mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transferring a transfer layer , in particular a graphene layer, from a substrate , in particular from a growth substrate , onto a carrier substrate , characterised in that the transfer takes place by an electromagnetic force (F), characterised in that - the transfer layer and/or the substrate is charged with negative charge carriers , - the carrier substrate is charged with ions , wherein the ions are charged opposite to the negative charge carriers , - the force (F) between the transfer layer and/or the substrate and the carrier substrate arises due to the differently charged ions and the negative charge carriers . - the transfer layer and/or the substrate is charged with negative charge carriers , - the carrier substrate is charged with ions , wherein the ions are charged opposite to the negative charge carriers , - the force (F) between the transfer layer and/or the substrate and the carrier substrate arises due to the differently charged ions and the negative charge carriers .
A device for handling the edge of a ribbon of glass in viscous form being displaced on a liquid bath in a float chamber, comprising firstly a wheel , installed at the distal end of a barrel , characterized in that the wheel can rotate around its own axis, and is fitted such that this axis of rotation around itself coincides with the longitudinal geometric axis of the barrel, and forms together with the latter a permanent fixed angle other than zero, which can not be modified by regulation, and the value of which is determined by design, said value being between 5 and 30°, and also comprising a means for generation of the movement of rotation of the wheel.
A method to prepare a well cementing slurry, comprising: coating particles of an expanding agent with a phenolic resin; comprising: contacting the expanding agent particles with a phenolic monomer and an aldehyde; and polymerizing the phenolic monomer and the aldehyde to form a layer of the phenolic resin coating; and combining the coated particles with mix water and hydraulic cement to form a cement slurry for cementing a well. coating particles of an expanding agent with a phenolic resin; comprising: contacting the expanding agent particles with a phenolic monomer and an aldehyde; and polymerizing the phenolic monomer and the aldehyde to form a layer of the phenolic resin coating; and contacting the expanding agent particles with a phenolic monomer and an aldehyde; and polymerizing the phenolic monomer and the aldehyde to form a layer of the phenolic resin coating; and combining the coated particles with mix water and hydraulic cement to form a cement slurry for cementing a well.
Method for integrating a heat pipe to a plate intended to form an electrical contact within one or more electrical devices, the process comprising: a) a step of forming a groove , delimited by a contact surface , on a main face of a metal plate ; b) a step of positioning a first section of a tube of heat pipe , of diameter D, in the groove , the first section extending from a first end of said tube and is delimited by a first surface ; c) a step of bending the plate so as to close the groove and thus enclose the first section in said groove , the bending being furthermore executed such that the contact surface is entirely in contact with the first surface , advantageously, step c) is executed such that during bending, the two lateral edges of the groove deform and crimp the first section . a) a step of forming a groove , delimited by a contact surface , on a main face of a metal plate ; b) a step of positioning a first section of a tube of heat pipe , of diameter D, in the groove , the first section extending from a first end of said tube and is delimited by a first surface ; c) a step of bending the plate so as to close the groove and thus enclose the first section in said groove , the bending being furthermore executed such that the contact surface is entirely in contact with the first surface , advantageously, step c) is executed such that during bending, the two lateral edges of the groove deform and crimp the first section .
A suction-type gripping device (1; 1*; 100), comprising: - a suction-cup ; - a plurality of pins , which are axially movable with respect to said suction-cup and have a first end that face the inside thereof; - a guide matrix (6; 6*) comprising a first arrangement of holes , each housing a respective pin of said plurality in an axially slidable way, said suction-cup being coupled to said guide matrix (6; 6*) ; - a first chamber within which a piston is mounted axially mobile, and wherein said first chamber can be supplied by means of a first supply port (F1) for axial movement of said piston ; - a second chamber provided within said piston , said piston including a second arrangement of holes , each housing a respective pin of said plurality in an axially slidable way, so that said second chamber receives second ends of the pins , wherein said second chamber is configured to be supplied by means of a second supply port (F2) for axial movement of said pins ; and - a locking assembly (16; 16*) set between said guide matrix (6; 6*) and said piston , said locking assembly (16; 16*) being traversed by said pins and being configured for exerting an action of radial constriction on them in response to an axial deformation imparted by means of said piston , and wherein moreover said suction-cup is in fluid communication with a suction port (S1), which is configured for the connection to a negative-pressure source. - a suction-cup ; - a plurality of pins , which are axially movable with respect to said suction-cup and have a first end that face the inside thereof; - a guide matrix (6; 6*) comprising a first arrangement of holes , each housing a respective pin of said plurality in an axially slidable way, said suction-cup being coupled to said guide matrix (6; 6*) ; - a first chamber within which a piston is mounted axially mobile, and wherein said first chamber can be supplied by means of a first supply port (F1) for axial movement of said piston ; - a second chamber provided within said piston , said piston including a second arrangement of holes , each housing a respective pin of said plurality in an axially slidable way, so that said second chamber receives second ends of the pins , wherein said second chamber is configured to be supplied by means of a second supply port (F2) for axial movement of said pins ; and - a locking assembly (16; 16*) set between said guide matrix (6; 6*) and said piston , said locking assembly (16; 16*) being traversed by said pins and being configured for exerting an action of radial constriction on them in response to an axial deformation imparted by means of said piston ,
Container comprising a tank and a lid movable between an open position and a closed position, said lid comprising a lower edge lying substantially in a plane (P) and intended to come into contact with an upper flange of the tank when said lid is in the closed position, characterised in that the lid comprises at least one flexible tab extending from the wall of the lid between two notches formed from the lower edge of the lid , and comprising a contact line parallel to the lower edge of the lid , intended to rest on the flange and arranged at a given distance (d) below the plane (P) containing the lower edge of the lid .
A heat exchanger comprising: - a plurality of tubular fluid channels each having: - an external tubular diameter or equivalent diameter; - two openings into the interior of the tubular fluid channel, said openings being arranged at distant end positions of the fluid channel; wherein - each of the plurality of tubular fluid channels are formed as a coil , such as a helical coil , over at least a part of their lengths, each coil being provided as a plurality of windings each of said coils evolving with a centre path ; - the coils of the plurality of tubular fluid channels are intertwined around one another with the centre path of each coil being distant from the centre path of the other coils , and each of the centre paths forms a helix, and characterized in that - in a transverse cross section of the heat exchanger , a planar representation of a winding of a first of said coils overlaps a planar representation of a winding of each of the other said coils of said plurality of tubular fluid channels . - a plurality of tubular fluid channels each having: - an external tubular diameter or equivalent diameter; - two openings into the interior of the tubular fluid channel, said openings being arranged at distant end positions of the fluid channel; wherein - an external tubular diameter or equivalent diameter; - two openings into the interior of the tubular fluid channel, said openings being arranged at distant end positions of the fluid channel; wherein - each of the plurality of tubular fluid channels are formed as a coil , such as a helical coil , over at least a part of their lengths, each coil being provided as a plurality of windings each of said coils evolving with a centre path ; - the coils of the plurality of tubular fluid channels are intertwined around one another with the centre path of each coil being distant from the centre path of the other coils , and each of the centre paths forms a helix, and characterized in that - in a transverse cross section of the heat exchanger , a planar representation of a winding of a first of said coils overlaps a planar representation of a winding of each of the other said coils of said plurality of tubular fluid channels .
A method for joining rotor blade segments of a rotor blade , the method comprising: placing at least one inflatable internal bladder at least partially within at least one of a first blade segment or a second blade segment ; arranging a first joint end of the first blade segment with a second joint end of the second blade segment at a joint , each of the first and second joint ends comprising at least one thermoplastic material ; arranging the first and second joints ends in an end-to-end orientation with the at least one thermoplastic material of each of the first and second joint ends contacting each other; inflating the at least one internal bladder so as to provide an internal pressure at the joint from within the first and second blade segments ; and, applying heat to the thermoplastic materials at the first and second joint ends so as to join the first and second rotor blade segments ; characterized in that the internal bladder remains in place after the first and second joint ends are joined. placing at least one inflatable internal bladder at least partially within at least one of a first blade segment or a second blade segment ; arranging a first joint end of the first blade segment with a second joint end of the second blade segment at a joint , each of the first and second joint ends comprising at least one thermoplastic material ; arranging the first and second joints ends in an end-to-end orientation with the at least one thermoplastic material of each of the first and second joint ends contacting each other; inflating the at least one internal bladder so as to provide an internal pressure at the joint from within the first and second blade segments ; and, applying heat to the thermoplastic materials at the first and second joint ends so as to join the first and second rotor blade segments ; characterized in that the internal bladder remains in place after the first and second joint ends are joined.
A mobile terminal for communicating data with a mobile communications network, the mobile communications network including base stations and a radio network controller , the radio network controller using an active set of base stations for controlling communication from the mobile terminal to the base stations , the active set of base stations including a first type of base station for up-link high speed packet communications and a second type of base station for up-link communications, the mobile terminal being arranged in operation, to generate a measure of communications quality with respect to a first base station included in the first type of base station of the active set and a measure of communications quality with respect to a second base station included in the second type of base station of the active set of base stations , to compare the number of the first type of base station in the active set with respect to a predetermined number, to compare the measure of communications quality with respect to the first base station with the measure of communications quality with respect to the second base station , and consequent upon the comparison of the measure of communications quality and consequent upon the comparison with the predetermined number of base stations of the first type in the active set, to generate a notification of an event to delete the first base station included in the first type of base station of the active set and to add the second base station to the first type of base station of the active set, when the comparison indicates that the measure of communications quality with respect to the second base station is better than the measure of communications quality with respect to the first base station , and to transmit the notification to the radio network controller of the mobile communications network for applying the event to the active set.
An aerosol generator , comprising: a housing ; a storage chamber formed in the housing and configured for storing an aerosol forming substance; a heating device disposed in the housing and configured to heat the aerosol forming substance to generate aerosol; and an aerosol discharging channel configured for discharging aerosol generated by the aerosol forming substance to the outside of the housing ; wherein the heating device comprises a quartz glass body and a heating element , the heating element is encapsulated inside the quartz glass body , and the heating element is capable of generating thermal radiation and infrared radiation outwardly through the quartz glass body to heat the aerosol forming substance; characterized in that an expansion chamber is formed inside the quartz glass body during the encapsulating process, and a pressure discharging hole is provided in the quartz glass body to allow the expansion chamber to communicate with the outside. a housing ; a storage chamber formed in the housing and configured for storing an aerosol forming substance; a heating device disposed in the housing and configured to heat the aerosol forming substance to generate aerosol; and an aerosol discharging channel configured for discharging aerosol generated by the aerosol forming substance to the outside of the housing ; wherein the heating device comprises a quartz glass body and a heating element , the heating element is encapsulated inside the quartz glass body , and the heating element is capable of generating thermal radiation and infrared radiation outwardly through the quartz glass body to heat the aerosol forming substance; characterized in that an expansion chamber is formed inside the quartz glass body during the encapsulating process, and a pressure discharging hole is provided in the quartz glass body to allow the expansion chamber to communicate with the outside.
A device, comprising: a patellar plate body formed from a monolithic material and comprising a central portion and a peripheral portion at least partially surrounding the central portion, the central portion including a plurality of plate attachment holes disposed therein, the peripheral portion comprising a plurality of tabs , each tab coupled to the central portion via a connector portion , each tab being selectively detachable from the patellar plate body, wherein the patellar plate body is sized in at least a horizontal and a vertical direction to fit a patella , and wherein the connector portion has a thickness that is less than 80% of a plate thickness of the patellar plate body. a patellar plate body formed from a monolithic material and comprising a central portion and a peripheral portion at least partially surrounding the central portion, the central portion including a plurality of plate attachment holes disposed therein, the peripheral portion comprising a plurality of tabs , each tab coupled to the central portion via a connector portion , each tab being selectively detachable from the patellar plate body, wherein the patellar plate body is sized in at least a horizontal and a vertical direction to fit a patella , and wherein the connector portion has a thickness that is less than 80% of a plate thickness of the patellar plate body.
System for at least supporting a treatment of a person, comprising a base platform for receiving a foot or feet of said person, wherein said base platform comprises at least one upper surface which defines a substantially flat reference plane, and at least one fill element , characterized in that said at least one fill element is displaceable between a first position and a second position, in which second position an upper surface of said at least one fill element extends above said reference plane with an adjustable distance, such that said at least one fill element fills a space between said reference plane and a lower side of a or each foot of said person.
Device for subsequent thermally insulating, force-transmitting connection of a second load-absorbing structure part to a first load-absorbing structure part , in particular of a balcony slab to a building ceiling, wherein the device has an insulation body for arrangement in a separating joint between the first structure part and the second structure part and also has tensile-force-transmitting means, compressive-force-transmitting means and transverse-force-transmitting means, wherein the insulation body has a first longitudinal side , which is intended for arrangement on the first structure part , and an oppositely situated second longitudinal side , wherein the insulation body has a longitudinal direction , a transverse direction , which extends perpendicularly to the longitudinal direction and from the first longitudinal side to the second longitudinal side , and a vertical direction , which extends perpendicularly to the longitudinal direction and perpendicularly to the transverse direction , wherein the compressive-force-transmitting means comprise an abutment surface , which is accessible from the second longitudinal side and serves for absorbing horizontal compressive forces of the second structure part , and at least one compressive-force element, which extends at least to the first longitudinal side and is connected in a force-transmitting manner to the abutment surface , wherein the transverse-force-transmitting means comprise a bearing surface , which is accessible from the second longitudinal side and serves for absorbing vertically directed forces of the second structure part , and at least one transverse-force bar , which is connected in a force-transmitting manner to the bearing surface , wherein the abutment surface is formed on a first limb , and the bearing surface is formed on a second limb , of a bearing bracket , wherein the first limb and the second limb of the bearing bracket are connected via at least one side piece which is arranged transversely to the longitudinal direction , wherein the transverse-force bar has an inclined portion which runs obliquely to the vertical direction , characterized in that the at least one transverse-force bar is fixed directly to the side piece by means of its portion that runs in an inclined manner.
A method for making at least one tandem photovoltaic cell , wherein a first sub-cell of the tandem photovoltaic cell is made by applying the following steps: - making a first oxide layer on at least a first surface of a semiconductor substrate ; - making a p-doped polycrystalline semiconductor layer on the first oxide layer ; - annealing in an oxidizing atmosphere, diffusing and activating the dopants present in the polycrystalline semiconductor layer , and forming at least a second semiconductor oxide layer on the polycrystalline semiconductor layer ; - making, at least on the second semiconductor oxide layer , a first doping layer including n-type dopants, diffusing n-type dopants from the first doping layer into a first portion of the polycrystalline semiconductor layer , through the second semiconductor oxide layer , the first portion of the polycrystalline semiconductor layer being arranged between a second portion of the polycrystalline semiconductor layer into which the n-type dopants have not diffused and the second semiconductor oxide layer ; - removing the first dopant layer and the second semiconductor oxide layer ; and then comprising making a second sub-cell of the tandem photovoltaic cell on the first portion of the polycrystalline semiconductor layer . - making a first oxide layer on at least a first surface of a semiconductor substrate ; - making a p-doped polycrystalline semiconductor layer on the first oxide layer ; - annealing in an oxidizing atmosphere, diffusing and activating the dopants present in the polycrystalline semiconductor layer , and forming at least a second semiconductor oxide layer on the polycrystalline semiconductor layer ; - making, at least on the second semiconductor oxide layer , a first doping layer including n-type dopants, diffusing n-type dopants from the first doping layer into a first portion of the polycrystalline semiconductor layer , through the second semiconductor oxide layer , the first portion of the polycrystalline semiconductor layer being arranged between a second portion of the polycrystalline semiconductor layer into which the n-type dopants have not diffused and the second semiconductor oxide layer ; - removing the first dopant layer and the second semiconductor oxide layer ;