mhurhangee/ep-ind-claims huggingface dataset:
A method of generating a tool path (PA, PA1, PA2) for machining a surface of a workpiece by moving a rotary tool relative to the workpiece, the rotary tool having a cutting blade adapted to cut a workpiece surface intermittently, the method characterised by comprising the steps of: dividing a design-stage workpiece surface into a mesh, based on shape data relative to the design-stage workpiece surface from a CAD unit and the shape of dimples to be formed by the cutting blade, the mesh defining vertices; setting a pattern of arrangement of a plurality of virtual dimples, representing dimples having center points corresponding to the vertices of the mesh, the mesh consisting of triangles, and a size corresponding to the distance between center points (P1, P1), on a design-stage workpiece surface; setting a sequence for machining the virtual dimples; and determining a tool path (PA, PA1, PA2) of the rotary tool based on the sequence for machining the virtual dimples. dividing a design-stage workpiece surface into a mesh, based on shape data relative to the design-stage workpiece surface from a CAD unit and the shape of dimples to be formed by the cutting blade, the mesh defining vertices; setting a pattern of arrangement of a plurality of virtual dimples, representing dimples having center points corresponding to the vertices of the mesh, the mesh consisting of triangles, and a size corresponding to the distance between center points (P1, P1), on a design-stage workpiece surface; setting a sequence for machining the virtual dimples; and determining a tool path (PA, PA1, PA2) of the rotary tool based on the sequence for machining the virtual dimples.
A diffuser assembly for a gas turbine engine, comprising: a diffuser case; and an annular ring (74; 174; 274), characterized by: a retaining tab that is mounted to the annular ring (74; 174; 274) and has an end that engages an inner wall of the diffuser case, the engagement between the end and the inner wall locking the retaining tab and limiting movement of the annular ring (74; 174; 274) along a central longitudinal axis of the diffuser case, wherein the diffuser case defines an annular groove along its inner wall, and the end of the retaining tab is situated in the annular groove. a diffuser case; and an annular ring (74; 174; 274), characterized by: a retaining tab that is mounted to the annular ring (74; 174; 274) and has an end that engages an inner wall of the diffuser case, the engagement between the end and the inner wall locking the retaining tab and limiting movement of the annular ring (74; 174; 274) along a central longitudinal axis of the diffuser case, wherein the diffuser case defines an annular groove along its inner wall, and the end of the retaining tab is situated in the annular groove. a retaining tab that is mounted to the annular ring (74; 174; 274) and has an end that engages an inner wall of the diffuser case, the engagement between the end and the inner wall locking the retaining tab and limiting movement of the annular ring (74; 174; 274) along a central longitudinal axis of the diffuser case, wherein the diffuser case defines an annular groove along its inner wall, and the end of the retaining tab is situated in the annular groove.
A continuous web of fibers comprising at least long natural fibers, including a plurality of parallel fibers obtained by dispersion and by tensioning fibers coming from parallel ribbons, the parallel fibers being bonded to each other to form the web, the web having a uniform thickness over its width, at least part of the long fibers of the web having a length greater than 20 cm, in particular greater than 50 cm, characterized in that it has a surface density inferior to 500 g/m 2, in particular inferior to 150 g/m 2, and in that the parallel fibers are bonded together by natural cements of the long natural fibers, partially dissolved and resolidified to form the web.
A method for maintaining user service continuity, comprising: when a User Equipment, UE, needs to perform network handover to an evolved Universal Mobile Telecommunication System Terrestrial Radio Access Network, eUTRAN, receiving, by a target mobility management entity, MME, a forward relocation request message carrying user type information from a source serving general packet radio service support node, SGSN, judging, by the target MME, according to the received user type information, whether the UE adopts a subscriber identity module, SIM, technology for network access; prohibiting (304, 305) the UE from accessing the eUTRAN before the network handover is complete if the UE adopts the SIM technology for access. when a User Equipment, UE, needs to perform network handover to an evolved Universal Mobile Telecommunication System Terrestrial Radio Access Network, eUTRAN, receiving, by a target mobility management entity, MME, a forward relocation request message carrying user type information from a source serving general packet radio service support node, SGSN, judging, by the target MME, according to the received user type information, whether the UE adopts a subscriber identity module, SIM, technology for network access; prohibiting (304, 305) the UE from accessing the eUTRAN before the network handover is complete if the UE adopts the SIM technology for access.
Measurement device for the detection and/or measurement of fluid-borne particles in a fluid particle, the measurement device comprising: a fluid source for producing a flow of fluid particles along a fluid flow path, a laser source positioned for emitting a laser beam of laser light in a measurement volume of the fluid flow path and adapted to emit a laser light having a wavelength of 200 to 450 nm; an elastically scattered light detecting means for detecting a presence of a fluid particle in the fluid flow path through detection and measurement of laser beam light elastically scattered on different angles by said fluid particle, and a Raman and fluorescence detecting means for detecting a Raman scattering signal emitted by the fluid particle and a fluorescence signal emitted by a fluid-borne particle upon excitation by said laser beam (120, 140) when emitting a laser light having a wavelength of 200 to 450 nm, characterized in that the device is adapted to use the Raman scattering signal for correcting eventual errors taken in the group comprising fluid particle position in a laser beam, nonhomogeneous laser beam intensity, or any other factors influencing light collection efficiency, and the fluorescence emission is for determining the quantity of fluid-borne particles present inside a fluid particle. a fluid source for producing a flow of fluid particles along a fluid flow path, a laser source positioned for emitting a laser beam of laser light in a measurement volume of the fluid flow path and adapted to emit a laser light having a wavelength of 200 to 450 nm; an elastically scattered light detecting means for detecting a presence of a fluid particle in the fluid flow path through detection and measurement of laser beam light elastically scattered on different angles by said fluid particle, and a Raman and fluorescence detecting means for detecting a Raman scattering signal emitted by the fluid particle and a fluorescence signal emitted by a fluid-borne particle upon excitation by said laser beam (120, 140) when emitting a laser light having a wavelength of 200 to 450 nm, characterized in that the device is adapted to use the Raman scattering signal for correcting eventual errors taken in the group comprising fluid particle position in a laser beam, nonhomogeneous laser beam intensity, or any other factors influencing light collection efficiency, and the fluorescence emission is for determining the quantity of fluid-borne particles present inside a fluid particle.
A method for manufacturing a membrane electrode assembly, the method comprising: depositing a recombination suspension directly onto a surface of an ionically conductive membrane forming a recombination layer, wherein the recombination suspension includes a solvent and metal oxide; reducing the metal oxide of recombination layer to provide a cured recombination layer comprising the metal; and depositing an ionomer layer on a surface of the cured recombination layer. depositing a recombination suspension directly onto a surface of an ionically conductive membrane forming a recombination layer, wherein the recombination suspension includes a solvent and metal oxide; reducing the metal oxide of recombination layer to provide a cured recombination layer comprising the metal; and depositing an ionomer layer on a surface of the cured recombination layer.
Dry composition based on a mineral binder (a) and incorporating at least one SuperAbsorbent Polymer -SAP- (b) and a setting accelerating component (c), with this composition being intended for preparing a moist formulation for the building industry and characterised in that: • it comprises at least one source of aluminium ions; • the binder (a) is not a source of aluminium ions; • the component (c) comprises at least one source of aluminium ions; • the concentration in binder (a) is within the following concentration ranges, expressed as a % of dry weight of the composition and given in an increasing order of preference: [15- 99.5]; [20 - 98]; [25 - 97]; [25- 96]; [30 - 95]; • the concentration in component (c) is within the following concentration ranges, expressed as a % of dry weight of the composition and given in an increasing order of preference: [0.10- 20]; [0.15- 20]; [0.15- 15]; [0.15- 10]; [0.2- 10]. • it comprises at least one source of aluminium ions; • the binder (a) is not a source of aluminium ions; • the component (c) comprises at least one source of aluminium ions; • the concentration in binder (a) is within the following concentration ranges, expressed as a % of dry weight of the composition and given in an increasing order of preference: [15- 99.5]; [20 - 98]; [25 - 97]; [25- 96]; [30 - 95]; • the concentration in component (c) is within the following concentration ranges, expressed as a % of dry weight of the composition and given in an increasing order of preference: [0.10- 20]; [0.15- 20]; [0.15- 15]; [0.15- 10]; [0.2- 10].
An air-conditioning register comprising a rotation direction changing mechanism, which changes a rotation direction of an operation knob transmitted through a transmission shaft extending in a flowing direction of air-conditioning air in an airflow passage and transmits the rotation to a shut-off damper to tilt the shut-off damper between an open position and a closed position about damper pivots (42, 47), wherein the rotation direction changing mechanism includes an arm portion (44, 49), which extends from the shut-off damper, and a cam member, which includes a cam groove on an outer surface, the arm portion (44, 49) includes a sliding end portion (44a, 49a), which moves along an arcuate passage having a center, which coincides with the damper pivots (42, 47) in accordance with the tilting motion of the shut-off damper, the sliding end portion (44a, 49a) is slidably engaged with the cam groove, the transmission shaft is coupled to the operation knob with a first Cardan joint, the transmission shaft is coupled to the cam member with a second Cardan joint, the cam groove includes a sliding region, along which the sliding end portion (44a, 49a) slides when the shut-off damper is tilted between the open position and the closed position, and the sliding region includes a free running region on each of opposite ends of the sliding region, wherein the moving amount of the sliding end portion (44a, 49a) along the arcuate passage in each free running region is less than that in an intermediate region at an intermediate section of the sliding region when the cam member is rotated by a certain angle.
A radio base station (PhNB#10) configured to manage a cell (#10) formed by linking a plurality of small cells (#1, #2, #3), comprising: an allocation unit configured to allocate a same Cell-Radio Network Temporary Identity to a plurality of mobile stations (UE#1, UE#2) which are separated by at least a predetermined distance in the cell (#10).
A harness mounting structure which is provided with an engine mounted in an engine compartment of a vehicle, a drive shaft extending in a vehicle width direction such that the drive shaft is disposed in a portion, of the engine, toward the rear of the vehicle in the engine compartment and passes a position where the drive shaft overlaps with the engine when viewed from the rear of the vehicle, and a harness disposed along at least a surface, of the engine, toward the rear of the vehicle, the harness mounting structure comprising: a laterally extending portion provided to the harness and disposed along the surface, of the engine, toward the rear of the vehicle, and extending in the vehicle width direction within a predetermined height range in which the drive shaft is included; and a projection disposed in at least one of a position above the laterally extending portion or a position below the laterally extending portion within the predetermined height range in a portion, of the engine, toward the rear of the vehicle, the projection projecting toward the rear of the vehicle further than the laterally extending portion. a laterally extending portion provided to the harness and disposed along the surface, of the engine, toward the rear of the vehicle, and extending in the vehicle width direction within a predetermined height range in which the drive shaft is included; and a projection disposed in at least one of a position above the laterally extending portion or a position below the laterally extending portion within the predetermined height range in a portion, of the engine, toward the rear of the vehicle, the projection projecting toward the rear of the vehicle further than the laterally extending portion.
A sensor circuit comprising: an amplifier section (30,30A) configured to amplify an output voltage of a sensor and provide an output voltage as a sum of the amplified output voltage of the sensor and a reference voltage; and an output unit configured to provide an output voltage based on a differential voltage between a first output voltage (V31,V33) and a second output voltage (V32,V34), the first output voltage (V31,V33) having a value of the output voltage of the amplifier section (30,30A) when the amplifier section (30,30A) has its amplification factor set at a first amplification factor, the second output voltage (V32,V34) having another value of the output voltage of the amplifier section (30,30A) when the amplifier section (30,30A) has its amplification factor set at a second amplification factor. an amplifier section (30,30A) configured to amplify an output voltage of a sensor and provide an output voltage as a sum of the amplified output voltage of the sensor and a reference voltage; and an output unit configured to provide an output voltage based on a differential voltage between a first output voltage (V31,V33) and a second output voltage (V32,V34), the first output voltage (V31,V33) having a value of the output voltage of the amplifier section (30,30A) when the amplifier section (30,30A) has its amplification factor set at a first amplification factor, the second output voltage (V32,V34) having another value of the output voltage of the amplifier section (30,30A) when the amplifier section (30,30A) has its amplification factor set at a second amplification factor.
A composition comprising ingredients and: where Ingredient is a catalytically effective amount of a reaction product of a Zn precursor of formula Zn-A 2 and a ligand, where each A is independently a monovalent organic group and where the Zn precursor is distinct from a reaction product of the Zn precursor and the ligand, and where the ligand is selected from the group consisting of Ligands (b), (c), and (d), where Ligand (b) is Ligand (c) is and Ligand (d) is and, Ingredient is a silicon containing base polymer having an average, per molecule, of one or more hydrolyzable substituents, and Ingredient is capable of catalyzing a condensation reaction of the hydrolyzable substituents on ingredient.
A valve seal for a ball valve, comprising: a ball; an annular seat having a first groove and a second groove, configured to contact the ball, wherein the first groove has a first groove wall angled at an angle (θ1) of less tan 90° relative to a longitudinal axis disposed at a radial center of the seat; and a first seal comprising an annular band wherein a first interior wall of the band is disposed at an angle (θ2) of less than 90° relative to a longitudinal axis disposed at a radial center of the band, characterised in that the first seal is a frusto-conical band having a cross-sectional parallelogram geometry; and wherein said second groove comprises groove indentations configured to firmly grip a second seal accommodated in said second groove. a ball; an annular seat having a first groove and a second groove, configured to contact the ball, wherein the first groove has a first groove wall angled at an angle (θ1) of less tan 90° relative to a longitudinal axis disposed at a radial center of the seat; and a first seal comprising an annular band wherein a first interior wall of the band is disposed at an angle (θ2) of less than 90° relative to a longitudinal axis disposed at a radial center of the band, characterised in that the first seal is a frusto-conical band having a cross-sectional parallelogram geometry; and wherein said second groove comprises groove indentations configured to firmly grip a second seal accommodated in said second groove.
Method for generating an ECG signal, wherein at least one cardiac motion-induced signal is detected, wherein the at least one detected cardiac motion-induced signal is transformed into at least one ECG signal, wherein the at least one cardiac motion-induced signal is an SCG signal, characterized in that a plurality of channel-specific signals of a multi-channel ECG signal are determined by the transformation from the at least one SCG signal.
An autopilot system for automatically steering a marine vessel (200, 200'), the marine vessel (200, 200') comprising two electric motors (11, 12) respectively connected to a port side propulsor and to a starboard side propulsor, a port side rudder and a starboard side rudder and a rudder steering mechanism, a navigation system for determining the vessel position with respect to an intended course, wherein the autopilot system is configured to operate according to one or more autopilot modes (51, 52, 53), comprising at least a motor steering autopilot mode wherein the autopilot system automatically controls the rudder steering mechanism in order to lock the rudders (31, 32) at a fixed angle at which the rudders (31, 32) cause the least resistance, and based on a feedback from the navigation system independently and dynamically adjusts power supply (15', 16') to each of the port side propulsor and of the starboard side propulsor by independently and dynamically regulating electric power supply (15, 16) to the respective electric motors (11, 12) in order to maintain the vessel on course, thereby reducing power consumption at a certain vessel velocity or increasing vessel velocity at a certain power consumption in the motor steering autopilot mode, while preserving the option to use the rudder steering mechanism for direction control at least in manual mode or other situations.
A method of wireless communication performed by a user equipment, UE, comprising: determining that a digital pre-distortion, DPD, training is to be performed by a modem, wherein the modem is configured for communication between the UE and a primary network associated with the UE; and configuring the modem to perform the DPD training using a secondary network associated with the UE, wherein the modem is configured to select a transmission timing for the DPD training, to switch a mixer of the modem to a band of the secondary network, and to perform the DPD training, and configuring the modem to switch the mixer of the modem back to a band of the primary network to resume communication between the UE and the primary network using the DPD training to address non-linearities within transmissions by the UE. determining that a digital pre-distortion, DPD, training is to be performed by a modem, wherein the modem is configured for communication between the UE and a primary network associated with the UE; and configuring the modem to perform the DPD training using a secondary network associated with the UE, wherein the modem is configured to select a transmission timing for the DPD training, to switch a mixer of the modem to a band of the secondary network, and to perform the DPD training, and configuring the modem to switch the mixer of the modem back to a band of the primary network to resume communication between the UE and the primary network using the DPD training to address non-linearities within transmissions by the UE.
Device for arranging decoration material on a dough product, comprising: means for forming a slab of dough, a first conveyor at a speed v 1 adapted to transport the formed slab of dough along roll-up means for the purpose of rolling up the slab of the dough, which roll-up means are situated in the path of the first conveyor, and a second conveyor at a speed v 2 adapted to transport the rolled-up slab of dough, wherein means are provided in the vicinity of the second conveyor for arranging decoration material on the rolled-up slab of dough, wherein the conveyors are adapted so that during use the speed v 2 of the second conveyor is lower than the speed v 1 of the first conveyor.
A method of fast-forwarding or fast-rewinding a digital audio signal recorded at an original sample rate, the method comprising: playing (110, 210) a first segment of the digital audio signal; skipping (120, 220) to a second segment of the digital audio signal that is not contiguous with the first segment; and playing (130, 230) the second segment, wherein at least one of the first and second segment is played at a modified playback rate different from the original sampling rate. playing (110, 210) a first segment of the digital audio signal; skipping (120, 220) to a second segment of the digital audio signal that is not contiguous with the first segment; and playing (130, 230) the second segment, wherein at least one of the first and second segment is played at a modified playback rate different from the original sampling rate.