mhurhangee/patent-ind-claim-en huggingface dataset:
A device for dispensing a fluid substance, comprising a cup-shaped body inside which a piston is movable between a lower end position and an upper end position, the piston sealedly slides on the cup-shaped body and is driven by a hollow stem , the cup-shaped body having a supply passage of a compression chamber , the compression chamber being at least partially defined by the cup-shaped body and from the piston , the supply passage being associated with a first valve element , and a second valve element associated with a discharge passage from said compression chamber , the hollow stem being fixed to a dispensing button which encounters a first end of a spring , the spring being configured so as to return said piston to the upper stroke position, characterized in that the button is fixed to the stem by means of a removable plug , so that when the button is disconnected from the stem the spring can be extracted from the device .
A plug connector assembly having a plug connector and a cable connected to the plug connector , which in each case have at least one pair of conductors with a first and second conductor for transmitting a differential signal, wherein the cable has a first section and the plug connector has a second section , in which the pair of conductors has plug contacts, wherein the cable is fastened to the plug connector on a plug connector-side end of the first section and the conductors of the pair of conductors of the cable are fastened to the conductors of the plug connector on a cable-side end of the second section, wherein between the first section and the second section an intermediate section is formed, wherein the pair of conductors is surrounded in the intermediate section by an outer conductor , and wherein in at least one part of the intermediate section the outer conductor has a deformation , which reduces a distance (V) between the outer conductor and the conductors and/or a distance (W) between the conductors in a region of the deformation , wherein the distance between the outer conductor and the conductors in a region of the deformation is zero, wherein the distance between the conductors in a region of the deformation is zero, characterized in that a smallest diameter of the outer conductor in the region of the deformation is less than a diameter of a conductor in a non-deformed region and/or that a largest diameter of the outer conductor in the region of the deformation is less than twice that of a conductor in a non-deformed region.
A medical manipulator comprising: a driving unit including a vibration-type actuator including a vibrating unit configured to generate a vibration wave, a moving unit configured to relatively rotatably move with respect to the vibrating unit, and a pressure application unit configured to apply a pressure between the vibrating unit and the moving unit; a manipulator unit connected to the driving unit and configured to be movable by being driven by the driving unit; a supporting unit configured to support the driving unit and the manipulator unit; a driving circuit connected to the vibrating unit and configured to apply an AC voltage to the vibrating unit; and a torque control unit configured to control a holding torque with which the moving unit is held by the vibrating unit, wherein the torque control unit is configured to output, to the vibrating unit, a holding torque control signal including a forward traveling wave signal and a reverse traveling wave signal appearing alternately in a time interval in which substantially no rotation occurs on the moving unit due to the forward traveling wave signal and the reverse traveling wave signal being output sequentially. a driving unit including a vibration-type actuator including a vibrating unit configured to generate a vibration wave, a moving unit configured to relatively rotatably move with respect to the vibrating unit, and a pressure application unit configured to apply a pressure between the vibrating unit and the moving unit; a manipulator unit connected to the driving unit and configured to be movable by being driven by the driving unit; a supporting unit configured to support the driving unit and the manipulator unit; a driving circuit connected to the vibrating unit and configured to apply an AC voltage to the vibrating unit; and a torque control unit configured to control a holding torque with which the moving unit is held by the vibrating unit, wherein the torque control unit is configured to output, to the vibrating unit, a holding torque control signal including a forward traveling wave signal and a reverse traveling wave signal appearing alternately in a time interval in which substantially no rotation occurs on the moving unit due to the forward traveling wave signal and the reverse traveling wave signal being output sequentially.
Use of microfibrillated cellulose (MFC) as an anti-wrinkle-agent on human skin, wherein the average MFC fibril length is from 100 nm to 50 μm.
Method for producing a photovoltaic cell, including the steps of: a) providing a structure comprising: - a substrate based on crystalline silicon, having a first surface and an opposite second surface ; - a layer based on alumina , formed on the first surface of the substrate and having a thickness strictly below 20 nm; - a first dielectric layer based on a silicon oxynitride SiO x N y , satisfying 0≤y<x, comprising boron atoms and formed on the alumina-based layer ; - a second dielectric layer comprising phosphorus or arsenic atoms, formed on the second surface of the substrate ; b) applying a heat treatment to the structure so as to: - diffuse the boron atoms from the first dielectric layer to underneath the first surface of the substrate so as to form a first doped semiconductor region intended to make contact with an electrode (E); - diffuse the phosphorus or arsenic atoms from the second dielectric layer to underneath the second surface of the substrate so as to form a second doped semiconductor region intended to make contact with an electrode (E). a) providing a structure comprising: - a substrate based on crystalline silicon, having a first surface and an opposite second surface ; - a layer based on alumina , formed on the first surface of the substrate and having a thickness strictly below 20 nm; - a first dielectric layer based on a silicon oxynitride SiO x N y , satisfying 0≤y<x, comprising boron atoms and formed on the alumina-based layer ; - a second dielectric layer comprising phosphorus or arsenic atoms, formed on the second surface of the substrate ; - a substrate based on crystalline silicon, having a first surface and an opposite second surface ; - a layer based on alumina , formed on the first surface of the substrate and having a thickness strictly below 20 nm; - a first dielectric layer based on a silicon oxynitride SiO x N y , satisfying 0≤y<x, comprising boron atoms and formed on the alumina-based layer ; - a second dielectric layer comprising phosphorus or arsenic atoms, formed on the second surface of the substrate ; b) applying a heat treatment to the structure so as to: - diffuse the boron atoms from the first dielectric layer to underneath the first surface of the substrate so as to form a first doped semiconductor region intended to make contact with an electrode (E); - diffuse the phosphorus or arsenic atoms from the second dielectric layer to underneath the second surface of the substrate so as to form a second doped semiconductor region intended to make contact with an electrode (E). - diffuse the boron atoms from the first dielectric layer to underneath the first surface of the substrate so as to form a first doped semiconductor region intended to make contact with an electrode (E); - diffuse the phosphorus or arsenic atoms from the second dielectric layer to underneath the second surface of the substrate so as to form a second doped semiconductor region intended to make contact with an electrode (E).
A ceramic, comprising: a zirconia matrix; and an additive, the additive being dispersed inside and on an outer surface of the zirconia matrix, and the additive being one of Sr 1 La 0.5 Mn 1 O 3 , Ca 1.5 Y 0.5 Co 0.5 O 3 , or Sr 1 Ba 0.5 Fe 0.5 Mn 0.5 O 3 . a zirconia matrix; and an additive, the additive being dispersed inside and on an outer surface of the zirconia matrix, and the additive being one of Sr 1 La 0.5 Mn 1 O 3 , Ca 1.5 Y 0.5 Co 0.5 O 3 , or Sr 1 Ba 0.5 Fe 0.5 Mn 0.5 O 3 .
Method of joining a pin member of a first component to a second component with a cavity by means of an adhesive in order to fasten the pin in a target position extending at least partially into the cavity with a distance (D) between the bottom surface of the cavity and the facing end of the pin , characterised in that the method comprises at least the following steps: - positioning the pin to the target position, - determining the distance (D) between the bottom surface of the cavity and the facing end of the pin in the target position, - removing the pin out of the cavity , - applying a rigid spacer on the bottom surface of the cavity , wherein the thickness of the rigid spacer equals the distance (D) between the bottom surface of the cavity and the facing end of the pin in the target position, - filling the adhesive into the cavity onto the rigid spacer , - repositioning the pin to the target position, - curing the adhesive and obtaining a joint between the pin and the second component . - positioning the pin to the target position, - determining the distance (D) between the bottom surface of the cavity and the facing end of the pin in the target position, - removing the pin out of the cavity , - applying a rigid spacer on the bottom surface of the cavity , wherein the thickness of the rigid spacer equals the distance (D) between the bottom surface of the cavity and the facing end of the pin in the target position, - filling the adhesive into the cavity onto the rigid spacer , - repositioning the pin to the target position, - curing the adhesive and obtaining a joint between the pin and the second component .
A method for transmitting system information, comprising a terminal device determining time-frequency resources for receiving n groups of system information, wherein an i-th group of system information in the n groups of system information occupies continuous system information time-domain resources in a time domain, and system information frequency-domain resources occupied by system information in the i-th group of system information are different from each other in respective time-domain resources, and the i-th group of system information comprises k pieces of system information, where n is a positive integer, k is a positive integer , and i is a positive integer less than or equal to n; the terminal device receiving the n groups of system information sent by a network device on the time-frequency resources, wherein the system information in the i-th group of system information occupies continuous system information frequency-domain resources, and wherein n groups of system information are mapped to time-domain resources and frequency-domain resources in a cyclically shifted manner. a terminal device determining time-frequency resources for receiving n groups of system information, wherein an i-th group of system information in the n groups of system information occupies continuous system information time-domain resources in a time domain, and system information frequency-domain resources occupied by system information in the i-th group of system information are different from each other in respective time-domain resources, and the i-th group of system information comprises k pieces of system information, where n is a positive integer, k is a positive integer , and i is a positive integer less than or equal to n; the terminal device receiving the n groups of system information sent by a network device on the time-frequency resources, wherein the system information in the i-th group of system information occupies continuous system information frequency-domain resources, and wherein n groups of system information are mapped to time-domain resources and frequency-domain resources in a cyclically shifted manner.
Support (1 comprising a fastening device which is suitable to be joined by means of a base to at least one piece to be treated in a vibrating tank (31; 41), said fastening device being connected through at least one elastic member to at least one joint , said joint being suitable to be fixed to a vibrating body , wherein the elastic member extends along a longitudinal axis (L), so that the elastic member can flex and/or twist if the joint is vibrated, characterized in that the fastening device comprises at least one articulation , suitable to rotate the piece around a first axis (A1) and to lock it in a desired position, and at least one counterweight which projects along an axis (A2), wherein the first axis (A1) of rotation of the articulation and the second axis (A2) of the counterweight are substantially perpendicular to the longitudinal axis (L) of the elastic member , wherein said counterweight protrudes from said support along said second axis (A2) and comprises an arm a position of which can be modified and adapted to move the center of gravity of the fastening device so as to modify a position of the second axis (A2) with respect to the piece , wherein by acting on jaws arranged at an end of the arm opposite to the counterweight the second axis (A2) can be rotated in various positions lying on a plane parallel to the first axis (A1).
A method of processing geophysical data, the method comprising the acts of: matching a first set of data from a monitor survey with a second set of data from a baseline survey , wherein the first and second sets of data comprise common mid-point positions, CMPs, between sources and receivers ; generating an attribute value for each datum in the first set , wherein the attribute value comprises a repeatability metric; storing each attribute value with each of said datum ; and processing the first set of data based on the stored attribute values ; characterised in that said repeatability metric is Dsrc + Drx, wherein Dsrc is a difference in source positions between a baseline survey CMP and a monitor survey CMP and Drx is a difference in receiver positions between the baseline survey CMP and the monitor survey CMP, each of which has radial, inline and crossline components. matching a first set of data from a monitor survey with a second set of data from a baseline survey , wherein the first and second sets of data comprise common mid-point positions, CMPs, between sources and receivers ; generating an attribute value for each datum in the first set , wherein the attribute value comprises a repeatability metric; storing each attribute value with each of said datum ; and processing the first set of data based on the stored attribute values ; characterised in that said repeatability metric is Dsrc + Drx, wherein Dsrc is a difference in source positions between a baseline survey CMP and a monitor survey CMP and Drx is a difference in receiver positions between the baseline survey CMP and the monitor survey CMP, each of which has radial, inline and crossline components.
An isolated anti-PD-1 antibody, which is a full-length IgG4, comprising: (i) a heavy chain variable region (V H ) that comprises, or consists of, the amino acid sequence of and (ii) a light chain variable region (V L ) that comprises, or consists of, the amino acid sequence of (i) a heavy chain variable region (V H ) that comprises, or consists of, the amino acid sequence of and (ii) a light chain variable region (V L ) that comprises, or consists of, the amino acid sequence of
An absorbent article, comprising: a. a fluid permeable topsheet; b. a backsheet; and c. an absorbent element disposed between the topsheet and the backsheet, wherein the absorbent element comprises two or more layers wherein an upper layer is positioned closer to the topsheet and a lower layer is positioned closer to the backsheet, and wherein the upper layer is a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements, and one or more discrete open-cell foam pieces, wherein said enrobeable elements are fibers, preferably synthetic fibers, and wherein one or more of said discrete open-cell foam pieces enrobe said enrobeable elements, wherein the lower layer comprises of a substrate comprising superabsorbent polymer particles, and the superabsorbent polymer particles are disposed on the substrate layer, preferably a nonwoven substrate layer; d. wherein the absorbent article has a caliper expansion measured at five minutes according to the dynamic caliper expansion test described herein; e. wherein the absorbent article has a dry peak stiffness measured according to the bunch compression test described herein; and f. wherein a ratio of the caliper expansion to the dry peak stiffness is at least 0.5%/N. a. a fluid permeable topsheet; b. a backsheet; and c. an absorbent element disposed between the topsheet and the backsheet, wherein the absorbent element comprises two or more layers wherein an upper layer is positioned closer to the topsheet and a lower layer is positioned closer to the backsheet, and wherein the upper layer is a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements, and one or more discrete open-cell foam pieces, wherein said enrobeable elements are fibers, preferably synthetic fibers, and wherein one or more of said discrete open-cell foam pieces enrobe said enrobeable elements, wherein the lower layer comprises of a substrate comprising superabsorbent polymer particles, and the superabsorbent polymer particles are disposed on the substrate layer, preferably a nonwoven substrate layer; wherein the upper layer is a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements, and one or more discrete open-cell foam pieces, wherein said enrobeable elements are fibers, preferably synthetic fibers, and wherein one or more of said discrete open-cell foam pieces enrobe said enrobeable elements, wherein the lower layer comprises of a substrate comprising superabsorbent polymer particles, and the superabsorbent polymer particles are disposed on the substrate layer, preferably a nonwoven substrate layer; d. wherein the absorbent article has a caliper expansion measured at five minutes according to the dynamic caliper expansion test described herein; e. wherein the absorbent article has a dry peak stiffness measured according to the bunch compression test described herein; and f. wherein a ratio of the caliper expansion to the dry peak stiffness is at least 0.5%/N.
A method of measuring one or more conditions within a predetermined area comprising: transmitting light comprising multiple wavelengths from at least one light source along a fiber optic cable to a node at a termination point of the fiber optic cable, the node located to measure the one or more conditions, wherein the multiple wavelengths from the light source simultaneously detect smoke as well as volatile organic compounds, whereby a first wavelength is used to detect smoke, while a second wavelength is used to detect volatile organic compounds; receiving scattered light from the node; communicating the scattered light to a light sensitive device; converting the scattered light to an electrical signal at the light sensitive device and transmitting the electrical signal to a control system; and at the control system, analyzing the electrical signal from the light sensitive device associated with scattered light from the node sensed by the light sensitive device by comparing multiple wavelengths of scattered light to determine at least one of a presence and magnitude of the one or more conditions at the node, wherein the multiple wavelengths are compared to determine the presence of respective materials of multiple possible materials in the predetermined area; and wherein the scattered light is light which has, relative to the incident light, undergone any change in amplitude, intensity or direction, including reflection, refraction, diffraction, absorption, and scattering in any or all directions. transmitting light comprising multiple wavelengths from at least one light source along a fiber optic cable to a node at a termination point of the fiber optic cable, the node located to measure the one or more conditions, wherein the multiple wavelengths from the light source simultaneously detect smoke as well as volatile organic compounds, whereby a first wavelength is used to detect smoke, while a second wavelength is used to detect volatile organic compounds; receiving scattered light from the node; communicating the scattered light to a light sensitive device; converting the scattered light to an electrical signal at the light sensitive device and transmitting the electrical signal to a control system; and communicating the scattered light to a light sensitive device; converting the scattered light to an electrical signal at the light sensitive device and transmitting the electrical signal to a control system; and at the control system, analyzing the electrical signal from the light sensitive device associated with scattered light from the node sensed by the light sensitive device by comparing multiple wavelengths of scattered light to determine at least one of a presence and magnitude of the one or more conditions at the node, wherein the multiple wavelengths are compared to determine the presence of respective materials of multiple possible materials in the predetermined area; and wherein the scattered light is light which has, relative to the incident light, undergone any change in amplitude, intensity or direction, including reflection, refraction, diffraction, absorption, and scattering in any or all directions.