mhurhangee/patent-ind-claim-en huggingface dataset:
A system for attaching a wearable to a user, comprising: a wearable mount having a skin contacting side and a wearable contacting side ; a first adhesive on a portion of the skin contacting side for adhering the wearable mount to the skin, the portion being 50 percent or less of the area of the skin contacting side of the wearable mount; a second adhesive on a portion of the wearable contacting side of the wearable mount, the second adhesive attaching a portion of the wearable to the wearable mount; and a continuous perimeter of additional adhesive disposed about a central area of the interior of the skin contacting side of the wearable mount, the continuous perimeter having a space formed therewithin, wherein the space is a cutout formed in the wearable mount; and a wearable attached to the second adhesive, the wearable including: a top surface; a bottom, opposite surface configured to adhere to a wearable mount; and one or more contacts disposed as flush mount contacts on the bottom surface of the wearable and in a region where the second adhesive adheres the wearable to the wearable mount , wherein the second adhesive is configured to cover the one or more contacts disposed on the wearable, electrically isolating and insulating the contacts; wherein the wearable mount is formed in a shape having comers; and wherein the first adhesive is disposed as a single spot of adhesive placed on each of the corners of the skin contacting side of the wearable mount. a wearable mount having a skin contacting side and a wearable contacting side ; a first adhesive on a portion of the skin contacting side for adhering the wearable mount to the skin, the portion being 50 percent or less of the area of the skin contacting side of the wearable mount; a second adhesive on a portion of the wearable contacting side of the wearable mount, the second adhesive attaching a portion of the wearable to the wearable mount; and a continuous perimeter of additional adhesive disposed about a central area of the interior of the skin contacting side of the wearable mount, the continuous perimeter having a space formed therewithin, wherein the space is a cutout formed in the wearable mount; and a wearable attached to the second adhesive, the wearable including: a top surface; a bottom, opposite surface configured to adhere to a wearable mount; and one or more contacts disposed as flush mount contacts on the bottom surface of the wearable and in a region where the second adhesive adheres the wearable to the wearable mount , a top surface; a bottom, opposite surface configured to adhere to a wearable mount; and one or more contacts disposed as flush mount contacts on the bottom surface of the wearable and in a region where the second adhesive adheres the wearable to the wearable mount , wherein the second adhesive is configured to cover the one or more contacts disposed on the wearable, electrically isolating and insulating the contacts; wherein the wearable mount is formed in a shape having comers; and wherein the first adhesive is disposed as a single spot of adhesive placed on each of the corners of the skin contacting side of the wearable mount.
A method by a first communication device in a wireless communication system, the method comprising: identifying that a change event of a packet data convergence protocol, PDCP, version has occurred, the change event being triggered by a handover or dual connectivity; in response to the identifying, receiving, from a second communication device, first PDCP data buffered in a second PDCP entity in the second communication device and information on a general packet radio service tunneling protocol, GTP, sequence number, SN, for the first PDCP data, wherein a PDCP SN for the first PDCP data is detached in the first PDCP data; receiving, from the second communication device, mapping information between the GTP SN and the PDCP SN; receiving, from a terminal, a PDCP status report including acknowledgement/negative-acknowledgement, ACK/NACK, information on the first PDCP data; identifying second PDCP data among the first PDCP data based on the PDCP status report and the mapping information; allocating a PDCP SN for the second PDCP data; and transmitting to the terminal, the second PDCP data based on the allocated PDCP SN. identifying that a change event of a packet data convergence protocol, PDCP, version has occurred, the change event being triggered by a handover or dual connectivity; in response to the identifying, receiving, from a second communication device, first PDCP data buffered in a second PDCP entity in the second communication device and information on a general packet radio service tunneling protocol, GTP, sequence number, SN, for the first PDCP data, wherein a PDCP SN for the first PDCP data is detached in the first PDCP data; receiving, from the second communication device, mapping information between the GTP SN and the PDCP SN; receiving, from a terminal, a PDCP status report including acknowledgement/negative-acknowledgement, ACK/NACK, information on the first PDCP data; identifying second PDCP data among the first PDCP data based on the PDCP status report and the mapping information; allocating a PDCP SN for the second PDCP data; and transmitting to the terminal, the second PDCP data based on the allocated PDCP SN.
An electromagnetic switching valve for a fuel-injection system of an internal-combustion engine, having: - a valve region with a closing element for closing the switching valve ; and - an actuator region for moving the closing element along an axis of motion ; wherein the actuator region has an armature which is mobile along the axis of motion and is coupled with the closing element to move the closing element , a fixed pole piece and a solenoid for generating a magnetic flux in the armature and in the pole piece , wherein the armature has a region of magnetic-flux concentration in which a magnet flux can be saturated and which is formed by an outer periphery of the armature (U A ) having a shoulder , so that the armature has a first outer periphery of the armature (U A1 ) and a second outer periphery of the armature (U A2 ), wherein the first outer periphery of the armature (U A1 ) is less than the second outer periphery of the armature (U A2 ) and is a maximum of 3/4 of the second outer periphery of the armature (U A2 ). - a valve region with a closing element for closing the switching valve ; and - an actuator region for moving the closing element along an axis of motion ;
A structure forming method comprising: a first step (S21, S31) comprising forming a first pattern serving as a fine pattern using an electromagnetic wave thermal conversion material on a first surface , on the side on which an expansion layer which expands by heating is provided, of a medium(M11) including the expansion layer and then irradiating an electromagnetic wave toward the electromagnetic wave thermal conversion material to expand a portion , corresponding to the first pattern , of the expansion layer ; and a second step(S22, S32) comprising forming a second pattern including a coarser pattern than the first pattern using an electromagnetic wave thermal conversion material on a second surface , on the opposite side to the side on which the expansion layer is provided, of the medium(M11) and then irradiating an electromagnetic wave toward the electromagnetic wave thermal conversion material to expand a portion, corresponding to the second pattern , of the expansion layer characterized in that the first step(S21, S31) includes irradiating the electromagnetic wave from the side of the first surface of the medium(M11), to expand the expansion layer , the second step(S22, S32) includes irradiating the electromagnetic wave from the side of the second surface of the medium(M11), to expand the expansion layer , and expanding the expansion layer in the first step(S21, S31) and expanding the expansion layer in the second step (S22, S32) are simultaneously performed.
Device for collecting and further processing of human blood plasma, which has a pool bag and at least two collection bags , which are connected to one another by means of a transfer tube , wherein the pool bag is connected to at least two individual plasma bags via inlet tubes and the device has only one filter , which is arranged in the transfer tube between the pool bag and the collection bags .
A user equipment comprising: a transceiver arranged to receive, from an eNodeB in a network , a RRC signal that includes an information element indicating whether the eNodeB supports the user equipment using an extended paging value in a cell of the eNodeB ; transmit a request from the user equipment to a MME in the network , wherein the request requests use of an extended paging value; transmit, to the eNodeB in the network , a value that indicates a periodicity, Thigher_priority_search, with which the user equipment evaluates cells in the network in which the user equipment is operating, wherein said value is based on the extended paging value; and monitor intra-frequency, inter-frequency and inter-radio access technology cells indicated by said cell in a network , according to the periodicity. a transceiver arranged to receive, from an eNodeB in a network , a RRC signal that includes an information element indicating whether the eNodeB supports the user equipment using an extended paging value in a cell of the eNodeB ; transmit a request from the user equipment to a MME in the network , wherein the request requests use of an extended paging value; transmit, to the eNodeB in the network , a value that indicates a periodicity, Thigher_priority_search, with which the user equipment evaluates cells in the network in which the user equipment is operating, wherein said value is based on the extended paging value; and monitor intra-frequency, inter-frequency and inter-radio access technology cells indicated by said cell in a network , according to the periodicity.
A submersible pumping assembly for a deviated wellbore comprising: one or more electric submersible pumps disposed in a casing , the casing disposed in a below ground deviated wellbore , the one or more electric submersible pumps including one or more stationary elements or rotating elements; one or more electric motors disposed in the casing and configured to operate the one or more electric submersible pumps , the one or more electric motors including one or more stationary elements or rotating elements; and one or more flexible joints configured to linearly couple one or more of the stationary elements or the rotating elements of the one or more electric submersible pumps and the one or more electric motors and impart flexibility to the submersible pumping assembly in the deviated wellbore ; characterised in that : the one or more flexible joints provide flexibility of the submersible pumping assembly for deployment in a deviated wellbore having a dogleg severity (DLS) in a range of 22-35 degrees. one or more electric submersible pumps disposed in a casing , the casing disposed in a below ground deviated wellbore , the one or more electric submersible pumps including one or more stationary elements or rotating elements; one or more electric motors disposed in the casing and configured to operate the one or more electric submersible pumps , the one or more electric motors including one or more stationary elements or rotating elements; and one or more flexible joints configured to linearly couple one or more of the stationary elements or the rotating elements of the one or more electric submersible pumps and the one or more electric motors and impart flexibility to the submersible pumping assembly in the deviated wellbore ; characterised in that : the one or more flexible joints provide flexibility of the submersible pumping assembly for deployment in a deviated wellbore having a dogleg severity (DLS) in a range of 22-35 degrees.
Method for manufacturing a product made from red ceramic material for the bijouterie, horology or jewellery field, characterised in that it includes the following steps: a) mixing a ceramic powder chosen from zirconia, alumina and a mixture of zirconia and alumina, with a cerium sulphide pigment powder so as to obtain a homogeneous mixture of powders comprising a percentage by mass of cerium sulphide pigment of between 1% and 20%; b) flash sintering, by heating by electric-current pulses, of the homogeneous mixture of powders under vacuum in order to densify said mixture, said flash sintering being performed at a predetermined so-called sintering temperature of between 950°C and 1150°C and including a prior step b 1 ) of heating said homogeneous mixture of powders in accordance with a temperature profile comprising: • a first temperature-rise phase at a first rate A for a first length of time t 1 , • and a second temperature-rise phase at a second rate B lower than the first rate A for a second period of time t 2 , until the sintering temperature is reached. a) mixing a ceramic powder chosen from zirconia, alumina and a mixture of zirconia and alumina, with a cerium sulphide pigment powder so as to obtain a homogeneous mixture of powders comprising a percentage by mass of cerium sulphide pigment of between 1% and 20%; b) flash sintering, by heating by electric-current pulses, of the homogeneous mixture of powders under vacuum in order to densify said mixture, said flash sintering being performed at a predetermined so-called sintering temperature of between 950°C and 1150°C and including a prior step b 1 ) of heating said homogeneous mixture of powders in accordance with a temperature profile comprising: • a first temperature-rise phase at a first rate A for a first length of time t 1 , • and a second temperature-rise phase at a second rate B lower than the first rate A for a second period of time t 2 , until the sintering temperature is reached. • a first temperature-rise phase at a first rate A for a first length of time t 1 , • and a second temperature-rise phase at a second rate B lower than the first rate A for a second period of time t 2 , until the sintering temperature is reached.
A method for producing a mouldable thermoplastic composite structure reinforced with endless fibres, having at least two layers , in at least one layer of which endless fibres are embedded in a matrix of thermoplastic material, characterized in that one semi-finished composite structure article is provided having the at least two layers , of which the at least one layer in which the endless fibres are contained is heated contactlessly with an infrared radiation field in such manner that the matrix of thermoplastic material is heated within at least a first surface region up to or above a melting temperature assignable to the thermoplastic material by directing the infrared radiation field in locally limited manner exclusively at the at least one first surface region , and the matrix of thermoplastic material within a second surface region directly adjacent to the at least one first surface region is maintained at a temperature below the melting temperature by interposing a means between an infrared radiation source that emits the infrared radiation field and the at least one second surface region of the layer, by which means the at least one second surface region is shielded from the infrared radiation field , and the semi-finished composite structure article heated in this way is provided as the mouldable thermoplastic composite structure reinforced with endless fibres, the endless fibres of which are able to move relatively within the at least one first surface region and are spatially immobilised relatively within the at least one second surface region .
A ferritic stainless steel comprising: by mass%, C: 0.030% or less, Si: 1.00% or less, Mn: 0.05 to 0.25 %, P: 0.045% or less, S: 0.0030% or less, Cr: 20.0 to 25.0%, Mo: 0.3 to 2.0%, N: 0.040% or less, Al: 0.50% or less, V: 0.20% or less, Nb: 0.001 to 0.500%, and/or Ti: 0.001 to 0.50% optionally further comprising: by mass%, one or more of Sn: 0.30% or less, Sb: 0.30% or less, Ni: 1.00% or less, Cu: 1.00% or less, W: 1.0% or less, Co: 1.00% or less, B: 0.0100% or less, Ga: 0.0100% or less, Mg: 0.0100% or less, Ca: 0.0100% or less, Zr: 0.10% or less, Y: 0.10% or less, REM: 0.10% or less, and Ta: 0.10% or less, and the steel having the balance consisting of Fe and unavoidable impurities, wherein the ferritic stainless steel further satisfies both conditions (a) and (b) or satisfies the condition (b): (a) the ferritic stainless steel comprises one or more of B: 0.0050% or less, Ga: 0.0100% or less, Mg: 0.0100% or less, and Ca: 0.0100% or less, and satisfies Equation : 10 B + Ga + Mg + Ca > 0.010 and (b) the ferritic stainless steel satisfies Equations and : Si / Mn + Al + V < 0.35 0.40 < Al / Si + Mn + V < 3.00 wherein, in Equations to , B, Ga, Mg, Ca, Si, Mn, Al, and V each represent an amount in mass % of corresponding element thereof, and wherein when the corresponding element is not contained, 0 is substituted thereinto. (a) the ferritic stainless steel comprises one or more of B: 0.0050% or less, Ga: 0.0100% or less, Mg: 0.0100% or less, and Ca: 0.0100% or less, and satisfies Equation : 10 B + Ga + Mg + Ca > 0.010 and (b) the ferritic stainless steel satisfies Equations and : Si / Mn + Al + V < 0.35 0.40 < Al / Si + Mn + V < 3.00 wherein, in Equations to , B, Ga, Mg, Ca, Si, Mn, Al, and V each represent an amount in mass % of corresponding element thereof, and wherein when the corresponding element is not contained, 0 is substituted thereinto.
An optical fiber cable comprising: a plurality of optical fiber units each having a plurality of optical fibers , the optical fiber units being disposed so as to be divided into two layers, that is, radially, an inner layer and an outer layer; a wrapping tube that wraps around the plurality of optical fiber units ; at least one filling (3a, 3b, 3c, 3d, 13a, 13b, 13c, 13d; 23a, 23b, 23c) disposed inside the wrapping tube ; a sheath that covers the wrapping tube , a plurality of outer units included in the plurality of optical fiber units that are located in the outer layer are twisted in an SZ shape around a cable central axis (O), characterized in that the filling is sandwiched between one of the outer units and the wrapping tube in a cross-sectional view, and the outer layer filling density D represented by D = S ÷ (π × r 2 2 - π × r 1 2 ) satisfies 0.05 or more and 0.20 or less, wherein a distance between a radially inner end of the outer units and the cable central axis (O) is r 1 , a distance between a radially outer end of the outer units and the cable central axis (O) is r 2 , and S is a sum of cross-sectional areas of parts of the filling disposed in a region of which a distance from the cable central axis (O) is in a range of r 1 to r 2 . a plurality of optical fiber units each having a plurality of optical fibers , the optical fiber units being disposed so as to be divided into two layers, that is, radially, an inner layer and an outer layer; a wrapping tube that wraps around the plurality of optical fiber units ; at least one filling (3a, 3b, 3c, 3d, 13a, 13b, 13c, 13d; 23a, 23b, 23c) disposed inside the wrapping tube ; a sheath that covers the wrapping tube , a plurality of outer units included in the plurality of optical fiber units that are located in the outer layer are twisted in an SZ shape around a cable central axis (O), characterized in that the filling is sandwiched between one of the outer units and the wrapping tube in a cross-sectional view, and the outer layer filling density D represented by D = S ÷ (π × r 2 2 - π × r 1 2 ) satisfies 0.05 or more and 0.20 or less, wherein a distance between a radially inner end of the outer units and the cable central axis (O) is r 1 , a distance between a radially outer end of the outer units and the cable central axis (O) is r 2 , and S is a sum of cross-sectional areas of parts of the filling disposed in a region of which a distance from the cable central axis (O) is in a range of r 1 to r 2 .
A conductive polymer including a repeating unit which is represented by the following general formula , the content of the repeating unit of formula being 50 to 100 mol%, based on all repeating units of the conductive polymer, and including an area ratio (Y/X) of 0.60 or less, which area ratio is calculated by an evaluation method comprising the following steps (I) to (VI): (I) a step of preparing a test solution by dissolving a conductive polymer in an eluent which is prepared to have a pH of 10 or more so that the conductive polymer has a solid concentration of 0.1% by mass; (II) a step of obtaining a chromatogram on the test solution by measuring molecular weight distribution using a polymer material evaluation equipment equipped with gel permeation chromatograph; (III) a step of converting retention times in the chromatogram obtained in the step (II) into molecular weights (M) in terms of sodium polystyrene sulfonate; (IV) a step of determining the area (X) of a region with a molecular weight (M) of 5000 Da or more, which molecular weight (M) is converted in terms of sodium polystyrene sulfonate; (V) a step of determining the area (Y) of a region with a molecular weight (M) of below 5000 Da, which molecular weight (M) is converted in terms of sodium polystyrene sulfonate; and (VI) a step of determining the area ratio (Y/X) between the area (X) and the area (Y): in the formula , one of R 1 to R 4 is a linear or branched alkoxy group having 1 to 4 carbon atoms, one of the others is -SO 3 - or -SO 3 H, and the rest is H. (I) a step of preparing a test solution by dissolving a conductive polymer in an eluent which is prepared to have a pH of 10 or more so that the conductive polymer has a solid concentration of 0.1% by mass; (II) a step of obtaining a chromatogram on the test solution by measuring molecular weight distribution using a polymer material evaluation equipment equipped with gel permeation chromatograph; (III) a step of converting retention times in the chromatogram obtained in the step (II) into molecular weights (M) in terms of sodium polystyrene sulfonate; (IV) a step of determining the area (X) of a region with a molecular weight (M) of 5000 Da or more, which molecular weight (M) is converted in terms of sodium polystyrene sulfonate; (V) a step of determining the area (Y) of a region with a molecular weight (M) of below 5000 Da, which molecular weight (M) is converted in terms of sodium polystyrene sulfonate; and (VI) a step of determining the area ratio (Y/X) between the area (X) and the area (Y): in the formula , one of R 1 to R 4 is a linear or branched alkoxy group having 1 to 4 carbon atoms, one of the others is -SO 3 - or -SO 3 H, and the rest is H.
A sensor unit comprising: a magnetic sensor adapted to detect a magnetic field; a light source adapted to transmit a radiation having a signature ; a reflecting member for reflecting radiation emitted by the light source; a radiation sensor adapted to detect radiation reflected by the reflecting member; and a controller adapted to receive a signal output from the magnetic sensor and a signal output from the radiation sensor, and to_generate a signal indicative of a security breach based on the signal output received from the magnetic sensor and the signal output received from the radiation sensor, when the magnetic field is detected by the magnetic sensor and the signature is not identified in the radiation received by the radiation sensor. a magnetic sensor adapted to detect a magnetic field; a light source adapted to transmit a radiation having a signature ; a reflecting member for reflecting radiation emitted by the light source; a radiation sensor adapted to detect radiation reflected by the reflecting member; and a controller adapted to receive a signal output from the magnetic sensor and a signal output from the radiation sensor, and to_generate a signal indicative of a security breach based on the signal output received from the magnetic sensor and the signal output received from the radiation sensor, when the magnetic field is detected by the magnetic sensor and the signature is not identified in the radiation received by the radiation sensor.