mhurhangee/ep-ind-claims huggingface dataset:
A capacitive micromechanical sensor structure comprising a stator structure rigidly anchored to a substrate and a rotor structure movably anchored by means of spring structures (4; 4a, 4b) to the substrate, the stator structure having a plurality of stator finger support beams, the rotor structure having a plurality of rotor finger support beams, a stator finger support beam of the stator structure comprising a stator finger structure along at least one side of the stator finger support beam, wherein the stator finger structure comprises a plurality of stator fingers and stator gaps between two adjacent stator fingers, a rotor finger support beam of the rotor structure comprising a rotor finger structure along at least one side of the rotor finger support beam, wherein the rotor finger structure comprises a plurality of rotor fingers and rotor gaps between two adjacent rotor fingers, stator fingers along the stator finger support beam of the stator structure extending into rotor gaps along the rotor finger support beam of the rotor structure, rotor fingers along the rotor finger support beam of the rotor structure extending into stator gaps along the stator finger support beam of the stator structure; the rotor structure being movably anchored to the substrate in such way that the rotor structure can be deflected at least parallel with the plane of the substrate so that the rotor fingertip gap between the rotor fingers along at least one side of the rotor finger support beam and the stator finger support beam changes, the stator fingertip gap between the stator fingers along at least one side of the stator finger support beam and the rotor finger support beam changes, and a finger overlap length changes, the finger overlap length being the length the stator fingers of the stator finger structure extend into the rotor gaps of the rotor finger structure, or alternatively the length the rotor fingers of the rotor finger structure extend into the stator gaps of the stator finger structure, and stopper bumps for preventing excess movement of the rotor structure with respect to the stator structure but allowing the rotor structure to move in two opposite directions a distance corresponding a stopper gap, characterized by a stator fingertip gap between the stator fingers of the stator finger structure and the rotor finger support beam being in unloaded state of the capacitive micromechanical sensor structure 1 to 2.5 times a finger side gap between the stator fingers of the stator finger structure and the rotor fingers of the rotor finger structure, and a rotor fingertip gap between the rotor fingers of the rotor finger structure and the stator finger support beam being in unloaded state of the capacitive micromechanical sensor structure 1 to 2.5 times the finger side gap between the stator fingers of the stator finger structure and the rotor fingers of the rotor finger structure, and the stopper gap being 0.25 - 2.5 times the finger side gap between stator fingers of the stator finger structure and rotor fingers of the rotor finger structure.
A pistol with a frame, in which there is a trigger mechanism and with a slide movable along guides in the frame, preferably parallel to an axis of a barrel, in which a barrel, a recoil spring and a firing and holding mechanism are located, which comprises a firing pin, which is movably mounted in a firing pin guide, characterized by the fact that the firing pin guide has a holding plate on an end facing away from a tip of the firing pin, wherein said holding plate is pivoted on said firing pin guide and pivotable in a U-shaped holding notch in the slide, said holding plate being affixed in the slide in at least a first angle of ration about the barrel axis and not affixed in at least one other angle of rotation, and that the holding plate has a stop retainer, which is configured to abut against a stop level of the frame when the slide moves forwards and to prevent the holding plate from moving further forwards together with the firing pin guide and the firing pin, and possibly the slide.
Longitudinal adjuster, in particular for a vehicle seat, the longitudinal adjuster having at least one pair of rails formed from a first rail and a second rail, which is displaceable in a longitudinal direction (x) relative to the first rail, wherein the rails (12, 14) engage alternately around one another so as to form an inner channel, wherein a spindle nut which is mounted by way of the second rail and a spindle which is operatively connected to the spindle nut are arranged in the inner channel, wherein a spindle gear mechanism which is driveable by means of a motor and which interacts with the spindle is arranged in an end region of the first rail, wherein the spindle gear mechanism is surrounded by a gear-mechanism housing, wherein the gear-mechanism housing has at least one cylindrical bearing section for mounting of a worm gear connected to the spindle, characterized in that, the gear-mechanism housing, parallel to the spindle axis of the spindle, has two steps which adjoin the cylindrical bearing section and which are arranged at opposite outer sides of the gear-mechanism housing, wherein the spindle nut is arranged between the two steps axially in relation to the spindle axis and the steps are configured to support the worm gear in a crash situation.
A wireless communication method, comprising: determining, by a user equipment, an identifier offset of a hybrid automatic repeat request, HARQ, process; determining, by the user equipment based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + ⌊ t / T ⌋ MOD m wherein HARQ PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling, SPS interval, m corresponds to a number of SPS HARQ processes, └┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = ( n_SFN ∗ M + n_Sub) ∗ N_slot + n_slot wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame, n Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process, N_slot is a number of slots comprised in one radio subframe, and n slot is a slot serial number corresponding to the SPS radio resource used by the HARQ process; and performing, by the user equipment, transmission of the HARQ process corresponding to the identifier of the HARQ process. determining, by a user equipment, an identifier offset of a hybrid automatic repeat request, HARQ, process; determining, by the user equipment based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + ⌊ t / T ⌋ MOD m wherein HARQ PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling, SPS interval, m corresponds to a number of SPS HARQ processes, └┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = ( n_SFN ∗ M + n_Sub) ∗ N_slot + n_slot wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame, n Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process, N_slot is a number of slots comprised in one radio subframe, and n slot is a slot serial number corresponding to the SPS radio resource used by the HARQ process; and performing, by the user equipment, transmission of the HARQ process corresponding to the identifier of the HARQ process.
Compound structure made of composite material, such as fiber-reinforced polymer resin, comprising first oblong elements reciprocally distanced and parallel to each other and second oblong elements reciprocally distanced and parallel to each other and crisscrossed with respect to the first oblong elements, said first oblong elements and said second oblong elements being made in a single body to define a reticular structure (13; 13a, 13b) with a monolithic flat shape, wherein at least one of either said first oblong elements or said second oblong elements have a cross section shape defined by a first portion with an elongated quadrangular shape and by a second portion with an elongated quadrangular shape, and wherein the first portion is located incident against the second portion, wherein said compound structure comprises at least one flat element overlapping and coupled with a surface of said reticular structure (13; 13a, 13b), characterized in that said flat element has a reticular conformation, defined in a single body by first segments and second segments having an oblong development and disposed crisscrossed with respect to each other.
Marker (10, 10') for a navigation system for determining the position in space of for example a surgical instrument, the marker comprising a spherical, retroreflecting surface (13"), in particular in the form of a retroreflecting sphere (12"), the retroreflecting surface (13") being protected by a dimensionally stable, translucent or transparent shell (14") such that the reflected image remains substantially unaffected in respect of shape and location of the centre of mass, characterised in that the transparent shell (14") is a cap (16") which is pulled over the retroreflecting surface (13") or sphere (12"), has a continuously uniform wall thickness (W"), and comprises a spherical cap portion (25") in the upper third, which cap portion then expands outwards towards a flange (20") in a continuous and aspheric manner, increasing the outer and inner cap radii (R 1 "; R 2 ") accordingly.
A system for semiconductor processing, the system comprising: an optoelectronic hybrid module comprising a first complementary metal-oxide semiconductor, CMOS, SOI die with a first silicon layer thickness and comprising one or more photonic devices, and a second CMOS SOI die with a second silicon layer thickness different than the first layer thickness and comprising one or more electronic devices (410A, 410B) wherein said first and second CMOS SOI die are bonded together by metal cap layers, and said one or more electronic and said one or more photonic devices are fabricated on SOI wafers, said SOI wafers being diced to form said first and second CMOS SOI die. an optoelectronic hybrid module comprising a first complementary metal-oxide semiconductor, CMOS, SOI die with a first silicon layer thickness and comprising one or more photonic devices, and a second CMOS SOI die with a second silicon layer thickness different than the first layer thickness and comprising one or more electronic devices (410A, 410B) wherein said first and second CMOS SOI die are bonded together by metal cap layers, and said one or more electronic and said one or more photonic devices are fabricated on SOI wafers, said SOI wafers being diced to form said first and second CMOS SOI die.
An aqueous ink for ink jet, the aqueous ink comprising a pigment, a polyhydric alcohol derivative and a water-soluble organic solvent, wherein the polyhydric alcohol derivative is a compound in which a proportion of {Y/(X + Y)} × 100 (%) where X mole(s) of ethylene oxide group(s) and Y mole(s) of propylene oxide group(s) are added to polyhydric alcohol having three or more hydroxy groups is 55% or more to 95% or less, and the water-soluble organic solvent comprises a first water-soluble organic solvent having a relative dielectric constant of 10.0 or more to 40.0 or less.
A MOPA fiber laser which has: a master oscillator configured to emit pulse light; and a first power amplifier which uses a rare earth-doped fiber as gain medium which is connected to a later stage of the master oscillator, wherein the MOPA fiber laser has a wavelength conversion portion between the master oscillator and the first power amplifier said wavelength conversion portion is a fiber that is configured to shift a wavelength of incident pulse light emitted by the master oscillator to a long wavelength side, by induced Raman scattering characterized in that the MOPA fiber laser also comprises: a first wavelength filter between the wavelength conversion portion and the master oscillator that only allows the pulse light emitted from the master oscillator to pass; and further comprises a second wavelength filter between the wavelength conversion portion and the first power amplifier that allows light with a wavelength of the pulse light which is emitted from the master oscillator and is then subjected to wavelength conversion in the wavelength conversion portion to pass and that does not allow light with a wavelength of the pulse light which is emitted from the master oscillator to pass.
A milk sampling system comprising a fluid conveying device arranged to receive milk from an automatic milking machine and a control device configured to control the fluid conveying device to forward discrete samples of the milk to respective discharge paths for analysis by respective milk analysing means (A1, A2, A3, A4), the fluid conveying device comprising a pump having an inlet connected to an induction system and an outlet connected to a discharge system, the induction system having supply paths arranged to selectively connect the pump inlet to a plurality of fluid sources including a milk source, and the discharge system having a plurality of discharge paths arranged to successively deliver discrete milk samples to the respective discharge paths for analysis by respective milk analysing means, wherein the discharge system comprises a manifold block carrying devices for selectively opening and closing the discharge paths and at least one of the devices for selectively opening and closing one of the discharge paths comprises a solenoid valve (35, 36, 37, 38), and wherein at the time of sampling milk from the milking of an individual animal, a discrete milk sample can be discharged to any one or more of the analysis means by operation of the control device of the milk sampling system, wherein the control device is connected to the computer system of the automatic milking machine for receiving commands as to the samples to be discharged.
A method for damping motions of a vessel by using Magnus rotors, the vessel comprising at least a first Magnus rotor arranged above a water line of the vessel and attached to a body of the vessel, the method comprising: - determining relative wind direction and relative wind speed; characterised in that the method further comprises - selecting a damping mode from a group comprising at least a first damping mode and a second damping mode; - determining at least one of a linear acceleration of the vessel, an angular acceleration of the vessel, speed of the vessel; - determining an optimised rotation speed value and rotation direction for the first Magnus rotor to optimise a frictional resistance of the first Magnus rotor for the selected damping mode, by calculating the frictional resistance the first Magnus rotor would generate against motions of the vessel with alternative rotation speed values and rotation directions, and based on the determined relative wind direction, relative wind speed and at least one of linear acceleration, angular acceleration or speed; and - using the optimised rotation speed value and rotation direction of the first Magnus rotor, for damping the motions of the vessel. - determining relative wind direction and relative wind speed; characterised in that the method further comprises - selecting a damping mode from a group comprising at least a first damping mode and a second damping mode; - determining at least one of a linear acceleration of the vessel, an angular acceleration of the vessel, speed of the vessel; - determining an optimised rotation speed value and rotation direction for the first Magnus rotor to optimise a frictional resistance of the first Magnus rotor for the selected damping mode, by calculating the frictional resistance the first Magnus rotor would generate against motions of the vessel with alternative rotation speed values and rotation directions, and based on the determined relative wind direction, relative wind speed and at least one of linear acceleration, angular acceleration or speed; and - using the optimised rotation speed value and rotation direction of the first Magnus rotor, for damping the motions of the vessel.
Filter sector for a rotating filter disc of a disc filter comprising at least one perforated and structured filter plate and an interior space of the filter sector, wherein the filter plate can be suctioned via the interior space of the filter sector for separating liquid from a suspension, characterised in that the filter plate comprises at least one arch structure with a polygonal base wherein the polygonal base of the arch structure is a hexagon.
A rubber member comprising a nanomaterial, wherein the nanomaterial has a major axis of less than 100 nm in the case of being non-fibrous or a minor axis length of less than 100 nm and a major axis length of less than 1000 nm in the case of being fibrous, and has a content of a polar group of 750 mg/kg or more and 3000 mg/kg or less, the polar group includes an amino group, the nanomaterial is diamond modified with the polar group, a plurality of minute recesses are formed on a surface of the rubber member, wherein their maximum depth is 1 μm to 500 μm, and their longest diameter in a developed view of the surface of the rubber member is 1 μm to 500 μm, and the nanomaterial is provided on an inner surface of one or more minute recesses of the plurality of minute recesses, a plurality of minute cavities are formed inside the rubber member, and the nanomaterial is provided on an inner surface of one or more minute cavities of the plurality of minute cavities. a nanomaterial, wherein the nanomaterial has a major axis of less than 100 nm in the case of being non-fibrous or a minor axis length of less than 100 nm and a major axis length of less than 1000 nm in the case of being fibrous, and has a content of a polar group of 750 mg/kg or more and 3000 mg/kg or less, the polar group includes an amino group, the nanomaterial is diamond modified with the polar group, a plurality of minute recesses are formed on a surface of the rubber member, wherein their maximum depth is 1 μm to 500 μm, and their longest diameter in a developed view of the surface of the rubber member is 1 μm to 500 μm, and the nanomaterial is provided on an inner surface of one or more minute recesses of the plurality of minute recesses, a plurality of minute cavities are formed inside the rubber member, and the nanomaterial is provided on an inner surface of one or more minute cavities of the plurality of minute cavities.
A guide pad in a plate-like shape, the guide pad being removably attached to a tool body of a cutting tool, comprising: an upper surface and a lower surface that oppose each other; and a side surface extending between the upper surface and the lower surface, wherein the upper surface comprises at least one guide surface that extends in a longitudinal direction of the guide pad and curves convexly, the at least one guide surface comprising first and second guide surfaces (2a, 2a) formed separately from each other in a direction orthogonal to the longitudinal direction; and characterised in that the upper surface and the lower surface have left-right asymmetrical external shapes, respectively. an upper surface and a lower surface that oppose each other; and a side surface extending between the upper surface and the lower surface, wherein the upper surface comprises at least one guide surface that extends in a longitudinal direction of the guide pad and curves convexly, the at least one guide surface comprising first and second guide surfaces (2a, 2a) formed separately from each other in a direction orthogonal to the longitudinal direction; and characterised in that the upper surface and the lower surface have left-right asymmetrical external shapes, respectively.
A method for establishing an evolved packet system, EPS, bearer, comprising: sending, by a first base station to which a user equipment, UE, owning a first EPS bearer based on a first component carrier, CC, belongs, a request message for establishing multiple EPS bearers or a request message for modifying multiple EPS bearers for the UE, to the core network entity to request to establish the multiple EPS bearers based on multiple CCs, the first EPS bearer being an EPS bearer between a second base station and the UE, wherein the first base station is a eNodeB; receiving, by the first base station, an instruction for establishing the multiple EPS bearers based on the multiple CCs for the UE, which is sent by the core network entity; determining, by the first base station to establish a second EPS bearer based on a second CC for the UE; and establishing, by the first base station, the second EPS bearer for the UE, the second EPS bearer being an EPS bearer between the first base station and the UE. sending, by a first base station to which a user equipment, UE, owning a first EPS bearer based on a first component carrier, CC, belongs, a request message for establishing multiple EPS bearers or a request message for modifying multiple EPS bearers for the UE, to the core network entity to request to establish the multiple EPS bearers based on multiple CCs, the first EPS bearer being an EPS bearer between a second base station and the UE, wherein the first base station is a eNodeB; receiving, by the first base station, an instruction for establishing the multiple EPS bearers based on the multiple CCs for the UE, which is sent by the core network entity; determining, by the first base station to establish a second EPS bearer based on a second CC for the UE; and establishing, by the first base station, the second EPS bearer for the UE, the second EPS bearer being an EPS bearer between the first base station and the UE.
An article of footwear comprising: an upper forming a first portion of a void within the footwear; a sole structure secured to the upper, the sole structure including a depression that forms a second portion of the void; and a chamber that encloses a pressurized fluid, the chamber being located within the depression, and the chamber including a plurality of fluid-filled subchambers that extend in a medial to lateral direction of the footwear, at least two of the subchambers being isolated from fluid communication with each other, the chamber including a first manifold fluidically-connected to a first group of the subchambers by connections, characterised in that the chamber includes a second manifold fluidically-connected to a second group of the subchambers by connections, the first group of the subchambers and the second group of the subchambers enclosing the pressurized fluid at different pressures. an upper forming a first portion of a void within the footwear; a sole structure secured to the upper, the sole structure including a depression that forms a second portion of the void; and a chamber that encloses a pressurized fluid, the chamber being located within the depression, and the chamber including a plurality of fluid-filled subchambers that extend in a medial to lateral direction of the footwear, at least two of the subchambers being isolated from fluid communication with each other, the chamber including a first manifold fluidically-connected to a first group of the subchambers by connections, characterised in that the chamber includes a second manifold fluidically-connected to a second group of the subchambers by connections, the first group of the subchambers and the second group of the subchambers enclosing the pressurized fluid at different pressures.