mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a tube which includes a wall section, a hollow section, and a reinforcing member, the reinforcing member being provided in the wall section and having a ring shape, a wide-ring shape, or a spiral shape, said method comprising the steps of: (a)forming a primary molded body, in which the reinforcing member is provided along an outer peripheral surface of a tubular resin, by carrying out resin molding while the reinforcing member and a core pin for forming the hollow section are placed in a cavity of a first mold; and (b)covering the reinforcing member by carrying out resin molding while the primary molded body is placed in a cavity of a second mold which has an inner diameter larger than an inner diameter of the first mold; wherein a groove is provided in an inner wall surface of the first mold, the groove corre sponding to a shape of the reinforcing member; and wherein in the step (a), the resin molding is carried out in a state where at least part of the reinforcing member is inserted in the groove. (a)forming a primary molded body, in which the reinforcing member is provided along an outer peripheral surface of a tubular resin, by carrying out resin molding while the reinforcing member and a core pin for forming the hollow section are placed in a cavity of a first mold; and (b)covering the reinforcing member by carrying out resin molding while the primary molded body is placed in a cavity of a second mold which has an inner diameter larger than an inner diameter of the first mold;
A method for processing a set of bit blocks, wherein each bit block is an encoded Ethernet physical layer block, the method comprising: sequentially receiving a first tag bit block and N data bit blocks through an input port, wherein the first tag bit block comprises a first length field; wherein the method further comprises: sequentially sending the first tag bit block and M data bit blocks in the N data bit blocks through an output port, wherein the first tag bit block comprises the first length field; and sequentially sending a second tag bit block and L data bit blocks in remaining N-M data bit blocks of the N data bit blocks through the output port, wherein the second tag bit block comprises a second length field, and M, N, and L are all integers greater than or equal to 1; wherein a value of the first length field is greater than a value of the second length field by M. sequentially receiving a first tag bit block and N data bit blocks through an input port, wherein the first tag bit block comprises a first length field; wherein the method further comprises: sequentially sending the first tag bit block and M data bit blocks in the N data bit blocks through an output port, wherein the first tag bit block comprises the first length field; and sequentially sending a second tag bit block and L data bit blocks in remaining N-M data bit blocks of the N data bit blocks through the output port, wherein the second tag bit block comprises a second length field, and M, N, and L are all integers greater than or equal to 1; wherein a value of the first length field is greater than a value of the second length field by M. sequentially sending the first tag bit block and M data bit blocks in the N data bit blocks through an output port, wherein the first tag bit block comprises the first length field; and sequentially sending a second tag bit block and L data bit blocks in remaining N-M data bit blocks of the N data bit blocks through the output port, wherein the second tag bit block comprises a second length field, and M, N, and L are all integers greater than or equal to 1; wherein a value of the first length field is greater than a value of the second length field by M.
Operating device for a shift by wire assembly in an automobile comprising a touch sensitive display for selecting an operation mode (R, N, D, B) of an automatic and/or automatized transmission of the automobile, wherein the touch sensitive display is configured to detect a touch gesture of an operator corresponding to the selection of the operation mode (R, N, D, B) in a selection operating state of the touch sensitive display, wherein in a preselection operating state of the touch sensitive display, the touch sensitive display is configured to detect a touch gesture of an operator for initializing the selection operating state, characterized in that the touch sensitive display is configured to display an image of a shift pattern comprising at least one selection path corresponding to a touch gesture for selecting an operation mode (P, R, N, D) of the automobile when initializing the selection operating state, and in that the touch sensitive display is configured to display the shift pattern such that a start position of the at least one selection path is displayed at a location on the surface of the display at which a detected pressure is detected.
Mineral fibers exhibiting a chemical composition comprising the following constituents, as percentages by weight: SiO 2 57.0 to 60.0%, CaO 25.0 to 30.0%, MgO > 8.0 to 10.0%, B 2 O 3 2.5 to 6.0%, R 2 O (Na 2 O+K 2 O) up to 2.5% Al 2 O 3 0 to 2.0%, and an R 2 O/B 2 O 3 molar ratio of 0.20 to 0.60.
A braking system for an aircraft, comprising: a brake assembly (118; 218); a hydraulic braking subsystem having a hydraulic brake actuator configured to operate the brake assembly (118; 218); an electric braking subsystem having an electric brake actuator configured to operate the brake assembly (118; 218); characterised by a hydraulic brake control unit configured to operate the hydraulic braking subsystem; and an electric brake control unit configured to operate the electric braking subsystem, the electric brake control unit in operable communication with the hydraulic brake control unit, wherein the braking system is configured to: determine a primary braking system for a prior flight cycle; and activate the electric braking subsystem to be the primary braking system for a current flight cycle in response to determining the hydraulic braking subsystem was the primary braking system for the prior flight cycle. a brake assembly (118; 218); a hydraulic braking subsystem having a hydraulic brake actuator configured to operate the brake assembly (118; 218); an electric braking subsystem having an electric brake actuator configured to operate the brake assembly (118; 218); characterised by a hydraulic brake control unit configured to operate the hydraulic braking subsystem; and an electric brake control unit configured to operate the electric braking subsystem, the electric brake control unit in operable communication with the hydraulic brake control unit, wherein the braking system is configured to: determine a primary braking system for a prior flight cycle; and activate the electric braking subsystem to be the primary braking system for a current flight cycle in response to determining the hydraulic braking subsystem was the primary braking system for the prior flight cycle. determine a primary braking system for a prior flight cycle; and activate the electric braking subsystem to be the primary braking system for a current flight cycle in response to determining the hydraulic braking subsystem was the primary braking system for the prior flight cycle.
A polymeric profile segment (1, 2, 3), of the longitudinal type, comprising at least one core (11, 21, 31), a lower zone or flange (12, 22, 32), an upper zone or flange (13, 23, 33) and elements for assembly with an adjacent segment (17, 29), with the upper zone or flange (13, 23, 33) comprising one or more lateral tabs (14, 24, 34) acting as a collaborative formwork, and ribs (15, 25, 35) acting as stiffening connectors configured to attach the concrete to said zone or flange (13, 23, 33), comprising an internal alveolar structure, wherein the longitudinal direction of the alveoli coincides with the longitudinal direction of the segment, wherein the assembly element consists of a ridge located on one of the assembly faces configured to fit the adjoining segment, characterized in that the polymeric profile segment (1, 2, 3) is manufactured using the additive deposition technique or 3D printing, comprising solid surface contours and internal volumes with a semi-hollow filling, wherein the semi-hollow filling comprises a typology of packed tetrahedrons. the assembly element consists of a ridge located on one of the assembly faces configured to fit the adjoining segment, characterized in that the polymeric profile segment (1, 2, 3) is manufactured using the additive deposition technique or 3D printing, comprising solid surface contours and internal volumes with a semi-hollow filling, wherein the semi-hollow filling comprises a typology of packed tetrahedrons.
An information processing apparatus having a plurality of recording media (59,91), the apparatus comprising: imaging means (51,141) for capturing an image of a subject; and recording means configured in response to selection of a recording mode by a user to record image data of the image captured by the imaging means onto at least two of the recording media such that the amounts of recorded image data differ between the recording media; wherein the plurality of recording media include at least a first recording medium built in the information processing apparatus and a second recording medium removable from the information processing apparatus, and the recording means is configured to record the image data such that the amount of image data recorded on the first recording medium is smaller than that on the second recording medium; and the first recording medium comprises an area for recording the image data, the image data in the area being uneditable when the information processing apparatus is connected to an external device having an editing function. imaging means (51,141) for capturing an image of a subject; and recording means configured in response to selection of a recording mode by a user to record image data of the image captured by the imaging means onto at least two of the recording media such that the amounts of recorded image data differ between the recording media;
A method of making a semiconductor structure using a substrate having a background doping of a first conductivity type, comprising: forming a gate structure comprising a gate dielectric on the substrate and a select gate layer on the gate dielectric, wherein the gate layer has a first end; implanting a first portion of the substrate adjacent to the first end with dopants of a second conductivity type using the first end as a mask, wherein the implanting is prior to any dopants being implanted into the background doping of the first portion and wherein the first portion becomes a first doped region of the second conductivity type; forming a non-volatile memory gate structure comprising a select gate of the select gate layer, a storage layer having a first portion over the first doped region, and a control gate over the storage layer, wherein the select gate has a first side as the first end and a second side opposite the first side, wherein the storage layer has a second portion between the first side of the select gate and a first side of the control gate; implanting at a non-vertical angle with dopants of the first conductivity type to form a deep doped region under substantially all of the select gate; and implanting with dopants of the second conductivity type to form a source/drain extension in the substrate substantially aligned with the second side of the select gate. forming a gate structure comprising a gate dielectric on the substrate and a select gate layer on the gate dielectric, wherein the gate layer has a first end; implanting a first portion of the substrate adjacent to the first end with dopants of a second conductivity type using the first end as a mask, wherein the implanting is prior to any dopants being implanted into the background doping of the first portion and wherein the first portion becomes a first doped region of the second conductivity type; forming a non-volatile memory gate structure comprising a select gate of the select gate layer, a storage layer having a first portion over the first doped region, and a control gate over the storage layer, wherein the select gate has a first side as the first end and a second side opposite the first side, wherein the storage layer has a second portion between the first side of the select gate and a first side of the control gate; implanting at a non-vertical angle with dopants of the first conductivity type to form a deep doped region under substantially all of the select gate; and implanting with dopants of the second conductivity type to form a source/drain extension in the substrate substantially aligned with the second side of the select gate.
A method for the manufacture of a sound and/or thermal insulation element using expandable and/or pre-expanded polymer particles which are coated with an organic binder and which subsequently undergo a shaping process, during which the polymer particles are bonded and sintered together, wherein the bonding is carried out by means of the binder, and wherein 60 % to 97 % by weight of expandable and/or pre-expanded polymer particles and 3 % to 40 % by weight of binder, respectively with respect to the total weight of the solid starting material, are used, characterized in that a non-hydrophilic polymer binder is used in order to coat the expandable and/or pre-expanded polymer particles, which has a static initial contact angle of water, after equilibration for 1 min, of ≥ 35°, a surface energy in accordance with DIN 55660-2 of ≤ 70 mN/m, a polar fraction of the surface energy in accordance with DIN 55660-2 of ≤ 35 mN/m and a disperse fraction of the surface energy in accordance with DIN 55660-2 of ≥ 10 mN/m.
Self-balancing, single-axle running-gear unit, comprising - a movement module having a drive axle on which two drive wheels (16, 18) are mounted so as to be rotatable, and a drive which can be coupled with the two drive wheels, - a load-carrying module having a first arm, which extends from the movement module, and a second arm having a first end, which is articulated with the first arm, and a second end, to which a load-receiving interface is fitted, - a stair-climbing module having two spoke stars which are mounted so as to be rotatable about the drive axle, wherein each spoke star has a plurality of radially extending carrying spokes which are arranged offset in the circumferential direction and have a radially outer, free end to which a ground contact element is fitted, and wherein a spoke star is arranged laterally next to each of the drive wheels (16, 18), and - a controller which contains an inclination sensor and/or an acceleration sensor and is configured, by controlled application of a torque to the drive wheels (16, 18) and/or to the spoke stars, to prevent or to limit tilting of the load-receiving interface relative to a vertical running, in an initial state, through the load-receiving interface. - a movement module having a drive axle on which two drive wheels (16, 18) are mounted so as to be rotatable, and a drive which can be coupled with the two drive wheels, - a load-carrying module having a first arm, which extends from the movement module, and a second arm having a first end, which is articulated with the first arm, and a second end, to which a load-receiving interface is fitted, - a stair-climbing module having two spoke stars which are mounted so as to be rotatable about the drive axle, wherein each spoke star has a plurality of radially extending carrying spokes which are arranged offset in the circumferential direction and have a radially outer, free end to which a ground contact element is fitted, and wherein a spoke star is arranged laterally next to each of the drive wheels (16, 18), and - a controller which contains an inclination sensor and/or an acceleration sensor and is configured, by controlled application of a torque to the drive wheels (16, 18) and/or to the spoke stars, to prevent or to limit tilting of the load-receiving interface relative to a vertical running, in an initial state, through the load-receiving interface.
A method of viewing an activity, comprising: positioning a moveable device within a control volume, the moveable device being equipped with a viewing device configured to view the activity; measuring one or more motion characteristics of the moveable device using a motion capture system operatively disposed with respect to the control volume as the moveable device operates within the control volume; receiving the one or more measured motion characteristics from the motion capture system using at least one communication network; determining a command signal based on the one or more motion characteristics, wherein determining a command signal includes receiving the one or more measured motion characteristics from the communication network into an on-board processing component positioned on the moveable device and computing the command signal using the on-board processing component; and transmitting the command signal to the moveable device to control at least one motion characteristic of the moveable device in a closed-loop feedback manner; wherein measuring one or more motion characteristics includes measuring one or more motion characteristics using a plurality of retro-reflective markers positioned on the moveable device. positioning a moveable device within a control volume, the moveable device being equipped with a viewing device configured to view the activity; measuring one or more motion characteristics of the moveable device using a motion capture system operatively disposed with respect to the control volume as the moveable device operates within the control volume; receiving the one or more measured motion characteristics from the motion capture system using at least one communication network; determining a command signal based on the one or more motion characteristics, wherein determining a command signal includes receiving the one or more measured motion characteristics from the communication network into an on-board processing component positioned on the moveable device and computing the command signal using the on-board processing component; and transmitting the command signal to the moveable device to control at least one motion characteristic of the moveable device in a closed-loop feedback manner; wherein measuring one or more motion characteristics includes measuring one or more motion characteristics using a plurality of retro-reflective markers positioned on the moveable device.
Method for operating a handheld power tool, the handheld power tool comprising an electric motor, the method comprising the method steps of: S1 providing comparative information, comprising the steps of: S1a providing at least one model signal shape, the model signal shape being assignable to progress of work of the handheld power tool; S1b providing a threshold value of correspondence; S2 ascertaining a signal of an operating variable of the electric motor; S3 comparing the signal of the operating variable with the model signal shape and ascertaining an assessment of correspondence from the comparison, the assessment of correspondence at least partially taking place on the basis of the threshold value of correspondence; S4 detecting the progress of work at least partially on the basis of the assessment of correspondence ascertained in method step S3; the providing of comparative information taking place at least partially on the basis of a learning process. S1 providing comparative information, comprising the steps of: S1a providing at least one model signal shape, the model signal shape being assignable to progress of work of the handheld power tool; S1b providing a threshold value of correspondence; S1a providing at least one model signal shape, the model signal shape being assignable to progress of work of the handheld power tool; S1b providing a threshold value of correspondence; S2 ascertaining a signal of an operating variable of the electric motor; S3 comparing the signal of the operating variable with the model signal shape and ascertaining an assessment of correspondence from the comparison, the assessment of correspondence at least partially taking place on the basis of the threshold value of correspondence; S4 detecting the progress of work at least partially on the basis of the assessment of correspondence ascertained in method step S3;
A housing for an electronic component, in particular a temperature controller, having a front side and a rear side, which includes a retaining profile for connecting to a top hat rail, characterized in that the housing is extruded and configured in one piece and includes an accommodation space for the electronic component configured by a blind hole bore.
A system, comprising: a housing; and a cuff member formed with the housing; wherein the cuff member includes a first cuff portion moveable relative to a second cuff portion; wherein the first cuff portion includes a first non-linear edge and the second cuff portion includes a second non-linear edge; wherein the first non-linear edge and the second non-linear edge meet to define a non-linear opening formed within an opening region (94, 94a); wherein the opening region is about 5° to about 20° from a plane through the non-linear opening, where the first non-linear edge and the second non-linear edge meet when the cuff member is closed; wherein the non-linear opening assists in resisting radial removal from a nerve and assists in minimal movement to open the non-linear opening to engage the nerve; wherein the cuff member may be moved in a generally straight line to engage the nerve. a housing; and a cuff member formed with the housing; wherein the cuff member includes a first cuff portion moveable relative to a second cuff portion; wherein the first cuff portion includes a first non-linear edge and the second cuff portion includes a second non-linear edge; wherein the first non-linear edge and the second non-linear edge meet to define a non-linear opening formed within an opening region (94, 94a); wherein the opening region is about 5° to about 20° from a plane through the non-linear opening, where the first non-linear edge and the second non-linear edge meet when the cuff member is closed; wherein the non-linear opening assists in resisting radial removal from a nerve and assists in minimal movement to open the non-linear opening to engage the nerve; wherein the cuff member may be moved in a generally straight line to engage the nerve.
A method of deprotecting oligomeric compounds having monomethoxytrityl protected amino groups linked to either the 5' or 3'-terminus comprising: providing an aqueous solution of the oligomeric compounds having monomethoxytrityl protected amino groups; heating the solution to from 35 °C to 45°C; adjusting the pH of the heated solution to from 4.0 to 5.5 by addition of an acid with mixing; and mixing the acidified solution while maintaining the pH at from 4.0 to 5.5 and the temperature at from 35 °C to 45°C until essentially all of the monomethoxytrityl groups are removed thereby deprotecting the oligomeric compounds; wherein the oligomeric compounds are oligonucleotides or oligonucleosides; and wherein essentially all of the monomethoxytrityl groups are removed when less than 0.2% of the total monomethoxytrityl protecting groups are left on the oligomeric compounds. providing an aqueous solution of the oligomeric compounds having monomethoxytrityl protected amino groups; heating the solution to from 35 °C to 45°C; adjusting the pH of the heated solution to from 4.0 to 5.5 by addition of an acid with mixing; and mixing the acidified solution while maintaining the pH at from 4.0 to 5.5 and the temperature at from 35 °C to 45°C until essentially all of the monomethoxytrityl groups are removed thereby deprotecting the oligomeric compounds; wherein the oligomeric compounds are oligonucleotides or oligonucleosides; and wherein essentially all of the monomethoxytrityl groups are removed when less than 0.2% of the total monomethoxytrityl protecting groups are left on the oligomeric compounds.