panels (26, 28) are configured to create a contoured shaped fully inflated side airbag cushion, wherein said contoured shaped fully inflated airbag cushion has a larger sized forward end volume and a smaller sized end volume at a mid-location region extending vertically from the bottom panel to the top panel, wherein in a vehicle said fully inflated side airbag cushion extends from the seat along a door adjacent to a door trim with said larger sized forward end volume forward and with a smaller sized end volume at a mid-location region and wherein the inflated airbag cushion fills a gap between a door trim and a vehicle seat.
A vehicle door handle device comprising: a handle base that is fixed to a door panel back surface of a vehicle; an operating handle that is linked to the handle base from a door front surface side to be rotatable around a rotation center; a stopper protrusion that is provided in any one of the operating handle and the handle base; and an engaged portion that is provided in the other one of the operating handle and the handle base, wherein along with sliding of the operating handle to a rotation center side, the stopper protrusion and the engaged portion are elastically engaged with each other so that movement of the operating handle to a rotation distal end side is restricted, wherein a hinge protrusion protrudes from an end portion of the operating handle on the rotation center side, wherein the handle base includes a hinge restriction portion, wherein the hinge restriction portion includes a top wall restricting movement of the hinge protrusion in a door panel direction and an abutting wall of the hinge protrusion, wherein the hinge protrusion abuts into the hinge restriction portion in an internally contact manner, and wherein in a state that the hinge protrusion abuts against the hinge restriction portion, an inner center of the hinge restriction portion fits to the rotation center of the operating handle, characterized in that a gap that keeps a non-contact state of the stopper protrusion and the engaged portion during a translational movement of the operating handle to outside of a door is provided between the stopper protrusion and the engaged portion. a handle base that is fixed to a door panel back surface of a vehicle; an operating handle that is linked to the handle base from a door front surface side to be rotatable around a rotation center; a stopper protrusion that is provided in any one of the operating handle and the handle base; and an engaged portion that is provided in the other one of the operating handle and the handle base, wherein along with sliding of the operating handle to a rotation center side, the stopper protrusion and the engaged portion are elastically engaged with each other so that movement of the operating handle to a rotation distal end side is restricted, wherein a hinge protrusion protrudes from an end portion of the operating handle on the rotation center side, wherein the handle base includes a hinge restriction portion, wherein the hinge restriction portion includes a top wall restricting movement of the hinge protrusion in a door panel direction and an abutting wall of the hinge protrusion, wherein the hinge protrusion abuts into the hinge restriction portion in an internally contact manner, and wherein in a state that the hinge protrusion abuts against the hinge restriction portion, an inner center of the hinge restriction portion fits to the rotation center of the operating handle, characterized in that a gap that keeps a non-contact state of the stopper protrusion and the engaged portion during a translational movement of the operating handle to outside of a door is provided between the stopper protrusion and the engaged portion.
Base unit for a structural holder which is mounted flush with a ceiling or wall and serves for the temporary or permanent fastening of light fittings, characterized in that the base unit is a base unit formed from a base, an arm and a fastening shield, wherein the base unit is configured for connecting to an illuminant holder by plugging same onto the base unit, and wherein the base unit is configured in such a manner that at least two connection wires present on site after by the illuminant holder being plugged onto the base unit, after said connection wires are attached to the at least two supply lines (Z4, Z5) via the individual cable clamps (14, 15), can be looped tightly around the base unit, preferably around a part of the base unit that is tapered in relation to the external dimensions. the base unit is a base unit formed from a base, an arm and a fastening shield, wherein the base unit is configured for connecting to an illuminant holder by plugging same onto the base unit, and wherein the base unit is configured in such a manner that at least two connection wires present on site after by the illuminant holder being plugged onto the base unit, after said connection wires are attached to the at least two supply lines (Z4, Z5) via the individual cable clamps (14, 15), can be looped tightly around the base unit, preferably around a part of the base unit that is tapered in relation to the external dimensions.
An aluminum alloy material having an alloy composition comprising 0.2 mass% to 1.8 mass% of Mg, 0.2 mass% to 2.0 mass% of Si, and 0.01 mass% to 1.50 mass% of Fe, and optionally a total of 2.00 mass% or less of one or more selected from the group consisting of Cu, Ag, Zn, Ni, Co, Au, Mn, Cr, V, Zr, Sn, Ti, and B, with the balance being Al and inevitable impurities, wherein the aluminum alloy material has a fibrous metal structure in which crystal grains extend in one direction, in a cross section parallel to the one direction, an average value of dimensions of the crystal grains in a direction perpendicular to a longitudinal direction of the crystal grains is 400 nm or less, and a primary surface of the aluminum alloy material has a crystal orientation distribution in which when K100 is a sum of diffraction intensities resulting from crystals in which <100> is oriented in the longitudinal direction, K111 is a sum of diffraction intensities resulting from crystals in which <111> is oriented in the longitudinal direction, and H is a ratio (K100/K111) of K100 to K111, the ratio is 0.17 or more as determined by an X-ray pole figure method as defined in the description, and wherein the primary surface is a surface of the aluminum alloy material that is parallel to a working direction, and indicates a surface that is directly in contact with a tool and is subjected to swaging. wherein the aluminum alloy material has a fibrous metal structure in which crystal grains extend in one direction, in a cross section parallel to the one direction, an average value of dimensions of the crystal grains in a direction perpendicular to a longitudinal direction of the crystal grains is 400 nm or less, and a primary surface of the aluminum alloy material has a crystal orientation distribution in which when K100 is a sum of diffraction intensities resulting from crystals in which <100> is oriented in the longitudinal direction, K111 is a sum of diffraction intensities resulting from crystals in which <111> is oriented in the longitudinal direction, and H is a ratio (K100/K111) of K100 to K111, the ratio is 0.17 or more as determined by an X-ray pole figure method as defined in the description, and wherein the primary surface is a surface of the aluminum alloy material that is parallel to a working direction, and indicates a surface that is directly in contact with a tool and is subjected to swaging.
A wound dressing system, characterized by, a cover layer configured for positioning across a wound; a plurality of beads positionable in the wound and to be retained within the wound by the cover layer, the plurality of beads connected to each other and forming an elongate member; an electrode embedded within and extending through each of the plurality of beads that form the elongate member; and an external energy source configured to provide a current that electrically flows through the electrode.
A weeding device comprising: a frame comprising at least a pair of wheel members for contacting a layer of vegetation or earth, in which the pair of wheel members are rotatable to move the frame in at least a forward direction, in which the frame supports: a platform comprising a front end and an opposed rear end, in which at least one hoe blade is provided at the front end thereof and arranged in use to engage with, and displace, a layer of vegetation and/or earth onto the platform; an axle supported by the frame above the platform, in which the axle defines a longitudinal axis extending at an angle to the forward direction of the frame, and in which the axle is rotatable about the longitudinal axis thereof relative to the frame, in which a first axle comprises a plurality of paddles extending radially outwardly therefrom, the distal end of each paddle is arranged such that upon rotation of the first axle the distal end of each paddle is configured to sequentially engage with, scoop and lift the displaced vegetation and/or earth received on the platform; and a drive mechanism (71, 75) is configured in use to rotate the first axle relative to the frame, wherein a spacing separating the first axle and the platform is adjustable; characterized in that: the frame comprises: a housing having opposed side portions extending between a front end and an opposed rear end of the device or platform, and in which the side portions provide a pair of aligned slots, each slot being configured to receive opposed ends of the axle and extending in a direction extending substantially perpendicular to the layer of vegetation/earth and/or to the plane defined by the platform, and in which the housing further comprises an adjustment mechanism in communication with one or each slot configured to enable the location of the axle to be adjusted within the corresponding slots in order to enable the location of the paddles to be adjusted to correspond to the conditions of the vegetation/earth.
A liquefier with a transporting tube, which comprises an inlet and an outlet and in which a thick matter conveyor is arranged, characterised in that a rotary pump is arranged at the outlet of the transporting tube.
A secure distributed control system used for controlling industrial processes, the system comprising: - a plurality of field devices, each of the field device is used for operations including starting and stopping an industrial process, collecting data from a sensor, monitoring an industrial process parameter for an alarm condition; - a controller module to control a plurality of industrial processes and take necessary action on the alarm condition according to preset control logics; based on the data received from the plurality of field devices, the controller module comprising: - a Field Programmable Gate Array (FPGA) module including control logic for at least one critical industrial process from the plurality of industrial processes; and - a master processor operating in parallel with the FPGA, the master processor including control logic of all other industrial processes from the plurality of industrial processes except the at least one critical process; and - an Input Output module for exchanging signals between the plurality of field devices and the controller module. - a plurality of field devices, each of the field device is used for operations including starting and stopping an industrial process, collecting data from a sensor, monitoring an industrial process parameter for an alarm condition; - a controller module to control a plurality of industrial processes and take necessary action on the alarm condition according to preset control logics; based on the data received from the plurality of field devices, the controller module comprising: - a Field Programmable Gate Array (FPGA) module including control logic for at least one critical industrial process from the plurality of industrial processes; and - a master processor operating in parallel with the FPGA, the master processor including control logic of all other industrial processes from the plurality of industrial processes except the at least one critical process; and - a Field Programmable Gate Array (FPGA) module including control logic for at least one critical industrial process from the plurality of industrial processes; and - a master processor operating in parallel with the FPGA, the master processor including control logic of all other industrial processes from the plurality of industrial processes except the at least one critical process; and - an Input Output module for exchanging signals between the plurality of field devices and the controller module.