mhurhangee/patent-ind-claim-en huggingface dataset:
Connection arrangement for connecting a post to a frame profile of a window or a door made of plastic, wherein the post has a hollow profile and is secured to the frame profile by means of a post connector comprising a base part , which is mounted on the frame profile by means of a latching element, and an attachment part , which is arranged above the base part and which is connected to the post and is guided with form-fit engagement when attaching onto the base part , wherein attachment part and base part are latched onto each other in the assembled state via latching elements , characterized in that latching elements are also provided on the attachment part , by means of which latching elements the attachment part , during assembly, can be secured to the post with form-fit latching engagement.
Display device for a portable object , wherein the portable object includes a dial and at least one hand movable in rotation over the dial, said at least one movable hand including a light source or being coupled to a light source , the display device being characterized in that the dial includes at least one, light first waveguide , called «secondary waveguide», having a proximal end arranged in a predetermined sector of the dial and a distal end defining a display area, the light source and the secondary waveguide being arranged such that the light source is coupled to the proximal end of the secondary waveguide when the movable hand moves into the predetermined sector of the dial , the distal end of the secondary waveguide being coupled to a display element of the dial arranged in the display area.
A heater arrangement for an aerosol generating device , the heater arrangement comprising: a tubular heating chamber comprising a cavity arranged to receive an aerosol generating substrate; a layer of insulation wrapped so as to circumferentially surround the heating chamber; and an insulation support assembly comprising a rigid surround arranged around the heating chamber, wherein the insulation support assembly is arranged to engage the heating chamber and the insulation layer to hold the insulation layer in position around the heating chamber, and characterised in that the layer of insulation is wrapped around an outer surface of the rigid surround, and in that the rigid surround comprises a frame comprising a plurality of longitudinal struts running along the length of the tubular heating chamber; wherein the insulation layer is wrapped around an outer surface formed by the longitudinal struts. a tubular heating chamber comprising a cavity arranged to receive an aerosol generating substrate; a layer of insulation wrapped so as to circumferentially surround the heating chamber; and an insulation support assembly comprising a rigid surround arranged around the insulation support assembly is arranged to engage the heating chamber and the insulation layer to hold the insulation layer in position around the heating chamber, and characterised in that the layer of insulation is wrapped around an outer surface of the rigid surround, and in that the rigid surround comprises a frame comprising a plurality of longitudinal struts running along the length of the tubular heating chamber; wherein the insulation layer is wrapped around an outer surface formed by the longitudinal struts.
A vaporizing device comprising: a housing containing an electrical power source electrically connected to a high frequency oscillation circuit ;a liquid supply in the housing positioned to provide a polar liquid into a liquid space; characterized in that the vaporizing device further comprises first and second electrodes electrically connected to the high frequency oscillation circuit , with the liquid space between the first and second electrodes ; and a switch electrically connected to the high frequency oscillation circuit for turning on the high frequency oscillation circuit to vaporize the liquid via dielectric heating. a housing containing an electrical power source electrically connected to a high frequency oscillation circuit ;a liquid supply in the housing positioned to provide a polar liquid into a liquid space; characterized in that the vaporizing device further comprises first and second electrodes electrically connected to the high frequency oscillation circuit , with the liquid space between the first and second electrodes ; and a switch electrically connected to the high frequency oscillation circuit for turning on the high frequency oscillation circuit to vaporize the liquid via dielectric heating.
A method for creating a numerical representation of a bifocal spectacle lens for the purpose of the production of the bifocal spectacle lens using free-form technology, wherein the numerical representation of a bifocal spectacle lens includes a distance portion , a near portion and a transition section situated between the distance portion and the near portion , wherein - the distance portion is optimized, - the near portion is optimized in view of optical power for near vision, - the transition section is determined or optimized in such a way that the latter creates a continuous transition between the distance portion and the near portion , wherein the transition section is determined or optimized after the distance portion and the near portion have been optimized, and - the distance portion and the near portion are subsequently put together with the transition section to form the numerical representation of the bifocal spectacle lens , characterized in that - the method is computer implemented, - the distance portion is optimized in view of optical power for distance vision, - the distance portion and the near portion are optimized independently of one another, - the transition section is determined by providing an overlap region between the distance portion and the near portion where a surface of the overlap region is a linear combination of a surface of the distance portion and a surface of the near portion in the overlap region. - the distance portion is optimized, - the near portion is optimized in view of optical power for near vision, - the transition section is determined or optimized in such a way that the latter creates a continuous transition between the distance portion and the near portion , wherein the transition section is determined or optimized after the distance portion and the near portion have been optimized, and - the distance portion and the near portion are subsequently put together with the transition section to form the numerical representation of the bifocal spectacle lens , - the method is computer implemented, - the distance portion is optimized in view of optical power for distance vision, - the distance portion and the near portion are optimized independently of one another, - the transition section is determined by providing an overlap region between the distance portion and the near portion where a surface of the overlap region is a linear combination of a surface of the distance portion and a surface of the near portion in the overlap region.
A dry gas extraction device for extracting a dry gas from a wet gas flow, comprising: a wet gas duct having a side wall surrounding an inner gas flow volume; at least one dry gas intake port , located in a position inside the gas flow volume, at a distance from the side wall; a projection extending inwardly from the side wall, the at least one dry gas intake port being arranged on the projection ; and a flange surrounding the inner gas flow volume, the projection extending diametrically across the flange ; wherein the cross section of the projection is shaped for optimizing the flow condition around the projection. a wet gas duct having a side wall surrounding an inner gas flow volume; at least one dry gas intake port , located in a position inside the gas flow volume, at a distance from the side wall; a projection extending inwardly from the side wall, the at least one dry gas intake port being arranged on the projection ; and a flange surrounding the inner gas flow volume, the projection extending diametrically across the flange ; wherein the cross section of the projection is shaped for optimizing the flow condition around the projection.
Method for producing a PUR/PIR foam body, comprising the steps of: - providing a mold adapted for applying an underpressure to the interior of the mold; - introducing a reaction mixture comprising an isocyanate-reactive component A and an isocyanate B into the mold; - applying an underpressure to the interior of the mold, so the underpressure acts on the introduced reaction mixture; wherein the following consecutive moments are defined in the method: t0: the reaction mixture has started to be introduced into the mold tL: the reaction mixture has started to expand in the mold tA: the reaction mixture has started to set in the mold tF: the expanded reaction mixture has finished filling the mold application of the underpressure is delayed until the reaction mixture has a certain viscosity, so that the underpressure does not cause blowing agent bubbles to be ripped out of the reaction mixture, the underpressure is applied to the interior of the mold no later than tA, and in that the isocyanate index of the reaction mixture is ≥ 300, wherein the isocyanate index of the reaction mixture is defined as the molar ratio of NCO groups of NCO-reactive groups, multiplied by 100. - providing a mold adapted for applying an underpressure to the interior of the mold; - introducing a reaction mixture comprising an isocyanate-reactive component A and an isocyanate B into the mold; - applying an underpressure to the interior of the mold, so the underpressure acts on the introduced reaction mixture; t0: the reaction mixture has started to be introduced into the mold tL: the reaction mixture has started to expand in the mold tA: the reaction mixture has started to set in the mold tF: the expanded reaction mixture has finished filling the mold
A steady rest (L) for a machine tool with a machine bed for guiding a rotationally symmetrical workpiece (W), having - a base body (G) for support upon the machine bed, - at least one linear drive (S) transverse to the machine bed, with which two drive bodies (S13, S14) can be moved in the opposite direction on the base body (G), - two shearing levers (L1, L2) which are arranged transversely to the machine bed in the shape of a V, wherein in each case their one end (L14, L24) is pivotably held on the base body and whose other end (L11, L21) has a support (L13, L23) for the workpiece (W), and - two support levers (L3, L4), which are respectively pivotably held on their one end (L33, L43) on a drive body (S13, S14) and on whose other end (L31, L41) are pivotably held on a shearing lever (L1, L2) in the region of a support (L13, L23), so that the distance between the supports (L13, L23) can be varied by of scissors-like pivoting of the shearing lever (L1, L2) by means of displacing the drive bodies (S13, S14). - a base body (G) for support upon the machine bed, - at least one linear drive (S) transverse to the machine bed, with which two drive bodies (S13, S14) can be moved in the opposite direction on the base body (G), - two shearing levers (L1, L2) which are arranged transversely to the machine bed in the shape of a V, wherein in each case their one end (L14, L24) is pivotably held on the base body and whose other end (L11, L21) has a support (L13, L23) for the workpiece (W), and - two support levers (L3, L4), which are respectively pivotably held on their one end (L33, L43) on a drive body (S13, S14) and on whose other end (L31, L41) are pivotably held on a shearing lever (L1, L2) in the region of a support (L13, L23), so that the distance between the supports (L13, L23) can be varied by of scissors-like pivoting of the shearing lever (L1, L2) by means of displacing the drive bodies (S13, S14).
A surgical instrument , comprising: a housing ; an end effector assembly ; a movable handle including first and second cantilever spring arms , the movable handle movable relative to the housing between a spaced-apart position and an approximated position, wherein, the first cantilever spring arm is flexed upon movement of the movable handle from the spaced-apart position towards the approximated position to thereby bias the movable handle towards the spaced-apart position; and a drive assembly operably coupled between the movable handle and the end effector assembly such that movement of the movable handle from the spaced-apart position towards the approximated position moves the end effector assembly from an open position towards a clamping position for clamping tissue, wherein the second cantilever spring arm is flexed upon application of a threshold pressure to tissue clamped by the end effector assembly to control a pressure applied to tissue clamped by the end effector assembly. a housing ; an end effector assembly ; a movable handle including first and second cantilever spring arms , the movable handle movable relative to the housing between a spaced-apart position and an approximated position, wherein, the first cantilever spring arm is flexed upon movement of the movable handle from the spaced-apart position towards the approximated position to thereby bias the movable handle towards the spaced-apart position; and a drive assembly operably coupled between the movable handle and the end effector assembly such that movement of the movable handle from the spaced-apart position towards the approximated position moves the end effector assembly from an open position towards a clamping position for clamping tissue, wherein the second cantilever spring arm is flexed upon application of a threshold pressure to tissue clamped by the end effector assembly to control a pressure applied to tissue clamped by the end effector assembly.
An apparatus to be employed in an evolved node B, eNB , the apparatus comprising: a collection circuitry configured to collect information about licensed and unlicensed spectrum resource usage related to individual evolved packet system, EPS, bearers of a plurality of EPS bearers that provide access to a cellular network using one or more radio access technologies; a signaling circuitry , coupled with the collection circuitry , and configured to transmit an indication of the collected information about the one or more EPS bearers to a network node in a core network, wherein the network node is a charging data function or an online charging system ; wherein the indication includes a report of characteristics of traffic offloaded to resources in an unlicensed spectrum, wherein the report includes, for respective EPS bearers with traffic offloaded to resources in the unlicensed spectrum, a bearer identifier of the respective EPS bearer, a bearer offload time indicative of the amount of time the respective EPS bearer has been offloaded to the unlicensed spectrum since the last reporting, an offload volume of traffic offloaded to the respective EPS bearer in the downlink since the last reporting, and an offload volume of traffic offloaded to the respective EPS bearer in the uplink since the last reporting. a collection circuitry configured to collect information about licensed and unlicensed spectrum resource usage related to individual evolved packet system, EPS, bearers of a plurality of EPS bearers that provide access to a cellular network using one or more radio access technologies; a signaling circuitry , coupled with the collection circuitry , and configured to transmit an indication of the collected information about the one or more EPS bearers to a network node in a core network, wherein the network node is a charging data function or an online charging system ; wherein the indication includes a report of characteristics of traffic offloaded to resources in an unlicensed spectrum, wherein the report includes, for respective EPS bearers with traffic offloaded to resources in the unlicensed spectrum, a bearer identifier of the respective EPS bearer, a bearer offload time indicative of the amount of time the respective EPS bearer has been offloaded to the unlicensed spectrum since the last reporting, an offload volume of traffic offloaded to the respective EPS bearer in the downlink since the last reporting, and an offload volume of traffic offloaded to the respective EPS bearer in the uplink since the last reporting.
A method for performing an uplink transmission to a base station by a user equipment through an unlicensed cell in a wireless communication system, the method comprising: receiving an uplink grant that schedules an uplink transmission in one or more subframes from the base station; and performing the uplink transmission in the one or more subframes using at least one of a first type channel access or a second type channel access, wherein the first type channel access is a Listen Before Talk, LBT, with random back-off with a contention window, CW, of a variable size, wherein the second type channel access is based on an LBT without random back-off, wherein a size of the contention window is determined based on a channel access priority class used in the first type channel access, characterized in that performing the uplink transmission comprises performing the uplink transmission using the second type channel access when all of the one or more subframes are before a last subframe indicated by a common control channel regardless of a channel access type indicated for the one or more subframes by the uplink grant. receiving an uplink grant that schedules an uplink transmission in one or more subframes from the base station; and performing the uplink transmission in the one or more subframes using at least one of a first type channel access or a second type channel access, wherein the first type channel access is a Listen Before Talk, LBT, with random back-off with a contention window, CW, of a variable size, wherein the second type channel access is based on an LBT without random back-off, wherein a size of the contention window is determined based on a channel access priority class used in the first type channel access, characterized in that performing the uplink transmission comprises performing the uplink transmission using the second type channel access when all of the one or more subframes are before a last subframe indicated by a common control channel regardless of a channel access type indicated for the one or more subframes by the uplink grant.
A receiver comprising a first oscillator , a second oscillator , a controller operable to control frequencies to which the first and second oscillators are tuned, and a discrimination circuit operable to receive and monitor transmitted signals; wherein the discrimination circuit is configured to receive a signal at a first transmission frequency determined based on a first tuned frequency to which the first oscillator is tuned, and to determine, in a capture time period, whether data is being transmitted at the first transmission frequency; wherein the controller is configured to tune the second oscillator to a second tuned frequency in a tuning time period that occurs during the capture time period, wherein the tuning time period is shorter than the capture time period; and wherein, after determining whether data is being transmitted at the first transmission frequency, the discrimination circuit is configured to receive signals at a second transmission frequency determined based on the second tuned frequency, and to determine whether data is being transmitted at the second transmission frequency. wherein the discrimination circuit is configured to receive a signal at a first transmission frequency determined based on a first tuned frequency to which the first oscillator is tuned, and to determine, in a capture time period, whether data is being transmitted at the first transmission frequency; wherein the controller is configured to tune the second oscillator to a second tuned frequency in a tuning time period that occurs during the capture time period, wherein the tuning time period is shorter than the capture time period; and wherein, after determining whether data is being transmitted at the first transmission frequency, the discrimination circuit is configured to receive signals at a second transmission frequency determined based on the second tuned frequency, and to determine whether data is being transmitted at the second transmission frequency.
Radiator grille of a motor vehicle with an integrated lighting device comprising at least one light source , wherein said lighting device is located in the radiator grille , wherein said radiator grille further comprises a frame and within the latter several horizontally extending sections and several vertically extending sections , and wherein at least part of the frame and/or at least one of the horizontally extending sections and/or at least one of the vertically extending sections of the frame is formed with at least one cavity in which the lighting device is located, characterised in that said lighting device comprises a thick-wall light guide with a front end and a rear end (9") opposite to the front end , wherein the front end of the light guide is provided with a lens , wherein the rear end (9") of the light guide is provided with at least one light source , wherein said cavity is connected by means of a through-hole with the surrounding and wherein said first, front end of the light guide extends into said through-hole , wherein said lens is provided at the place of passing through the through-hole .
A filter comprising: a first flow face extending along a lateral direction and a transverse direction of the filter, wherein the first flow face comprises at least one contaminant retention layer first edge and at least one flow defining layer first edge ; a second flow face spaced in an axial direction from the first flow face, wherein the second flow face extends along the length and the width of the filter and comprises at least one contaminant retention layer second edge and at least one flow defining layer second edge; at least one contaminant retention layer extending from the contaminant layer first edge to the contaminant layer second edge ; and at least one flow defining layer adjacent to at least one of the contaminant retention layers , the at least one flow defining layer extending from the flow defining layer first edge to the flow defining layer second edge ; wherein the filter comprises a plurality of flow defining layers and contaminant retention layers arranged in a stack, and wherein the flow defining layers define fluid flow paths in the axial direction as fluid moves from the first flow face toward the second flow face, characterized by the fact that the stack comprises a total of between 40 and 100 flow defining layers and contaminant retention layers per inch (2,54 cm). a first flow face extending along a lateral direction and a transverse direction of the filter, wherein the first flow face comprises at least one contaminant retention layer first edge and at least one flow defining layer first edge ; a second flow face spaced in an axial direction from the first flow face, wherein the second flow face extends along the length and the width of the filter and comprises at least one contaminant retention layer second edge and at least one flow defining layer second edge; at least one contaminant retention layer extending from the contaminant layer first edge to the contaminant layer second edge ; and at least one flow defining layer adjacent to at least one of the contaminant retention layers , the at least one flow defining layer extending from the flow defining layer first edge to the flow defining layer second edge ; wherein the filter comprises a plurality of flow defining layers and contaminant retention layers arranged in a stack, and wherein the flow defining layers define fluid flow paths in the axial direction as fluid moves from the first flow face toward the second flow face, characterized by the fact that the stack comprises a total of between 40 and 100 flow defining layers and contaminant retention layers per inch (2,54 cm).