mhurhangee/patent-ind-claim-en huggingface dataset:
Flushing arrangement comprising a flush pipe with a flush water section and a bidet water section , which is arranged separately from the flush water section , and a water distributor adjoining the flush pipe , wherein the flush water section has a flush water outlet opening and the bidet water section has a bidet water outlet opening , wherein the water distributor has a bidet water line and guide surfaces for the guided introduction of the flush water into a toilet bowl , and wherein flush water (S) from the flush water outlet opening can be fed to the guide surfaces and wherein bidet water (B) from the bidet water outlet opening can be fed to the bidet water line , wherein the bidet water line has a first plug-in section and the bidet water section has a second plug-in section , wherein the plug-in sections are designed in such a way that the bidet water line can be connected to the bidet water section via the plug-in sections , characterized in that the water distributor with the guide surfaces and the bidet water line is formed in one piece. a flush pipe with a flush water section and a bidet water section , which is arranged separately from the flush water section , and a water distributor adjoining the flush pipe , wherein the flush water section has a flush water outlet opening and the bidet water section has a bidet water outlet opening , wherein the water distributor has a bidet water line and guide surfaces for the guided introduction of the flush water into a toilet bowl , and wherein flush water (S) from the flush water outlet opening can be fed to the guide surfaces and wherein bidet water (B) from the bidet water outlet opening can be fed to the bidet water line , wherein the bidet water line has a first plug-in section and the bidet water section has a second plug-in section , wherein the plug-in sections are designed in such a way that the bidet water line can be connected to the bidet water section via the plug-in sections , characterized in that the water distributor with the guide surfaces and the bidet water line is formed in one piece.
Connection assembly with a first component in the form of an elongate body, wherein the first component extends along a longitudinal extent axis , and with a second component in the form of an elongate body, wherein the second component extends along a longitudinal extent axis ; wherein the first component and the second component , starting from a mutually separated dismantled state, can be joined together along a relative movement plane parallel to the respective extent planes of the components into an interconnected mounting state and transferred back again into the dismantled state; wherein at least one latching element is arranged on the first component on each side of the relative movement plane, and wherein two latching element receivers are arranged on the second component which, in mounted state, each cooperate with a latching region of one of the two latching elements ; wherein a respective latching region of a latching element can be moved, starting from an undeformed rest state, along a movement path which has at least one component parallel to the relative movement plane ; wherein a first part of the movement path points in the dismantling direction relative to the rest state, and wherein a second part of the movement path points in a mounting direction opposite the dismantling direction relative to the rest state; wherein the first part of the movement path is delimited by stop faces on which the latching elements each rest during the dismantling of the components , characterised in that the first component has a web extending parallel to the longitudinal extent axis and that the second component has a web receiver extending parallel to the longitudinal extent axis . wherein the first component and the second component , starting from a mutually separated dismantled state, can be joined together along a relative movement plane parallel to the respective extent planes of the components into an interconnected mounting state and transferred back again into the dismantled state; wherein at least one latching element is arranged on the first component on each side of the relative movement plane, and wherein two latching element receivers are arranged on the second component which, in mounted state, each cooperate with a latching region of one of the two latching elements ; wherein a respective latching region of a latching element can be moved, starting from an undeformed rest state, along a movement path which has at least one component parallel to the relative movement plane ; wherein a first part of the movement path points in the dismantling direction relative to the rest state, and wherein a second part of the movement path points in a mounting direction opposite the dismantling direction relative to the rest state; wherein the first part of the movement path is delimited by stop faces on which the latching elements each rest during the dismantling of the components ,
A method for attaching an object to a valve housing , the method comprising the steps of: - providing an opening in the valve housing , the opening defining an annular edge along a circumference of the opening , - providing an object comprising an object body extending in a longitudinal direction, and an annular flange extending in a direction being substantially perpendicular to the longitudinal direction, the annular flange defining an outer circumference which is arranged at a distance from an outer surface of the object body , along the direction being substantially perpendicular to the longitudinal direction, and defining a surface extending radially outwards from the outer surface of the object body towards the outer circumference, - mounting the object in the opening of the valve housing with the annular flange in abutment with the annular edge , - attaching the object to the valve housing by performing welding of the annular edge and the annular flange by - directing a welding beam at least partly onto the surface defined by the annular flange , in a region defined by an abutment region between the object body of the object mounted in the opening and an annular wall of the opening , the welding beam being directed at an angle with respect to the longitudinal direction, the angle being between 0 degrees and 15 degrees, and - displacing the welding beam along the surface defined by the annular flange , while maintaining the angle between the welding beam and the longitudinal direction. - providing an opening in the valve housing , the opening defining an annular edge along a circumference of the opening , - providing an object comprising an object body extending in a longitudinal direction, and an annular flange extending in a direction being substantially perpendicular to the longitudinal direction, the annular flange defining an outer circumference which is arranged at a distance from an outer surface of the object body , along the direction being substantially perpendicular to the longitudinal direction, and defining a surface extending radially outwards from the outer surface of the object body towards the outer circumference, - mounting the object in the opening of the valve housing with the annular flange in abutment with the annular edge , - attaching the object to the valve housing by performing welding of the annular edge and the annular flange by - directing a welding beam at least partly onto the surface defined by the annular flange , in a region defined by an abutment region between the object body of the object mounted in the opening and an annular wall of the opening , the welding beam being directed at an angle with respect to the longitudinal direction, the angle being between 0 degrees and 15 degrees, and - displacing the welding beam along the surface defined by the annular flange , while maintaining the angle between the welding beam and the longitudinal direction.
A syringe gasket comprising a liquid contact portion and a sliding portion , wherein an inactive film is layered on the liquid contact portion , no inactive film is layered on the sliding portion , a modified polymer chain is formed on a surface of the sliding portion , the modified polymer chain is obtained by adding a silane compound to a surface of a polymer chain and further reacting a fluoroalkyl group-containing silane compound and a perfluoroether group-containing silane compound or further reacting a fluoroalkyl group-containing silane compound, a mass ratio of the fluoroalkyl group-containing silane compound to the perfluoroether group-containing silane compound is 60:40 to 100:0, and the fluoroalkyl group-containing silane compound is a compound represented by the following formula , F 3 C-(CF 2 ) n -(CH 2 ) m -Si(OR 1 ) 3 wherein n is 0 to 5, m is 0 to 8, and R 1 s each represent an alkyl group and may be the same or different from each other. an inactive film is layered on the liquid contact portion , no inactive film is layered on the sliding portion , a modified polymer chain is formed on a surface of the sliding portion , the modified polymer chain is obtained by adding a silane compound to a surface of a polymer chain and further reacting a fluoroalkyl group-containing silane compound and a perfluoroether group-containing silane compound or further reacting a fluoroalkyl group-containing silane compound, a mass ratio of the fluoroalkyl group-containing silane compound to the perfluoroether group-containing silane compound is 60:40 to 100:0, and the fluoroalkyl group-containing silane compound is a compound represented by the following formula , F 3 C-(CF 2 ) n -(CH 2 ) m -Si(OR 1 ) 3 wherein n is 0 to 5, m is 0 to 8, and R 1 s each represent an alkyl group and may be the same or different from each other.
Spacecraft membrane coupling device for fastening, holding and/or stretching or deploying a spacecraft membrane with a) a coupling element formed by a flat piece of material, which forms a fastening area for the spacecraft membrane , and b) an elongate tension element formed by a flat material strip, which in a first end region comprises a connection element for a support structure and/or an unpacking element for unpacking and/or stretching or deploying the spacecraft membrane , c) wherein the coupling element and a second end region of the tension element are connected to one another in a connection region , d) in the connection region the coupling element and the tension element have a cross section, in which the coupling element and the tension element form two legs that, in a first operating state, form a first angle , characterized in that e) in a second operating state, the two legs form a second angle that differs from the first angle . a) a coupling element formed by a flat piece of material, which forms a fastening area for the spacecraft membrane , and b) an elongate tension element formed by a flat material strip, which in a first end region comprises a connection element for a support structure and/or an unpacking element for unpacking and/or stretching or deploying the spacecraft membrane , c) wherein the coupling element and a second end region of the tension element are connected to one another in a connection region , d) in the connection region the coupling element and the tension element have a cross section, in which the coupling element and the tension element form two legs that, in a first operating state, form a first angle , characterized in that e) in a second operating state, the two legs form a second angle that differs from the first angle .
A method for semi-persistent scheduling, SPS, the method comprising: • receiving, by a base station, a scheduling request, SR, from a first user equipment, UE; • allocating, by the base station, a first resource for sending an identifier of a communication group to the first UE according to the SR; • receiving, by the base station, the identifier of the communication group to which the first UE belongs from the first UE by using the first resource; • determining, by the base station, a SPS resource for device-to-device, D2D, communication between the first UE and a second UE according to the identifier; • allocating, by the base station, the SPS resource to the first UE; • receiving , by the base station, a release indication message from the first UE; and • releasing, by the base station, the SPS resource according to the release indication message. • receiving, by a base station, a scheduling request, SR, from a first user equipment, UE; • allocating, by the base station, a first resource for sending an identifier of a communication group to the first UE according to the SR; • receiving, by the base station, the identifier of the communication group to which the first UE belongs from the first UE by using the first resource; • determining, by the base station, a SPS resource for device-to-device, D2D, communication between the first UE and a second UE according to the identifier; • allocating, by the base station, the SPS resource to the first UE; • receiving , by the base station, a release indication message from the first UE; and • releasing, by the base station, the SPS resource according to the release indication message.
Method for producing a structural load bearing component in medical equipment, prosthetics, sports hardware, industrial robots, construction, vehicles, boats, cars, motors, or bicycles, the method comprises the steps of: a) providing a mould for said structural load bearing component; b) layering said mould with two or more layers forming the outer surface of said structural load bearing component; c) filling said layered mould with a mixture comprising non-expanded heat-expandable microspheres and a curable resin and closing said mould; d) subjecting said closed mould to an inner temperature of 80°C to 140°C during 2 to 230 minutes thereby providing a relative pressure in said closed mould of 2 to 10 bar through expansion of said heat-expandable microspheres thereby forming structural load bearing component in said mould with a foam enforced inner core and a multi-layered outer surface; and e) separating the structural load bearing component from said mould; wherein the mould is a sealable or closable mould capable of withstanding the pressures and temperatures generated during step (d) and providing the negative or reverse image of the structural load bearing component produced; and characterised in that said mixture further comprises strength enforcing fibres, preferably carbon nanotubes and/or carbon fibre. a) providing a mould for said structural load bearing component; b) layering said mould with two or more layers forming the outer surface of said structural load bearing component; c) filling said layered mould with a mixture comprising non-expanded heat-expandable microspheres and a curable resin and closing said mould; d) subjecting said closed mould to an inner temperature of 80°C to 140°C during 2 to 230 minutes thereby providing a relative pressure in said closed mould of 2 to 10 bar through expansion of said heat-expandable microspheres thereby forming structural load bearing component in said mould with a foam enforced inner core and a multi-layered outer surface; and e) separating the structural load bearing component from said mould;
An apparatus for treating metal wire by multiple reverse bending, the metal wire having a thickness `d' that is the smallest calliper size and width `w' that is the largest caliper size when measured in all directions around the wire, the metal wire having a ratio of width over thickness that is smaller than 10, said apparatus comprising a first roller having a first roller diameter, a number of intermediate rollers having intermediate roller diameters and one exit roller having an exit roller diameter, said first roller , intermediate rollers and exit roller forming a sequence of rollers, said rollers comprising a circumferential groove for receiving the metal wire, the groove of said rollers being organised in one groove plane, wherein the exit roller diameter is larger than the first roller diameter and any one roller in the sequence of rollers has a roller diameter that is not smaller than the preceding roller in the sequence, wherein the apparatus has an apparatus axis that corresponds to the tangent line to the circumferential groove of the first roller and the circumferential groove of the exit roller , characterised in that only the second roller in the sequence of rollers can be moved from a position at the one side of the apparatus axis to a position at the opposite side of the apparatus axis and vice versa, wherein the axis of said second roller is displaced over the diameter of said second roller or more, so that the whole roller is moved over said apparatus axis .
A method for positioning a target in a three-dimensional CT image for an inspected object, the method comprising the steps of: obtaining, by a CT scanning device, a three-dimensional CT image; displaying (S401), by a display device, the three-dimensional CT image; receiving (S402), by an input device, a selection by a user of at least one area of the three-dimensional CT image at a viewing angle; generating (S403), by a data processor, at least one set of three-dimensional objects in a depth direction based on the selection; determining (S404), by the data processor, a target object from the set, characterized in : during a three-dimensional rendering process of the three-dimensional CT image, recording point cloud information for characterizing outer surfaces of the inspected object; acquiring, by the data processor, a point cloud information cluster sequence for outer surfaces of different objects in the selected at least one area by segmenting; and determining, by the data processor, at least one selected region from the point cloud information cluster sequence for outer surfaces of different objects in the inspected object based on a predetermined reference; and wherein the target object is determined as the object in the inspected object for which a predetermined criterion is met. obtaining, by a CT scanning device, a three-dimensional CT image; displaying (S401), by a display device, the three-dimensional CT image; receiving (S402), by an input device, a selection by a user of at least one area of the three-dimensional CT image at a viewing angle; generating (S403), by a data processor, at least one set of three-dimensional objects in a depth direction based on the selection; determining (S404), by the data processor, a target object from the set, characterized in : during a three-dimensional rendering process of the three-dimensional CT image, recording point cloud information for characterizing outer surfaces of the inspected object; acquiring, by the data processor, a point cloud information cluster sequence for outer surfaces of different objects in the selected at least one area by segmenting; and determining, by the data processor, at least one selected region from the point cloud information cluster sequence for outer surfaces of different objects in the inspected object based on a predetermined reference; and wherein the target object is determined as the object in the inspected object for which a predetermined criterion is met.
A buoy comprising a surface unit comprising a sealed tank comprising an inflatable bag , a tubular lateral wall of axis z and a bottom , the tubular wall and the bottom delimiting a volume referred to as the inner volume , the surface unit comprising at least one cartridge enclosing a compressed gas that can be released in such a way as to inflate the inflatable bag such that it functions as a float in an operational configuration of the buoy, the buoy comprising a depth unit connected to the surface unit by a cable , the depth unit and the surface unit being connected when the buoy is in a storage configuration, wherein the gas is confined in the cartridge , and separated when the buoy is in the operational configuration, the sealed tank comprising a projecting container protruding from the bottom and extending away from the inner volume from the bottom , an assembly of at least one element of the buoy being arranged in a volume surrounding the projecting container when the buoy is in the storage configuration, at least one element of the buoy being a winding of the cable , the projecting container delimiting a volume communicating with the internal volume when the buoy is in the storage configuration in which the gas is confined in the cartridge .
A microfluidic chip assembly for rapidly performing digital polymerase chain reaction (PCR), comprising: at least one microfluidic chip , a heat sink arranged below the at least one microfluidic chip , a semiconductor cooler arranged between the heat sink and the at least one microfluidic chip , and a heat-conducting plate arranged above the semiconductor cooler ; characterized in that the microfluidic chip assembly further comprises a heater arranged above the at least one microfluidic chip and a pneumatic press plate arranged above the heater , wherein outlets connected to an oil well, a sample well and a waste liquid well on the at least one microfluidic chip are formed on the pneumatic press plate ; the pneumatic press plate is connected to a driving mechanism and, the pneumatic press plate and the heater are configured to be driven via the driving mechanism to move in a direction of the at least one microfluidic chip until the heater is tightly attached to the upper surface of the at least one microfluidic chip and the bottom of the at least one microfluidic chip abuts against the heat-conducting plate ; a heat insulation layer is wrapped outside each of the heat-conducting plate and the semiconductor cooler ; each of the at least one microfluidic chip comprises a chip body ; the oil well, the sample well and the waste liquid well are protrudingly provided on the chip body ; the chip body is provided with a sealing cover ; through holes matched with the oil well, the sample well and the waste liquid well are formed on the sealing cover ; and a sealing filter is provided inside the through holes . at least one microfluidic chip , a heat sink arranged below the at least one microfluidic chip , a semiconductor cooler arranged between the heat sink and the at least one microfluidic chip , and a heat-conducting plate arranged above the semiconductor cooler ; characterized in that the microfluidic chip assembly further comprises a heater arranged above the at least one microfluidic chip and a pneumatic press plate arranged above the heater , wherein outlets connected to an oil well, a sample well and a waste liquid well on the at least one microfluidic chip are formed on the pneumatic press plate ; the pneumatic press plate is connected to a driving mechanism and, the pneumatic press plate and the heater are configured to be driven via the driving mechanism to move in a direction of the at least one microfluidic chip until the heater is tightly attached to the upper surface of the at least one microfluidic chip and the bottom of the at least one microfluidic chip abuts against the heat-conducting plate ; a heat insulation layer is wrapped outside each of the heat-conducting plate and the semiconductor cooler ; each of the at least one microfluidic chip comprises a chip body ; the oil well, the sample well and the waste liquid well are protrudingly provided on the chip body ; the chip body is provided with a sealing cover ; through holes matched with the oil well, the sample well and the waste liquid well are formed on the sealing cover ; and a sealing filter is provided inside the through holes .