mhurhangee/patent-ind-claim-en huggingface dataset:
Method of fabricating a connector for a chip card module, comprising: - on the one hand production of at least one electrically conductive contact on a front face of a substrate , consisting of an electrically insulating magnetic material, this substrate also comprising a rear face and a thickness between the front face and the rear face , and the production on the rear face of an antenna , and - on the other hand production in the thickness of the substrate of at least one connection hole at least partially closed by a rear contact region , and characterized in that the method comprises a step of coating on the rear face of the substrate with a layer of adhesive with a thickness of the layer of adhesive between 1 and 100 micrometres and a step of cladding with a layer of conductive material on the adhesive layer , the antenna being formed in the layer of conductive material . - on the one hand production of at least one electrically conductive contact on a front face of a substrate , consisting of an electrically insulating magnetic material, this substrate also comprising a rear face and a thickness between the front face and the rear face , and the production on the rear face of an antenna , and - on the other hand production in the thickness of the substrate of at least one connection hole at least partially closed by a rear contact region , and characterized in that the method comprises a step of coating on the rear face of the substrate with a layer of adhesive with a thickness of the layer of adhesive between 1 and 100 micrometres and a step of cladding with a layer of conductive material on the adhesive layer , the antenna being formed in the layer of conductive material .
A seal comprising a first portion having a first width (E) that extends in a radial direction (DR) of the seal , a second portion that is joined with the first portion and having a second width (C) that is smaller than the first width (E), and a first recess that is located in the first portion to reduce a width expansion of the first portion when the seal is compressed in an axial direction (AR) of the seal , wherein the seal comprises, in sequence, an upper side section , an outer side section , a first lower side section , a first inner side section , a second lower side section and a second inner side section joining the upper side section and configured to face a product when the seal is arranged to provide sealing between two components , wherein the first recess forms a recess in the upper side section , and a first protrusion that is arranged on the upper side section , a second protrusion that is arranged on the upper side section , at a location further away from the second inner side section than the first protrusion , and a second recess that is located in the first portion to form a recess in the upper side section , characterized by the second protrusion extending above the first protrusion in the axial direction (AR), and the first protrusion and the second protrusion being the only protrusions on the upper side section . a first portion having a first width (E) that extends in a radial direction (DR) of the seal , a second portion that is joined with the first portion and having a second width (C) that is smaller than the first width (E), and a first recess that is located in the first portion to reduce a width expansion of the first portion when the seal is compressed in an axial direction (AR) of the seal , wherein the seal comprises, in sequence, an upper side section , an outer side section , a first lower side section , a first inner side section , a second lower side section and a second inner side section joining the upper side section and configured to face a product when the seal is arranged to provide sealing between two components , wherein the first recess forms a recess in the upper side section , and a first protrusion that is arranged on the upper side section , a second protrusion that is arranged on the upper side section , at a location further away from the second inner side section than the first protrusion , and a second recess that is located in the first portion to form a recess in the upper side section , characterized by the second protrusion extending above the first protrusion in the axial direction (AR), and the first protrusion and the second protrusion being the only protrusions on the upper side section .
A system for splicing a replacement web with an outgoing web on the fly, the system comprising: a plurality of rollers facilitating movement of the outgoing web and replacement web; a cutting blade configured to cut a trailing edge of the outgoing web; a web speed sensor sensing the speed of the outgoing web as it moves through the plurality of rollers; a leading edge sensor sensing a location of a leading edge of the replacement web; a first splicer sensor sensing a location of a first adhesive strip ; a second splicer sensor sensing a location of a second adhesive strip ; and a controller receiving data from the web speed sensor, leading edge sensor, and splicer sensor, the controller further receiving an initiate splice signal ; wherein, upon receiving the initiate splice signal, the controller operates the plurality of rollers and cutting blade to form, using the first and second adhesive strips, a splice between the trailing edge of the outgoing web and the leading edge of the replacement web. a plurality of rollers facilitating movement of the outgoing web and replacement web; a cutting blade configured to cut a trailing edge of the outgoing web; a web speed sensor sensing the speed of the outgoing web as it moves through the plurality of rollers; a leading edge sensor sensing a location of a leading edge of the replacement web; a first splicer sensor sensing a location of a first adhesive strip ; a second splicer sensor sensing a location of a second adhesive strip ; and a controller receiving data from the web speed sensor, leading edge sensor, and splicer sensor, the controller further receiving an initiate splice signal ; wherein, upon receiving the initiate splice signal, the controller operates the plurality of rollers and cutting blade to form, using the first and second adhesive strips, a splice between the trailing edge of the outgoing web and the leading edge of the replacement web.
A wireless communication system comprising a wireless communication device and a network node , the wireless communication device operating in an enhanced coverage mode, the enhanced coverage mode comprising sequential repetition of messages sent from the wireless communication device to the network node, wherein the network node includes a transmitter configured to send a Timing Advance Command, TAC, to the wireless communication device ; and in that the wireless communication device includes: a receiver configured to receive the TAC from the network node; and a processing circuit configured to adapt a time at which the TAC is applied, fulfilling the condition that a time difference (m) between the time at which the TAC is applied and a time at which the TAC is received (n) is greater than or equal to a specified time (q), said specified time depends on a type of the used Radio Access Technology RAT, and fulfilling the condition that application of the TAC does not occur during a period after a first subframe of a repeated uplink transmission till the end of said repeated uplink transmission; and configured to apply the TAC accordingly. the network node includes a transmitter configured to send a Timing Advance Command, TAC, to the wireless communication device ; and in that the wireless communication device includes: a receiver configured to receive the TAC from the network node; and a processing circuit configured to adapt a time at which the TAC is applied, fulfilling the condition that a time difference (m) between the time at which the TAC is applied and a time at which the TAC is received (n) is greater than or equal to a specified time (q), said specified time depends on a type of the used Radio Access Technology RAT, and fulfilling the condition that application of the TAC does not occur during a period after a first subframe of a repeated uplink transmission till the end of said repeated uplink transmission; and configured to apply the TAC accordingly. a receiver configured to receive the TAC from the network node; and a processing circuit configured to adapt a time at which the TAC is applied, fulfilling the condition that a time difference (m) between the time at which the TAC is applied and a time at which the TAC is received (n) is greater than or equal to a specified time (q), said specified time depends on a type of the used Radio Access Technology RAT, and fulfilling the condition that application of the TAC does not occur during a period after a first subframe of a repeated uplink transmission till the end of said repeated uplink transmission; and configured to apply the TAC accordingly.
A measurement method for monitoring a component of an electrical assembly, in which the voltage across at least one component of the electrical assembly and a current through the component are measured, and in which a resistance value of the component is determined on the basis of the measured values of voltage and current, characterized in that the voltage and the current are measured successively in successive switching periods of a periodic switching signal of the electrical assembly and in that the resistance value is determined on the basis of the measurements of voltage and current from the successive switching periods.
A cosmetic composition comprising: a cosmetically acceptable carrier; kaolin; and less than 0.5 wt% opacifier; wherein the cosmetic composition has an opacity equal to or greater than 40%; and wherein the kaolin is calcined kaolin. a cosmetically acceptable carrier; kaolin; and less than 0.5 wt% opacifier; wherein the cosmetic composition has an opacity equal to or greater than 40%; and wherein the kaolin is calcined kaolin.
A flow straightener of a vehicle provided with a bumper and a cab provided above the bumper, the flow straightener of the vehicle comprising: a first opening section provided in the bumper and/or the cab and opened toward a front of the vehicle ; and a second opening section connected to the first opening section via a connecting path and opened toward an outer side in a vehicle width direction from a location further on an inner side in the vehicle width direction than front wheels of the vehicle such that traveling wind led into the first opening section passes through a front wheel forward region defined as being behind the first opening section in a lower region of the cab and in front of the front wheels . a first opening section provided in the bumper and/or the cab and opened toward a front of the vehicle ; and a second opening section connected to the first opening section via a connecting path and opened toward an outer side in a vehicle width direction from a location further on an inner side in the vehicle width direction than front wheels of the vehicle such that traveling wind led into the first opening section passes through a front wheel forward region defined as being behind the first opening section in a lower region of the cab and in front of the front wheels .
A method performed by a user equipment, the method comprising: receiving, from a base station, configuration information for: i) a first narrowband supporting a first bearer for a first machine-type communication service type (S611), and ii) a second narrowband supporting a second bearer for at least one second machine-type communication service type, wherein the first narrowband is a dedicated narrowband for use by services of the first machine-type communication service type, wherein said first machine-type communication service type comprises a voice over internet protocol service; and communicating (S613, S615), with the base station, using said first bearer for said first machine-type communication service type and the second bearer for said at least one second machine-type communication service type. receiving, from a base station, configuration information for: i) a first narrowband supporting a first bearer for a first machine-type communication service type (S611), and ii) a second narrowband supporting a second bearer for at least one second machine-type communication service type, wherein the first narrowband is a dedicated narrowband for use by services of the first machine-type communication service type, wherein said first machine-type communication service type comprises a voice over internet protocol service; and communicating (S613, S615), with the base station, using said first bearer for said first machine-type communication service type and the second bearer for said at least one second machine-type communication service type.
Closure device having a lock element and a mating piece, whereby the lock element can be locked on a mating piece, for closing a sealing flap of an opening, in particular an inspection flap, preferably in a drywall construction, in particular for a wall or a ceiling, wherein the mating piece is substantially formed in the manner of a striking plate and the lock element is arranged in such a way that under the action of a spring , in a first position with respect to the mating piece it is or can be moved into a locking position and, in a second position, it reaches a position and/or a state without any blocking action, wherein the lock element is mounted on a shaft such that it can be rotated under the influence of the spring and the spring is a leg spring mounted on the shaft , of which leg spring one leg acts on the lock element and the other leg is supported on an abutment, characterized in that the lock element comprises a latching jaw , whereby the latching jaw has a pawl region in one jaw face and the latching jaw has on its other jaw face a run-off flank which, during the position-change movement of the lock element from the first to the second position, forces the lock element to pivot in the direction counter to the spring action and releases the latching jaw in a position-change movement in the direction of the second position.
Unit for forming a plate element for continuous flow manufacturing of folding boxes (CA1, CA2) from plate elements , the plate elements being successively inserted into the unit and moving in a transport direction (FD), comprising pairs of rotary cylindrical shafts (201 1 , 203 1 , 201 2 , 203 2 ), supporting forming tooling (51 1 , 53 1 , 51 2 , 53 2 ), which forms the plate elements using slitting, creasing and cutting operations, and a cutting unit , and in which the pairs of rotary cylindrical shafts (201 1 , 203 1 , 201 2 , 203 2 ) and the cutting unit engage to produce, in the formed plate element , first and second juxtaposed blanks of folding boxes (P1, P2), and comprising first and second plate element processing units , associated in series, and having one same architecture with the pairs of shafts (2001 - 2031, 2002 - 2032), in which the first and second processing units each comprise four pairs of shafts (2001 - 2031, 2002 - 2032), aligned and disposed transversally with respect to the transport direction (FD), the first and second processing units being associated, so as to form an alignment of eight pairs of shafts (2001 - 2032), characterized in that in which two pairs of shafts (201 1 , 203 1 ) of the first plate element processing unit (20 1 ) engage to produce, in each plate element , central slits (34 12 ), aligned on a transverse central axis (AL) of the plate element , and two pairs of shafts (201 2 , 203 2 ) of the second plate element processing unit (20 2 ) engage to respectively produce rear edge slits (34 2 ) of a rear blank (P2) and front edge slits (34 1 ) of a front blank (P1), and in which said shafts (201 1 , 203 1 , 201 2 , 203 2 ) each only support slitting tooling (51 1 , 53 1 , 51 2 , 53 2 ), and in which the angular position (a) of at least one of the shafts (201 1 , 203 1 , 201 2 , 203 2 ) is adjustable with respect to the forward position in the transport direction (FD) of the plate element, and in which the first plate element processing unit (20 1 ) is arranged upstream of the second plate element processing unit (20 2 ) in the transport direction (FD). characterized in that in which two pairs of shafts (201 1 , 203 1 ) of the first plate element processing unit (20 1 ) engage to produce, in each plate element , central slits (34 12 ), aligned on a transverse central axis (AL) of the plate element , and two pairs of shafts (201 2 , 203 2 ) of the second plate element processing unit (20 2 ) engage to respectively produce rear edge slits (34 2 ) of a rear blank (P2) and front edge slits (34 1 ) of a front blank (P1), and in which said shafts (201 1 , 203 1 , 201 2 , 203 2 ) each only support slitting tooling (51 1 , 53 1 , 51 2 , 53 2 ), and in which the angular position (a) of at least one of the shafts (201 1 , 203 1 , 201 2 , 203 2 ) is adjustable with respect to the forward position in the transport direction (FD) of the plate element, and in which the first plate element processing unit (20 1 ) is arranged upstream of the second plate element processing unit (20 2 ) in the transport direction (FD).
A headlamp assembly for an automotive vehicle comprising: a headlamp housing to be mounted to a body of the vehicle and including an airflow opening and an air catcher passage extending through the headlamp housing ; characterised in that a light guide coupled to the housing forms a portion of the air catcher passage , said light guide extending from the airflow opening into an interior of the body of the vehicle ; an LED light generating unit is positioned adjacent an end of the light guide to pass light from the light generating unit through the light guide wherein an outer surface of the light guide is etched with a light extracting visible design extending along a length of the air catcher passage , the light guide being configured to glow visibly the design with respect to the remainder of the surface when illuminated by the light emitted from the LED light generating unit . a headlamp housing to be mounted to a body of the vehicle and including an airflow opening and an air catcher passage extending through the headlamp housing ; characterised in that a light guide coupled to the housing forms a portion of the air catcher passage , said light guide extending from the airflow opening into an interior of the body of the vehicle ; an LED light generating unit is positioned adjacent an end of the light guide to pass light from the light generating unit through the light guide wherein an outer surface of the light guide is etched with a light extracting visible design extending along a length of the air catcher passage , the light guide being configured to glow visibly the design with respect to the remainder of the surface when illuminated by the light emitted from the LED light generating unit .
A composite body comprising: a bond material comprising a ceramic material; and at least one pore within the ceramic material, said pore having a surface , an interior space and a peripheral region of the bond material surrounding the surface of the at least one pore , wherein the peripheral region defines a depth between the surface of the pore and a distance into the bond material, characterized in that the surface and the peripheral region are defined by a first pore defining composition; wherein the first pore defining composition is distinct from a composition of the ceramic material and having a melting point not less than a melting point of the composition of the ceramic material . a bond material comprising a ceramic material; and at least one pore within the ceramic material, said pore having a surface , an interior space and a peripheral region of the bond material surrounding the surface of the at least one pore , wherein the peripheral region defines a depth between the surface of the pore and a distance into the bond material, characterized in that the surface and the peripheral region are defined by a first pore defining composition; wherein the first pore defining composition is distinct from a composition of the ceramic material and having a melting point not less than a melting point of the composition of the ceramic material .
A computer-implemented method comprising: detecting, in dependence upon a problem signature, an event associated with data of a storage array, the event indicative of a particular problem, wherein the problem signature comprises a specification of a pattern of events indicative of the particular problem experienced by at least one other storage array; determining that the particular problem violates an operational policy of the storage array, the operational policy specifying at least one requirement for an operational metric of the storage array; and deploying, automatically without user intervention and in dependence on the particular problem violating the operational policy, one or more corrective measures to prevent the storage array from experiencing the particular problem. detecting, in dependence upon a problem signature, an event associated with data of a storage array, the event indicative of a particular problem, wherein the problem signature comprises a specification of a pattern of events indicative of the particular problem experienced by at least one other storage array; determining that the particular problem violates an operational policy of the storage array, the operational policy specifying at least one requirement for an operational metric of the storage array; and deploying, automatically without user intervention and in dependence on the particular problem violating the operational policy, one or more corrective measures to prevent the storage array from experiencing the particular problem.
Laser-cutting nozzle comprising: - a nozzle body comprising a first axial recess extending axially through said nozzle body , an inlet orifice for supplying said first axial recess with assist gas and a first outlet orifice located on a front surface of said nozzle body , and - a movable element arranged in the first axial recess of the nozzle body , said movable element comprising a front portion forming a skirt and an axial passage with a second outlet orifice opening on said front portion forming a skirt, characterised in that - the nozzle body is formed from at least one first portion arranged around the movable element and a second portion that positions itself, according to the direction of flow of the assist gas in the first axial recess , above said first portion , the nozzle body further comprising first attachment means suitable and designed for attaching the second portion onto the first portion , the diameter of the outlet orifice of the axial passage being between 6 and 10 mm. - a nozzle body comprising a first axial recess extending axially through said nozzle body , an inlet orifice for supplying said first axial recess with assist gas and a first outlet orifice located on a front surface of said nozzle body , and - a movable element arranged in the first axial recess of the nozzle body , said movable element comprising a front portion forming a skirt and an axial passage with a second outlet orifice opening on said front portion forming a skirt, characterised in that - the nozzle body is formed from at least one first portion arranged around the movable element and a second portion that positions itself, according to the direction of flow of the assist gas in the first axial recess , above said first portion , the nozzle body further comprising first attachment means suitable and designed for attaching the second portion onto the first portion , the diameter of the outlet orifice of the axial passage being between 6 and 10 mm.