mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a multi-component composite structural part (100; 100'), with at least two plastics elements (10, 20; 10', 20') materially connected to one another and each consisting of different thermoplastics TK1, TK2, of which one forms a hard component of the composite structural part and the other a soft component of the composite structural part, wherein - a first plastics element (10; 10') is produced, which consists of a first thermoplastic TK1, and a second plastics element (20; 20'), which consists of a second thermoplastic TK2, different from the first plastic, and which is materially connected to the first plastics element (10; 10'), - between the plastics elements (10, 10'; 20, 20') a thermoplastic adhesion interlayer (30; 30') is inserted, via which the first and second plastics elements (10, 20; 10', 20') are materially connected to one another, and - the adhesion interlayer (30; 30') is formed of a third thermoplastic TK3, which is softenable or meltable at a temperature at which neither of the plastics elements (10, 20; 10', 20') have reached the respective softening temperature or melting temperature, characterized - in that the first thermoplastic TK1 for the hard component is polypropylene or a polycarbonate/acrylonitrile-butadiene-styrene blend (PC/ABS), - in that the second thermoplastic TK2 for a soft component is a thermoplastic elastomer, and - in that the third thermoplastic TK3 is a maleic anhydride-grafted polyethylene-n-butyl acrylate. - a first plastics element (10; 10') is produced, which consists of a first thermoplastic TK1, and a second plastics element (20; 20'), which consists of a second thermoplastic TK2, different from the first plastic, and which is materially connected to the first plastics element (10; 10'), - between the plastics elements (10, 10'; 20, 20') a thermoplastic adhesion interlayer (30; 30') is inserted, via which the first and second plastics elements (10, 20; 10', 20') are materially connected to one another, and - the adhesion interlayer (30; 30') is formed of a third thermoplastic TK3, which is softenable or meltable at a temperature at which neither of the plastics elements (10, 20; 10', 20') have reached the respective softening temperature or melting temperature, characterized - in that the first thermoplastic TK1 for the hard component is polypropylene or a polycarbonate/acrylonitrile-butadiene-styrene blend (PC/ABS), - in that the second thermoplastic TK2 for a soft component is a thermoplastic elastomer, and - in that the third thermoplastic TK3 is a maleic anhydride-grafted polyethylene-n-butyl acrylate.
An engine comprising: a cylinder body having a cylinder bore wall, whose inner peripheral surface is in a circular shape, for accommodating a piston to be slidable, a cylinder body outer wall disposed so as to surround the whole circumference of the cylinder bore wall and formed with a bolt through-hole along an axial direction, and a coolant storing groove between the cylinder bore wall and the cylinder body outer wall; a cylinder head mounted on one end of the cylinder body in the axial direction, and formed with a bolt hole coaxially connected with the bolt through-hole of the cylinder body side; a bolt inserted in the bolt hole and the bolt through-hole for securing and tightening the cylinder body and the cylinder head; a projection (32A-32D) formed such that a part of a wall around the bolt through-hole in the cylinder body outer wall projects to the coolant storing groove along the axial direction; and a thin wall portion (33A-33D) disposed in a portion of the cylinder bore wall that faces the projection (32A-32D) in a radial direction and formed to be thinner than a portion of the cylinder bore wall that does not face the projection (32A-32D), wherein the engine further comprises a crankcase; characterized in that the crankcase has a screw hole; and the through bolt, both ends of which are formed with screw parts, is inserted in the bolt hole, the bolt through-hole and the screw hole, all of which coaxially fit together, and one screw part is screwed in the screw hole while the other screw part projects from an exterior surface of the cylinder head and is tightened by a nut, thereby tightening and securing the cylinder head and the cylinder body to the crankcase. a cylinder body having a cylinder bore wall, whose inner peripheral surface is in a circular shape, for accommodating a piston to be slidable, a cylinder body outer wall disposed so as to surround the whole circumference of the cylinder bore wall and formed with a bolt through-hole along an axial direction, and a coolant storing groove between the cylinder bore wall and the cylinder body outer wall; a cylinder head mounted on one end of the cylinder body in the axial direction, and formed with a bolt hole coaxially connected with the bolt through-hole of the cylinder body side; a bolt inserted in the bolt hole and the bolt through-hole for securing and tightening the cylinder body and the cylinder head; a projection (32A-32D) formed such that a part of a wall around the bolt through-hole in the cylinder body outer wall projects to the coolant storing groove along the axial direction; and a thin wall portion (33A-33D) disposed in a portion of the cylinder bore wall that faces the projection (32A-32D) in a radial direction and formed to be thinner than a portion of the cylinder bore wall that does not face the projection (32A-32D),
A method in a distributed computing environment utilizing a processor and memory for performing sequence numbering in a distributed clock system of the distributed computing environment, the method comprising: receiving, at a first node within the distributed computing environment, a first sequence number from a second node, wherein a sequence number of a node represents a system state under which the node is operating and is incremented whenever a modification of the data or state of the node occurs; receiving, from a primary controller in the distributed computing environment, a peak rate of sequence number incrementing by the primary controller; determining, with the processor, the first sequence number is greater than a stored sequence number; determining a propagation number associated with the first sequence number is less than a predefined maximum propagation number, wherein a propagation number represents a number of times an epoch and sequence pair has been communicated between nodes; determining the first sequence number is within a valid sequence number range, wherein the valid sequence number range is calculated, in part, based on the peak rate of the primary and a time elapsed since receiving the stored sequence number; and updating the stored sequence number to represent the first sequence number. receiving, at a first node within the distributed computing environment, a first sequence number from a second node, wherein a sequence number of a node represents a system state under which the node is operating and is incremented whenever a modification of the data or state of the node occurs; receiving, from a primary controller in the distributed computing environment, a peak rate of sequence number incrementing by the primary controller; determining, with the processor, the first sequence number is greater than a stored sequence number; determining a propagation number associated with the first sequence number is less than a predefined maximum propagation number, wherein a propagation number represents a number of times an epoch and sequence pair has been communicated between nodes; determining the first sequence number is within a valid sequence number range, wherein the valid sequence number range is calculated, in part, based on the peak rate of the primary and a time elapsed since receiving the stored sequence number; and updating the stored sequence number to represent the first sequence number.
Scaffolding pipe of a structural scaffolding system having: a pipe axis which extends from a first axial pipe end to an opposing second axial pipe end, a receiving portion which is provided on the first axial pipe end and an insertion portion which is provided on the second axial pipe end and which has a reduced cross-section compared with the receiving portion and terminates with a radial shoulder which forms an annular support face which is directed towards the insertion portion, the inner diameter (d 1,i) of the receiving portion being greater than the outer diameter (d 2,a) of the insertion portion so that an adjacent scaffolding pipe having an identical insertion portion can be inserted into the receiving portion, wherein a pipe wall of the scaffolding pipe has at the first axial pipe end a maximum wall thickness (s max) and otherwise a smaller wall thickness (s) characterised in that the scaffolding pipe is produced in one piece. a pipe axis which extends from a first axial pipe end to an opposing second axial pipe end, a receiving portion which is provided on the first axial pipe end and an insertion portion which is provided on the second axial pipe end and which has a reduced cross-section compared with the receiving portion and terminates with a radial shoulder which forms an annular support face which is directed towards the insertion portion, the inner diameter (d 1,i) of the receiving portion being greater than the outer diameter (d 2,a) of the insertion portion so that an adjacent scaffolding pipe having an identical insertion portion can be inserted into the receiving portion, wherein a pipe wall of the scaffolding pipe has at the first axial pipe end a maximum wall thickness (s max) and otherwise a smaller wall thickness (s) characterised in that the scaffolding pipe is produced in one piece.
Arrangement consisting of a drive, a coupling, and an adjustment device for a sliding wing as a lifting/sliding/tilt wing or lifting/sliding wing for a window or door, and with a fitting arranged on the closing side of the window or door vertically at the spar of the wing in a guide rail, which accommodates the electrically driven drive and the adjustment device, wherein the drive, consisting of a printed circuit board, a motor, and a gear unit, drives the coupling, and, with transfer via the coupling onto the adjustment device, drives the fitting, and a drive rod of the fitting transfers the lift, produced electrically by the drive and the adjustment device, onto the carriage, which exhibits rollers and is arranged at the lower edge of wing, by means of a deflection and coupling device, which allows for an adjustment of the height position of the rollers, wherein at least the adjustment device is mounted in a housing, which enters into a shape-stable fixed connection with the guide rail, wherein, by means of the coupling, a spindle of the adjustment device is driven, on which a slide carriage of the adjustment device can be moved with a nut, wherein the slide carriage is operatively connected by means of a thread section in engagement with the spindle, and in an extension on the middle axis of the threaded section the spindle is held and guided by means of a borehole formed therein, characterized in that the sliding carriage consists of a latch and the nut, wherein the nut is configured as T-shaped in the longitudinal direction towards the drive, and comprises the threaded section and a semi-circular section of the borehole, wherein the latch is formed in a U-shape in the longitudinal direction towards the drive, comprises a cut-out opening and forms, congruent to the nut, a semicircular section of the borehole, wherein the cut-out opening is in positive fit connection with the threaded section, and that the sliding carriage with its latch is held at the drive rod of the fitting by means of a rivet connection, secured in a guiding manner in the housing.
A method, comprising: establishing a communication connection between a base station and a network controller controlling the base station, wherein the base station and remote antenna units controlled by the base station form a distributed antenna system and the remote antenna units are distributed within a cell covered by the distributed antenna system, dividing, by the base station, the cell covered by the distributed antenna system into one or more sub-cells (202, 204, 206) by assigning different cell identifiers to different groups of one or more remote antenna units, wherein each group of one or more remote antenna units having an identical cell identifier forms one sub-cell, configuring each of the one or more remote antenna units with remote-antenna-unit-specific communication properties dynamically during communication, controlling, by the base station, the coverage area of the cell covered by the distributed antenna system dynamically by activating and/or deactivating one or more remote antenna units if it has been determined that either an activation or deactivation of said one or more remote antenna units is needed. establishing a communication connection between a base station and a network controller controlling the base station, wherein the base station and remote antenna units controlled by the base station form a distributed antenna system and the remote antenna units are distributed within a cell covered by the distributed antenna system, dividing, by the base station, the cell covered by the distributed antenna system into one or more sub-cells (202, 204, 206) by assigning different cell identifiers to different groups of one or more remote antenna units, wherein each group of one or more remote antenna units having an identical cell identifier forms one sub-cell, configuring each of the one or more remote antenna units with remote-antenna-unit-specific communication properties dynamically during communication, controlling, by the base station, the coverage area of the cell covered by the distributed antenna system dynamically by activating and/or deactivating one or more remote antenna units if it has been determined that either an activation or deactivation of said one or more remote antenna units is needed.
A machine for cleaning ballast of a track, including a machine frame supported on on-track undercarriages, a screening plant, a spoil conveyor belt, and a clearing device provided for taking up ballast and formed of an endless clearing chain guided in chain channels, wherein the chain channels connected to one another are positioned in a clearing plane which is inclined to a track plane, and wherein the chain channel provided for the ballast transport to the screening plant has a bottom opening, characterized by the following features: a) arranged in the bottom opening are a number of screen shafts, rotatable about an axis, which are positioned one following the other with regard to a ballast transport direction, b) each screen shaft comprises a number of screen elements, spaced from one another in the direction of the axis, for creating a screen floor. a) arranged in the bottom opening are a number of screen shafts, rotatable about an axis, which are positioned one following the other with regard to a ballast transport direction, b) each screen shaft comprises a number of screen elements, spaced from one another in the direction of the axis, for creating a screen floor.
A wireless communication apparatus, comprising: a station, STA, (1000; 304) comprising logic, at least a portion of which is in hardware, the logic configured to: perform a transmit sector training phase, including a responder transmit sector sweep, TXSS, to select a responder transmit, TX, sector, characterised in that the logic is further configured to: after the transmit sector training phase, enter a directional reception mode using a reciprocal responder receive, RX, sector corresponding to the same direction as the selected responder TX sector, and perform an initial modulation and coding scheme, MCS, selection exchange with an initiator, the MCS selection exchange comprising a beamforming reciprocity test; determine whether to use the reciprocal responder RX sector for directional data reception based on an outcome of the beamforming reciprocity test. perform a transmit sector training phase, including a responder transmit sector sweep, TXSS, to select a responder transmit, TX, sector, characterised in that the logic is further configured to: after the transmit sector training phase, enter a directional reception mode using a reciprocal responder receive, RX, sector corresponding to the same direction as the selected responder TX sector, and perform an initial modulation and coding scheme, MCS, selection exchange with an initiator, the MCS selection exchange comprising a beamforming reciprocity test; determine whether to use the reciprocal responder RX sector for directional data reception based on an outcome of the beamforming reciprocity test.
A data reduction method, wherein the method is applied to a storage device (10, 20), the storage device (10, 20) comprises at least a first logical unit and a second logical unit, the first logical unit and the second logical unit are configured to provide storage space for an application, and the method comprises: obtaining a first service type of first data stored in the first logical unit; processing the first data based on a first data reduction manner that matches the first service type, wherein the first data reduction manner comprises data compression and/or data deduplication; obtaining a second service type of second data stored in the second logical unit, wherein the second service type is different from the first service type; and processing the second data based on a second data reduction manner that matches the second service type, wherein the second data reduction manner comprises data compression and/or data deduplication, wherein the first data reduction manner is different from the second data reduction manner; the method characterised in that: the first data comprises a plurality of first data blocks, and the obtaining a first service type of first data stored in the first logical unit comprises: obtaining one or more sample data blocks in the plurality of first data blocks; and determining the first service type of the first data based on a service type of the one or more sample data blocks. obtaining a first service type of first data stored in the first logical unit; processing the first data based on a first data reduction manner that matches the first service type, wherein the first data reduction manner comprises data compression and/or data deduplication; obtaining a second service type of second data stored in the second logical unit, wherein the second service type is different from the first service type; and processing the second data based on a second data reduction manner that matches the second service type, wherein the second data reduction manner comprises data compression and/or data deduplication, wherein the first data reduction manner is different from the second data reduction manner; the method characterised in that: the first data comprises a plurality of first data blocks, and the obtaining a first service type of first data stored in the first logical unit comprises: obtaining one or more sample data blocks in the plurality of first data blocks; and determining the first service type of the first data based on a service type of the one or more sample data blocks. obtaining one or more sample data blocks in the plurality of first data blocks; and determining the first service type of the first data based on a service type of the one or more sample data blocks.
A hard metal insert intended to be comprised within a drill bit for percussion drilling, which Insert comprises a cap, which constitutes a wear part comprising a wear surface and a cylindrical part, which constitutes a mount with a cross-sectional area and a diameter, characterised in that the cap comprises a front part with an extension along the axis of symmetry (x) of the insert from a first point (a) on the wear surface of the cap to a second point (b) in the cap, that the front part constitutes a volume (Vf) between a first plane, which intersects at right angle to the axis of symmetry (x) at the first point (a) and a second plane, which intersects at right angle to the axis of symmetry (x) at the second point (b), which volume (Vf) is greater than or equal to 0.6 times the circular cross-sectional area (Af) of the front part in the second plane times the distance along the axis of symmetry (x) between the first point (a) and the second point (b), and in that the diameter (Df) of the front part in the second plane is greater than or equal to 0.5 times the diameter of the mount and less than or equal to 0.6 times the diameter of the mount, whereby the wear surface comprises a first spherical part and a second spherical part.
Cooking hob, particularly induction hob, comprising a cooking surface and a heating power transferring element, particularly an inductor or induction coil, preferably provided below the cooking surface, wherein at least two sensor elements are provided, preferably spatially distributed in an area covered by the heating power transferring element, the sensor elements being configured to gather information regarding the temperature of a piece of cookware placed on the cooking surface, wherein an electrical circuit is provided which comprises switching means (5.1) for providing a selective electrical coupling of one of said sensor elements with a control entity, wherein said control entity is configured to check plausibility of temperature information provided by the sensor elements and to discard temperature information provided by a sensor element with a failed plausibility check result.