mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring a signal by a wireless communication mobile station, the method comprising: measuring a signal for each of beam pairs including a transmission beam and a reception beam for a preset period of time; classifying the beam pairs into two or more beam groups according to a result of the measurement and group setting rule that is a criterion for the group classification; and generating and reporting measurement result information for the beam pairs belonging to the two or more beam groups, respectively, according to a measurement rule corresponding to a corresponding beam group. measuring a signal for each of beam pairs including a transmission beam and a reception beam for a preset period of time; classifying the beam pairs into two or more beam groups according to a result of the measurement and group setting rule that is a criterion for the group classification; and generating and reporting measurement result information for the beam pairs belonging to the two or more beam groups, respectively, according to a measurement rule corresponding to a corresponding beam group.
A protection device comprising a resin base, a first terminal, a second terminal, a PTC component, a bimetal component, an arm, an upper plate and a resin cover, wherein: a portion of the first terminal is configured as a first electrode, and a portion of the second terminal is configured as a second electrode, in a normal state, the first terminal, the arm and the second terminal are electrically connected in series, when the bimetal component is activated, an electrical connection between the first terminal and the arm is broken, characterized in that: the first electrode and the second electrode are exposed on the bottom surface of the resin base, and whilst the bimetal component is activated, the first terminal, the PTC component, the bimetal component, the arm and the second terminal are electrically connected in series in the mentioned order. a portion of the first terminal is configured as a first electrode, and a portion of the second terminal is configured as a second electrode, in a normal state, the first terminal, the arm and the second terminal are electrically connected in series, when the bimetal component is activated, an electrical connection between the first terminal and the arm is broken, characterized in that: the first electrode and the second electrode are exposed on the bottom surface of the resin base, and whilst the bimetal component is activated, the first terminal, the PTC component, the bimetal component, the arm and the second terminal are electrically connected in series in the mentioned order. the first electrode and the second electrode are exposed on the bottom surface of the resin base, and whilst the bimetal component is activated, the first terminal, the PTC component, the bimetal component, the arm and the second terminal are electrically connected in series in the mentioned order.
A semitrailer towing vehicle comprising a fifth wheel assembly comprising bearing blocks (2, 3) and a fifth wheel plate which is mounted on the bearing blocks (2, 3) such that it can pivot about an axis extending transversely to the direction of travel, the bearing blocks (2, 3) being fastened to a corrugated mounting plate, said corrugated mounting plate being attached to a chassis of the semitrailer towing vehicle, said corrugated mounting plate having upper portions and lower portions, the distance between the upper and lower portions (9, 10) defining a height of the corrugated mounting plate, the upper portions being positioned closer to the fifth wheel plate than the lower portions, the bearing blocks (2, 3) being fastened to the corrugated mounting plate by bolts (11, 12) which pass through first holes provided in the bearing blocks (2, 3) and second holes provided in the corrugated mounting plate, characterized in that the bolts (11, 12) have a head height of 0.25 - 0.4 times the shank diameter of the bolts (11, 12), in that the head height of the bolts (11, 12) is smaller than the height of the corrugated mounting plate and in that the heads of the bolts (11, 12) engage a lower surface of an upper portion of the corrugated mounting plate, said lower surface being positioned opposite the fifth wheel plate.
A hydraulic pressure generation apparatus including: a base body; a motor attached to the base body; a reservoir tank which is attached to the base body and stores a brake fluid; a master cylinder which generates a brake hydraulic pressure by a first piston (12a, 12b) which is linked to a brake manipulator; and a slave cylinder which generates a brake hydraulic pressure by a second piston by the motor as a drive source, wherein the base body includes: a first cylinder hole which is a bottomed cylinder hole, and in which the first piston (12a, 12b) is inserted; a second cylinder hole which is a bottomed cylinder hole, and in which the second piston is inserted; and a supply passage which leads from the reservoir tank to a hydraulic chamber of the slave cylinder, wherein the supply passage is provided with a check valve (75, 76) which permits only inflow of brake fluid from the reservoir tank to a side of the slave cylinder, characterized in that the check valve (75, 76) is disposed at a shortest separation distance to a brake fluid discharge port of the second cylinder hole, the shortest separation distance being the shortest distance straightly connecting the check valve (75, 76) and the brake fluid discharge port, wherein the shortest separation distance is shorter than or equal to the outer diameter of the second piston, wherein an axial line of the check valve (75, 76) is parallel with an axial line of the second cylinder hole. a base body; a motor attached to the base body; a reservoir tank which is attached to the base body and stores a brake fluid; a master cylinder which generates a brake hydraulic pressure by a first piston (12a, 12b) which is linked to a brake manipulator; and a slave cylinder which generates a brake hydraulic pressure by a second piston by the motor as a drive source, wherein the base body includes: a first cylinder hole which is a bottomed cylinder hole, and in which the first piston (12a, 12b) is inserted; a second cylinder hole which is a bottomed cylinder hole, and in which the second piston is inserted; and a supply passage which leads from the reservoir tank to a hydraulic chamber of the slave cylinder, a first cylinder hole which is a bottomed cylinder hole, and in which the first piston (12a, 12b) is inserted; a second cylinder hole which is a bottomed cylinder hole, and in which the second piston is inserted; and a supply passage which leads from the reservoir tank to a hydraulic chamber of the slave cylinder, wherein the supply passage is provided with a check valve (75, 76) which permits only inflow of brake fluid from the reservoir tank to a side of the slave cylinder, characterized in that the check valve (75, 76) is disposed at a shortest separation distance to a brake fluid discharge port of the second cylinder hole, the shortest separation distance being the shortest distance straightly connecting the check valve (75, 76) and the brake fluid discharge port, wherein the shortest separation distance is shorter than or equal to the outer diameter of the second piston, wherein an axial line of the check valve (75, 76) is parallel with an axial line of the second cylinder hole.
A pressure sensor (1,2) configured to detect a pressure of a fluid to be measured that embrittles a material, the pressure sensor comprising: a pressure sensor element configured to be displaced in accordance with the pressure of the fluid to be measured; the pressure sensor element includes a cylindrical section and a diaphragm configured to close an opening at a first end of the cylindrical section; a joint (4,7) provided with a hole section through which the fluid to be measured is introduced to the pressure sensor element, the joint (4,7) being configured to be provided to a target member; a second end of the cylindrical section is welded to an end of the joint; and an attachment member (6,9) configured to be fitted onto the joint (4,7) through a connection section (5,8) and connected to the target member, wherein a portion of each of the pressure sensor element and the joint (4,7), which is brought into contact with the fluid to be measured, is formed of a high nickel content material that is not embrittled upon being in contact with the fluid to be measured and more rigid than the attachment member (6,9), the connection section (5,8) is configured to be formed when at least one of the outer circumferential portion of the joint (4,7) and the attachment member (6,9) is locally plastically deformed upon receiving a circumferential force such that a part of an inner circumferential portion (603,903) of the attachment member (6,9) bites into a groove of the outer circumferential portion of the joint (4,7), so that the joint (4,7) and the attachment member (6,9) are firmly axially connected to each other. a pressure sensor element configured to be displaced in accordance with the pressure of the fluid to be measured; the pressure sensor element includes a cylindrical section and a diaphragm configured to close an opening at a first end of the cylindrical section; a joint (4,7) provided with a hole section through which the fluid to be measured is introduced to the pressure sensor element, the joint (4,7) being configured to be provided to a target member; a second end of the cylindrical section is welded to an end of the joint; and an attachment member (6,9) configured to be fitted onto the joint (4,7) through a connection section (5,8) and connected to the target member, wherein a portion of each of the pressure sensor element and the joint (4,7), which is brought into contact with the fluid to be measured, is formed of a high nickel content material that is not embrittled upon being in contact with the fluid to be measured and more rigid than the attachment member (6,9), the connection section (5,8) is configured to be formed when at least one of the outer circumferential portion of the joint (4,7) and the attachment member (6,9) is locally plastically deformed upon receiving a circumferential force such that a part of an inner circumferential portion (603,903) of the attachment member (6,9) bites into a groove of the outer circumferential portion of the joint (4,7), so that the joint (4,7) and the attachment member (6,9) are firmly axially connected to each other.
Method of determining the position of the end of the liquid phase of a cast metal strip in a continuous casting plant, which comprises a support roller stand of roller segments which are successive in casting direction, wherein each roller segment comprises a segment lower frame with a plurality of rollers and a segment upper frame with a plurality of rollers and wherein the rollers of the segment lower frame and the rollers of the segment upper frame are set to a predetermined spacing (a 0) for definition of a lower and an upper pass line (U, O) for the metal strip, characterised in that the method comprises the steps of: a) increasing the spacing (a 0) of the rollers (5, 7) of the segment lower frame and the segment upper frame of a measuring segment for at least one roller to a value (a 1) lying above the intended run-in thickness of the hardened metal strip into the measuring segment; b) monitoring at least one operating parameter (F, M, n) of the at least one roller set to the increased spacing, wherein the operating parameter in the case of absence of contact of the roller with the metal strip corresponds with a target value; and c) reporting the position of the end of the liquid phase as lying in the region of the roller as soon as the value of the monitored operating parameter (F, M, n) of the at least one roller departs from the target value. a) increasing the spacing (a 0) of the rollers (5, 7) of the segment lower frame and the segment upper frame of a measuring segment for at least one roller to a value (a 1) lying above the intended run-in thickness of the hardened metal strip into the measuring segment; b) monitoring at least one operating parameter (F, M, n) of the at least one roller set to the increased spacing, wherein the operating parameter in the case of absence of contact of the roller with the metal strip corresponds with a target value; and c) reporting the position of the end of the liquid phase as lying in the region of the roller as soon as the value of the monitored operating parameter (F, M, n) of the at least one roller departs from the target value.
An apparatus suitable for at least partial implantation into a patient, optionally full implantation into the patient, for inhibiting the neural activity of a vagal nerve of the patient, the apparatus comprising: one or more transducers each configured to apply an electrical signal to the vagal nerve of the patient, wherein the one or more transducers configured to apply the signal is an electrode; and a controller coupled to the one or more transducers, the controller being configured to control the signal applied by each of the one or more transducers, such that the signal inhibits the neural activity of the vagal nerve to reduce parasympathetic tone response in the patient characterised in that the electrical signal or signals comprises one or both of an alternating current waveform having a frequency of 5-25 kHz and a charge-balanced direct current waveform. one or more transducers each configured to apply an electrical signal to the vagal nerve of the patient, wherein the one or more transducers configured to apply the signal is an electrode; and a controller coupled to the one or more transducers, the controller being configured to control the signal applied by each of the one or more transducers, such that the signal inhibits the neural activity of the vagal nerve to reduce parasympathetic tone response in the patient characterised in that the electrical signal or signals comprises one or both of an alternating current waveform having a frequency of 5-25 kHz and a charge-balanced direct current waveform.
Method for connecting plastic profile parts, wherein at least one profile part and one heating surface of a heating element are brought into contact with each other in a joining direction to melt the at least one profile part in its welding area before it is joined with the other profile part, wherein a limiting element is provided by means of which flowing and deformation of the molten material can be controlled, wherein the limiting element has at least one abutment element and one forming part which are movable with respect to each other as well as with respect to the profile part, wherein, as the at least one profile part is being molten, the abutment element including the forming part is moved relative to the at least one profile part and the heating element from a resting position in the direction towards a working position, wherein at least during melting at least the forming part is held in contact with the heating surface of the heating element and the abutment element is held in contact with a profile surface, characterized in that, as the shift from melting to shrinking occurs, the relatively movable abutment element including the forming part is moved in such a manner in the direction towards the working position that the limiting element juts out beyond a free front edge of the at least one profile part, so that a holding plane is formed.
A method for forming and cooling an initially hot and therefore flowable melted cheese, which is applied via a supply nozzle onto a moving metallic cooling belt, wherein individual shaped bodies are formed out of the melted cheese in that a shaping roller, which comprises molding cavities located in the surface, impinges upon the cooling belt, wherein a pressure of the shaping roller against the cooling belt is provided during forming that induces full displacement of the still-hot melted cheese from the region of the separating webs delimiting the individual molding cavities and bearing against the cooling belt, wherein the formed bodies are released from the molding cavities and are cooled by remaining on the moving cooling belt.
Tool system with a mounting shank with a longitudinal axis that can be inserted into a tool holder, a tool-side shank with a longitudinal axis, on which tool-side shank a tool holder with a longitudinal axis is arranged, wherein the longitudinal axis of the tool-side shank and the longitudinal axis of the tool holder coincide or at least run parallel to one another, at least one insert seat formed on one end face of the tool holder for receiving an exchangeable cutting insert, a replaceable cutting insert rotationally fixed to the insert seat, wherein the cutting insert has an upper side formed as a rake face, a lower side formed as a contact surface, a circumferential side surface formed as a clearance surface and a cutting edge formed at a transition from the upper side to the circumferential side surface, and is arranged on the insert seat in such a way that the upper side of the cutting insert, which is designed as a rake face, extends transversely to the longitudinal axis of the tool holder, characterized in that the tool system comprises an electric actuator which is designed to change an orientation of the cutting insert by rotating the tool-side shank about its longitudinal axis and the tool system has a generator module for converting a mechanical drive power into electrical power for supplying the electric actuator. a mounting shank with a longitudinal axis that can be inserted into a tool holder, a tool-side shank with a longitudinal axis, on which tool-side shank a tool holder with a longitudinal axis is arranged, wherein the longitudinal axis of the tool-side shank and the longitudinal axis of the tool holder coincide or at least run parallel to one another, at least one insert seat formed on one end face of the tool holder for receiving an exchangeable cutting insert, a replaceable cutting insert rotationally fixed to the insert seat, wherein the cutting insert has an upper side formed as a rake face, a lower side formed as a contact surface, a circumferential side surface formed as a clearance surface and a cutting edge formed at a transition from the upper side to the circumferential side surface, and is arranged on the insert seat in such a way that the upper side of the cutting insert, which is designed as a rake face, extends transversely to the longitudinal axis of the tool holder, characterized in that the tool system comprises an electric actuator which is designed to change an orientation of the cutting insert by rotating the tool-side shank about its longitudinal axis and the tool system has a generator module for converting a mechanical drive power into electrical power for supplying the electric actuator.
A device configured to transport a frame with plastic labels along a print path from a stack to a printer head, without the use of an adapter plate, the device comprising: • a printer head; • a frame containing plastic labels and hooking pins on the bottom part of the frame; • a rail consisting of two vertical walls on top of which the frame is placed, the walls being configured to house the frame so that the most external hooking pins of the frame touch the external sides of the walls so that the frame is in a forced position and is free to slide longitudinally in the direction of the rail while it is transversely locked; the most external hooking pins being located outside the rail; • two hooking mechanisms positioned outside the rail and hooking two of the most external hooking pins of the frame, one per side, and dragging the frame with the labels along the print path, the mechanisms are moved each one by a corresponding motor in the longitudinal direction of the rail, each of the mechanisms being composed of an actuated lever which is configured to engage and disengage with the respective most external hooking pin; • an actuated lever device which is positioned on only one side of the rail, the lever device being jointed with the movement of one of the two hooking mechanisms and used to push the respective pin of the hooking mechanism of one side of the frame towards the corresponding side of the wall to remove any backlash. • a printer head; • a frame containing plastic labels and hooking pins on the bottom part of the frame; • a rail consisting of two vertical walls on top of which the frame is placed, the walls being configured to house the frame so that the most external hooking pins of the frame touch the external sides of the walls so that the frame is in a forced position and is free to slide longitudinally in the direction of the rail while it is transversely locked; the most external hooking pins being located outside the rail; • two hooking mechanisms positioned outside the rail and hooking two of the most external hooking pins of the frame, one per side, and dragging the frame with the labels along the print path, the mechanisms are moved each one by a corresponding motor in the longitudinal direction of the rail, each of the mechanisms being composed of an actuated lever which is configured to engage and disengage with the respective most external hooking pin; • an actuated lever device which is positioned on only one side of the rail, the lever device being jointed with the movement of one of the two hooking mechanisms and used to push the respective pin of the hooking mechanism of one side of the frame towards the corresponding side of the wall to remove any backlash.
A method for molding a fiber-reinforced plastic using a a housing, a one-sided mold, and deforming mold, wherein a one-sided mold having a molding surface for molding one side surface of a molded product, the housing has a floor surface portion in which the deforming mold is accommodated and placed, an opening disposed to oppose the floor surface portion at a required interval and a side wall portion disposed between the floor surface portion and the opening, the one-sided mold has a tight fitting portion which is tightly fitted into the opening of the housing to slidably move thereon, and a molding surface for molding one side surface of a molded product of the tight fitting portion which opposes the floor surface portion, and the deforming mold has a desired shape that accommodates grains containing a plurality of high-rigidity grains in a flexible bag, and wherein the method includes: interposing a prepreg containing a resin and fiber between the one-sided mold and the deforming mold; pressing the prepreg between the one-sided mold and the deforming mold with a pressing force by applying the pressing force to the one-sided mold; and molding one side surface of the prepreg by using the one-sided mold during the pressing and molding the surface of the prepreg on the opposite side by deforming the deforming mold to follow a shape of the molding surface according to flow of the grains in the deforming mold. interposing a prepreg containing a resin and fiber between the one-sided mold and the deforming mold; pressing the prepreg between the one-sided mold and the deforming mold with a pressing force by applying the pressing force to the one-sided mold; and molding one side surface of the prepreg by using the one-sided mold during the pressing and molding the surface of the prepreg on the opposite side by deforming the deforming mold to follow a shape of the molding surface according to flow of the grains in the deforming mold.