mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacture of a tip part for an endoscope , said method comprising the steps of: - providing a camera assembly with an image sensor , a lens barrel positioned at a distal end of the camera assembly , and a circuit board positioned at a proximal end of the camera assembly , - providing an exterior housing comprising a circumferential wall enclosing a spacing , the exterior housing further comprising a distal end wall , the distal end wall being integral with the circumferential wall and having an opening , - inserting the lens barrel of the camera assembly in the spacing of the exterior housing so that a distal end of the lens barrel extends into the opening , and so that an axially extending adhesive spacing is provided between the opening and the lens barrel along a circumference of the lens barrel , a radial extent of the adhesive spacing gradually being reduced in a direction towards the spacing of the exterior housing , wherein a proximal end of the adhesive spacing terminates in the spacing of the exterior housing , - injecting an adhesive into the adhesive spacing, - allowing or causing the adhesive to harden so as to adhere the lens barrel to the distal end wall of the exterior housing . - providing a camera assembly with an image sensor , a lens barrel positioned at a distal end of the camera assembly , and a circuit board positioned at a proximal end of the camera assembly , - providing an exterior housing comprising a circumferential wall enclosing a spacing , the exterior housing further comprising a distal end wall , the distal end wall being integral with the circumferential wall and having an opening , - inserting the lens barrel of the camera assembly in the spacing of the exterior housing so that a distal end of the lens barrel extends into the opening , and so that an axially extending adhesive spacing is provided between the opening and the lens barrel along a circumference of the lens barrel , a radial extent of the adhesive spacing gradually being reduced in a direction towards the spacing of the exterior housing , wherein a proximal end of the adhesive spacing terminates in the spacing of the exterior housing , - injecting an adhesive into the adhesive spacing, - allowing or causing the adhesive to harden so as to adhere the lens barrel to the distal end wall of the exterior housing .
An elevator sill assembly , comprising: a sill plate ; at least one support arm secured to the sill plate ; a mounting bracket configured to be mounted to an elevator car , the at least one support arm being supported on the mounting bracket to allow the at least one support arm to pivot relative to the mounting bracket ; and at least one linear actuator having a moving portion that is configured to move in a vertical direction, thereby causing the at least one support arm to pivot relative to the mounting bracket to thereby cause the sill plate to pivot from a stored position to an actuated position; and characterized in that said moving portion of said at least one linear actuator is configured to move in a vertical direction downward as an elevator car door approaches a fully open position, and in that the elevator sill assembly further comprises: a stop member in the form of a pin or rod supported on the mounting bracket ; wherein the stop member limits an amount of movement of the at least one support arm to control the position of the sill plate in the actuated position. a sill plate ; at least one support arm secured to the sill plate ; a mounting bracket configured to be mounted to an elevator car , the at least one support arm being supported on the mounting bracket to allow the at least one support arm to pivot relative to the mounting bracket ; and at least one linear actuator having a moving portion that is configured to move in a vertical direction, thereby causing the at least one support arm to pivot relative to the mounting bracket to thereby cause the sill plate to pivot from a stored position to an actuated position; and characterized in that said moving portion of said at least one linear actuator is configured to move in a vertical direction downward as an elevator car door approaches a fully open position, and in that the elevator sill assembly further comprises: a stop member in the form of a pin or rod supported on the mounting bracket ; wherein the stop member limits an amount of movement of the at least one support arm to control the position of the sill plate in the actuated position. a stop member in the form of a pin or rod supported on the mounting bracket ; wherein the stop member limits an amount of movement of the at least one support arm to control the position of the sill plate in the actuated position.
An optical waveguide body , comprising: a first surface that extends between an input surface and an end surface ; a second surface opposite the first surface wherein a body thickness is disposed between the first and second surfaces ; and a plurality of extraction features on one of the first and second surfaces ; wherein the optical waveguide body is curved and comprises a plurality of inflection regions, characterised in that the body thickness at the input surface is greater than the body thickness at the end surface , with the body thickness between the input surface and the end surface decreasing over a length of the body; and in that the plurality of extraction features comprises a plurality of stepped features . a first surface that extends between an input surface and an end surface ; a second surface opposite the first surface wherein a body thickness is disposed between the first and second surfaces ; and a plurality of extraction features on one of the first and second surfaces ; wherein the optical waveguide body is curved and comprises a plurality of inflection regions, characterised in that the body thickness at the input surface is greater than the body thickness at the end surface , with the body thickness between the input surface and the end surface decreasing over a length of the body; and in that the plurality of extraction features comprises a plurality of stepped features .
A printed circuit board , comprising: a substrate having a top surface and a bottom surface ; a first conductive layer disposed on the top surface of the substrate, wherein the first conductive layer comprises a first signal net and a second signal net ; a third conductive layer disposed on the bottom surface of the substrate, wherein the third conductive layer comprises a third signal net and a fourth signal net , wherein the fourth signal net is separated by the third signal net and a gap , and wherein the first signal net is electrically connected to the third signal net through a first via hole formed in the substrate and the second signal net is electrically connected to the fourth signal net through a second via hole formed in the substrate ; characterized by a first outermost insulating layer disposed on the bottom surface of the substrate to cover the substrate and the third conductive layer, wherein the first outermost insulating layer comprises an opening to expose a portion of the fourth signal net ; and a fourth conductive layer disposed on the first outermost insulating layer and substantially covering at least a portion of the third signal net , wherein the fourth conductive layer is filled into the opening to electrically connect to the fourth signal net which is able to provide one of a ground potential and a power potential. a substrate having a top surface and a bottom surface ; a first conductive layer disposed on the top surface of the substrate, wherein the first conductive layer comprises a first signal net and a second signal net ; a third conductive layer disposed on the bottom surface of the substrate, wherein the third conductive layer comprises a third signal net and a fourth signal net , wherein the fourth signal net is separated by the third signal net and a gap , and wherein the first signal net is electrically connected to the third signal net through a first via hole formed in the substrate and the second signal net is electrically connected to the fourth signal net through a second via hole formed in the substrate ; characterized by a first outermost insulating layer disposed on the bottom surface of the substrate to cover the substrate and the third conductive layer, wherein the first outermost insulating layer comprises an opening to expose a portion of the fourth signal net ; and a fourth conductive layer disposed on the first outermost insulating layer and substantially covering at least a portion of the third signal net , wherein the fourth conductive layer is filled into the opening to electrically connect to the fourth signal net which is able to provide one of a ground potential and a power potential.
A method for controlling an intelligent wearable device, comprising generating (S201), by a terminal device, a first power-off instruction, wherein the first power-off instruction is used to instruct the terminal device to power off; and before the terminal device powers off, generating (S203), by the terminal device, a second power-off instruction and sending the second power-off instruction to the intelligent wearable device associated with the terminal device, wherein the second power-off instruction is used to instruct the intelligent wearable device to power off or disable a short-range wireless communications module of the intelligent wearable device, wherein the short-range wireless communications module connects to and communicates with the terminal device by means of short-range wireless communication; characterized in that the generating, by the terminal device, a second power-off instruction specifically comprises: determining, by the terminal device, whether generation of the first power-off instruction is triggered by a restart of an operating system of the terminal device; and generating, by the terminal device, the second power-off instruction if the generation of the first power-off instruction is not triggered by the restart of the operating system of the terminal device. generating (S201), by a terminal device, a first power-off instruction, wherein the first power-off instruction is used to instruct the terminal device to power off; and before the terminal device powers off, generating (S203), by the terminal device, a second power-off instruction and sending the second power-off instruction to the intelligent wearable device associated with the terminal device, wherein the second power-off instruction is used to instruct the intelligent wearable device to power off or disable a short-range wireless communications module of the intelligent wearable device, wherein the short-range wireless communications module connects to and communicates with the terminal device by means of short-range wireless communication; characterized in that the generating, by the terminal device, a second power-off instruction specifically comprises: determining, by the terminal device, whether generation of the first power-off instruction is triggered by a restart of an operating system of the terminal device; and generating, by the terminal device, the second power-off instruction if the generation of the first power-off instruction is not triggered by the restart of the operating system of the terminal device. determining, by the terminal device, whether generation of the first power-off instruction is triggered by a restart of an operating system of the terminal device; and generating, by the terminal device, the second power-off instruction if the generation of the first power-off instruction is not triggered by the restart of the operating system of the terminal device.
A train integrity detection device based on an RFID technology, the device comprising RFID electronic tags mounted to a head carriage and to a tail carriage of a train subject to train integrity detection, the train including a locomotive, RFID readers and a train integrity detection system, wherein the RFID readers are mounted on a ground track or trackside and are configured to read the RFID electronic tags at the head carriage and tail carriage of a train, and then send read information to a train integrity detection system of the locomotive by means of communication units of the RFID readers; and the train integrity detection system is configured to calculate the train's length according to stored train head and tail carriages data corresponding to the RFID electronic tags, an interval time defined by reading the RFID electronic tags at the head carriage and tail carriage of the train, and the current speed and displacement of the train, so as to calculate the integrity of the train. the RFID readers are mounted on a ground track or trackside and are configured to read the RFID electronic tags at the head carriage and tail carriage of a train, and then send read information to a train integrity detection system of the locomotive by means of communication units of the RFID readers; and the train integrity detection system is configured to calculate the train's length according to stored train head and tail carriages data corresponding to the RFID electronic tags, an interval time defined by reading the RFID electronic tags at the head carriage and tail carriage of the train, and the current speed and displacement of the train, so as to calculate the integrity of the train.
Non-enzymatic method for preparing therapeutic cells from adipose tissue comprising: continuously feeding the adipose tissue to a milling device ; continuous controlled processing of the adipose tissue inside the milling device by mechanically separating the cells or cell aggregates from adipose tissue moving through the milling device by means of a multiplicity of blades , wherein the blades are arranged in a spaced arrangement with respect to the overall direction of flow and the blades are moving about an axis of rotation , wherein the axis of rotation is provided essentially parallel to said overall direction of flow; continuously withdrawing the processed tissue comprising the separated cells from the milling device . continuously feeding the adipose tissue to a milling device ; continuous controlled processing of the adipose tissue inside the milling device by mechanically separating the cells or cell aggregates from adipose tissue moving through the milling device by means of a multiplicity of blades , wherein the blades are arranged in a spaced arrangement with respect to the overall direction of flow and the blades are moving about an axis of rotation , wherein the axis of rotation is provided essentially parallel to said overall direction of flow; continuously withdrawing the processed tissue comprising the separated cells from the milling device .
A method for generating steam comprising: a. providing feedwater having an electrical conductivity of less than 200 μS/cm to an electrode boiler, wherein the electrode boiler has a capacity of at least 5 megawatts (MW); b. converting the feedwater to saturated steam by the electrode boiler, wherein the saturated steam has a pressure in a range from at least 3.5 MPa and up to 14 MPa and a temperature in a range from 240 degrees C and up to 340 degrees C; c. providing the saturated steam as a first fluid to a heat exchange component; d. providing water having an electrical conductivity of more than 200 μS/cm as a second fluid to the heat exchange component; e. heating the second fluid in the heat exchange component through indirect thermal transfer with the saturated steam to generate wet steam having a temperature lower than the temperature of the saturated steam by a range from 2 degrees C and up to 30 degrees C and a pressure in a range from at least 0.5 MPa and up to 13 MPa; f. at least partially condensing the saturated steam in the heat exchange component through indirect thermal transfer with the second fluid to produce a condensed fluid; and h. providing at least a portion of the condensed fluid to the electrode boiler for use as part of the low-conductivity water to generate said saturated steam, wherein at least a portion of the wet steam is provided for injection into a subsurface hydrocarbon formation for hydrocarbon recovery. a. providing feedwater having an electrical conductivity of less than 200 μS/cm to an electrode boiler, wherein the electrode boiler has a capacity of at least 5 megawatts (MW); b. converting the feedwater to saturated steam by the electrode boiler, wherein the saturated steam has a pressure in a range from at least 3.5 MPa and up to 14 MPa and a temperature in a range from 240 degrees C and up to 340 degrees C; c. providing the saturated steam as a first fluid to a heat exchange component; d. providing water having an electrical conductivity of more than 200 μS/cm as a second fluid to the heat exchange component; e. heating the second fluid in the heat exchange component through indirect thermal transfer with the saturated steam to generate wet steam having a temperature lower than the temperature of the saturated steam by a range from 2 degrees C and up to 30 degrees C and a pressure in a range from at least 0.5 MPa and up to 13 MPa; f. at least partially condensing the saturated steam in the heat exchange component through indirect thermal transfer with the second fluid to produce a condensed fluid; and h. providing at least a portion of the condensed fluid to the electrode boiler for use as part of the low-conductivity water to generate said saturated steam,
A hollow polymeric fiber comprising a tetragonal shape sectional area, wherein: - the four corner points form essentially a square, - all four edges are concave or straight, - the fiber has a cross sectional area hollowness ranging from 12 to 25 %, - the fiber has a titer in the range of from 4 to 16 dtex. - the four corner points form essentially a square, - all four edges are concave or straight, - the fiber has a cross sectional area hollowness ranging from 12 to 25 %, - the fiber has a titer in the range of from 4 to 16 dtex.
A label-free method of quantifying a glycosylation profile of a recombinant protein, comprising: (a) releasing one or more N-linked glycans from the recombinant protein by an enzyme prior to analysis; (b) separating the released N-linked glycans using a chromatography column; and (c) measuring the separated N-linked glycans by ELSD, NQAD, refractive index detector, or a charged aerosol detector (CAD). (a) releasing one or more N-linked glycans from the recombinant protein by an enzyme prior to analysis; (b) separating the released N-linked glycans using a chromatography column; and (c) measuring the separated N-linked glycans by ELSD, NQAD, refractive index detector, or a charged aerosol detector (CAD).
A dispenser for dispensing moistened paper (P), comprising: a liquid reservoir ; a deflection roller ; a transfer roller which is partially immersed in the liquid reservoir and has a pinion; wherein the transfer roller is arranged in a first position at a distance from the deflection roller and is pressed against the deflection roller in a second position, characterized in that the dispenser has a drive with a motor , wherein the drive transmits a torque to a gear wheel , and the gear wheel meshes with the pinion of the transmission roller and is arranged such that that, by rotation, it moves or swivels the transfer roller from the first position to the second position and then makes the transfer roller arranged in the second position rotate. a liquid reservoir ; a deflection roller ; a transfer roller which is partially immersed in the liquid reservoir and has a pinion; wherein the transfer roller is arranged in a first position at a distance from the deflection roller and is pressed against the deflection roller in a second position, characterized in that the dispenser has a drive with a motor , wherein the drive transmits a torque to a gear wheel , and the gear wheel meshes with the pinion of the transmission roller and is arranged such that that, by rotation, it moves or swivels the transfer roller from the first position to the second position and then makes the transfer roller arranged in the second position rotate.
An electric cable including at least one wireless transmitter and/or wireless receiver, further including a plurality of transmission and/or reception antennas located on a predetermined electrically insulating layer of said cable , said at least one wireless transmitter and/or wireless receiver communicating by means of at least one antenna of said plurality of antennas , characterized in that each antenna of said plurality of antennas is oriented differently.
A naval platform supporting a wind turbine for offshore electrical energy production, comprising a main support column of said wind turbine , and two secondary columns ; each column comprising at least one shell having an outer surface delimiting an outer volume; the main column being coupled to the two secondary columns , seen from above, the main column being off-centered relative to a geometric center of the platform , the outer volume delimited by the shell of the main column being greater than the respective outer volumes delimited by an outer surface of the shell of each secondary column , characterized in that a cross-section of each shell of the columns having a geometric shape being a rectangle; and in that the shell of at least one secondary column has a rectangular cross-section, the rectangular shape having a larger axis , the larger axis having an offset angle (α2, α3) with a reference line , the reference line being defined as passing through the geometric center of the cross-section of the shell of the main column and as being perpendicular to a reference line passing through the geometric centers of the cross-sections of the shells of the secondary columns , the offset angle (α2, α3) being between 10° and 50°. each column comprising at least one shell having an outer surface delimiting an outer volume; the main column being coupled to the two secondary columns , seen from above, the main column being off-centered relative to a geometric center of the platform , the outer volume delimited by the shell of the main column being greater than the respective outer volumes delimited by an outer surface of the shell of each secondary column , characterized in that a cross-section of each shell of the columns having a geometric shape being a rectangle; and in that the shell of at least one secondary column has a rectangular cross-section, the rectangular shape having a larger axis , the larger axis having an offset angle (α2, α3) with a reference line , the reference line being defined as passing through the geometric center of the cross-section of the shell of the main column and as being perpendicular to a reference line passing through the geometric centers of the cross-sections of the shells of the secondary columns , the offset angle (α2, α3) being between 10° and 50°.
A polymer having a crosslinkable group represented by the following formula : wherein the 1,2-dihydrocyclobuta[a]naplithalene ring may have a substituent and wherein the polymer includes triarylamine structures as partial structures.