mhurhangee/ep-ind-claims huggingface dataset:
A far-field speech support with a lens function, comprising: a base; a far-field speech board installation portion disposed on the base and configured to install a far-field speech board; a transparent light guide plate disposed on a bottom side of the far-field speech board installation portion; a buckle structure disposed on the base and configured to install an infrared receiving head assembly; and an infrared reflective portion disposed corresponding to the transparent light guide plate and disposed below the infrared receiving head assembly; wherein the buckle structure is disposed on a side of the base away from the far-field speech board installation portion, and the buckle structure comprises a locking plate and a limiting plate that are oppositely disposed on the base. a base; a far-field speech board installation portion disposed on the base and configured to install a far-field speech board; a transparent light guide plate disposed on a bottom side of the far-field speech board installation portion; a buckle structure disposed on the base and configured to install an infrared receiving head assembly; and an infrared reflective portion disposed corresponding to the transparent light guide plate and disposed below the infrared receiving head assembly; wherein the buckle structure is disposed on a side of the base away from the far-field speech board installation portion, and the buckle structure comprises a locking plate and a limiting plate that are oppositely disposed on the base.
A capnometer for detecting a concentration of a component in a gas, wherein said gas is inhaled and/or exhaled by a patient, said capnometer comprising: an airflow region through which said gas passes to and/or from said patient's lung; a mid-IR semiconductor emitter configured to provide IR light at a wavelength in the range 3-5 μm; a mid-IR semiconductor detector to detect said IR light; a reflector to reflect said IR light emitted by said emitter; and a removable breath tube, wherein said breath tube defines a channel between said emitter/detector and said reflector for said airflow region; wherein said emitter, said detector and said reflector are arranged such that said IR light emitted by said emitter passes through said air flow region via said reflector to said detector, said emitter and said detector being located external to said breath tube, and wherein said breath tube comprises a mid-IR transmissive portion, said mid-IR transmissive portion being aligned with said emitter and said detector to allow mid-IR light to pass therethrough into and out of said breath tube and characterised in that the reflector is mounted in the removable breath tube and said air flow region includes a reduction in its cross-sectional area where said IR light passes through said airflow region an airflow region through which said gas passes to and/or from said patient's lung; a mid-IR semiconductor emitter configured to provide IR light at a wavelength in the range 3-5 μm; a mid-IR semiconductor detector to detect said IR light; a reflector to reflect said IR light emitted by said emitter; and a removable breath tube, wherein said breath tube defines a channel between said emitter/detector and said reflector for said airflow region; wherein said emitter, said detector and said reflector are arranged such that said IR light emitted by said emitter passes through said air flow region via said reflector to said detector, said emitter and said detector being located external to said breath tube, and wherein said breath tube comprises a mid-IR transmissive portion, said mid-IR transmissive portion being aligned with said emitter and said detector to allow mid-IR light to pass therethrough into and out of said breath tube and characterised in that the reflector is mounted in the removable breath tube and said air flow region includes a reduction in its cross-sectional area where said IR light passes through said airflow region
A heat exchanger comprising: a heat exchanger body comprising at least a first channel wall portion, a second channel wall portion, and a third channel wall portion, a first channel defining a first fluid path for a first fluid, said first channel having a first channel height extending from said first channel wall portion to said second channel wall portion; a second channel defining a second fluid path for a second fluid, said second channel having a second channel height extending from said second channel wall portion to a third channel wall portion such that heat is allowed to be transferred between the first channel and the second channel via said second channel wall portion; a plurality of first support structures arranged in said first channel and extending from said first channel wall portion to said second channel wall portion, wherein said plurality of first support structures are configured to support said second wall portion in said first channel, characterized in that the heat exchanger further comprises a plurality of second support structures arranged in said second channel and extending from said second channel wall portion to said third channel wall portion; in that said plurality of second support structures are configured to support said third channel wall portion in said second channel, during manufacturing of the heat exchanger; and in that said first channel and said second channel are helically shaped around a center axis of the heat exchanger. a heat exchanger body comprising at least a first channel wall portion, a second channel wall portion, and a third channel wall portion, a first channel defining a first fluid path for a first fluid, said first channel having a first channel height extending from said first channel wall portion to said second channel wall portion; a second channel defining a second fluid path for a second fluid, said second channel having a second channel height extending from said second channel wall portion to a third channel wall portion such that heat is allowed to be transferred between the first channel and the second channel via said second channel wall portion; a plurality of first support structures arranged in said first channel and extending from said first channel wall portion to said second channel wall portion, wherein said plurality of first support structures are configured to support said second wall portion in said first channel, characterized in that the heat exchanger further comprises a plurality of second support structures arranged in said second channel and extending from said second channel wall portion to said third channel wall portion; in that said plurality of second support structures are configured to support said third channel wall portion in said second channel, during manufacturing of the heat exchanger; and in that said first channel and said second channel are helically shaped around a center axis of the heat exchanger.
A process for making a lactam compound of Formula I the process comprising reacting a compound of the Formula 27a-sulfonate with zinc in the presence of acetic acid, thereby forming the lactam of Formula I, wherein R 1 is selected from linear, branched, or cyclic alkyl having up to 6 carbon atoms, phenyl, 2-methoxy-ethyl, 2-(dimethylamino)ethyl, -menthyl, -menthyl, dimethylamide, -benzyl-oxazolidinonamide, -benzyl-oxazolidinonamide, isobornyl, cis-pinan-2-yl, isopinocampheyl, adamantylmethyl, 2-adamantyl, 1-adamantyl, and (-)-8-phenylmenthyl; and R 5 is selected from benzyl, p-tolyl, and methyl.
An anchor tool for positioning downhole, comprising: a body configured to be disposed within a conduit in a wellbore; one or more blades configured to move radially relative to the body, wherein at least one of the one or more blades comprises a key having a fixed protrusion configured to match a corresponding groove of an anchor sub receptacle within the conduit, and at least one of the one or more blades comprises a sliding protrusion configured to move radially and axially relative to the body, or a pivoting protrusion configured to rotate about a connection to the at least one of the one or more blades; and a locking mechanism comprising a first state and a second state, wherein the first state permits radial movement of the one or more blades relative to the body of the anchor tool and the second state inhibits radial movement of the one or more blades relative to the body of the anchor tool, and wherein the locking mechanism is configured to switch to the second state from the first state via movement of the sliding protrusion or rotation of the pivoting protrusion as soon as the fixed protrusion extends into the corresponding groove of the anchor sub receptacle. a body configured to be disposed within a conduit in a wellbore; one or more blades configured to move radially relative to the body, wherein at least one of the one or more blades comprises a key having a fixed protrusion configured to match a corresponding groove of an anchor sub receptacle within the conduit, and at least one of the one or more blades comprises a sliding protrusion configured to move radially and axially relative to the body, or a pivoting protrusion configured to rotate about a connection to the at least one of the one or more blades; and a locking mechanism comprising a first state and a second state, wherein the first state permits radial movement of the one or more blades relative to the body of the anchor tool and the second state inhibits radial movement of the one or more blades relative to the body of the anchor tool, and wherein the locking mechanism is configured to switch to the second state from the first state via movement of the sliding protrusion or rotation of the pivoting protrusion as soon as the fixed protrusion extends into the corresponding groove of the anchor sub receptacle.
A method of secure measurement exchange between wireless devices, said method comprising: receiving an initial FTM request from an initiating STA (S01; S21); transmitting an FTM frame comprising LTF sequence generation information and an associated LTF generation sequence authentication code to the initiating STA (S03; S23); transmitting an uplink sounding trigger frame comprising an LTF generation sequence authentication code from a responding STA to the initiating STA (S07; S27); receiving a UL-NDP frame from the initiating STA, wherein the UL-NDP frame comprises a first LTF sequence derived from the LTF sequence generation information associated with the LTF generation sequence authentication code (S08; S32); transmitting an NDP announcement frame and a DL-NDP frame from the responding STA, wherein the DL-NDP frame comprises a second LTF sequence derived from the LTF sequence generation information associated with the LTF generation sequence authentication code (S09, S10; S33, S34); transmitting an LMR frame generated according to the first and second LTF sequences (S11; S35); and determining that an incorrect sequence authentication code was received by the initiating STA when the initiating STA responds with a known LTF sequence. receiving an initial FTM request from an initiating STA (S01; S21); transmitting an FTM frame comprising LTF sequence generation information and an associated LTF generation sequence authentication code to the initiating STA (S03; S23); transmitting an uplink sounding trigger frame comprising an LTF generation sequence authentication code from a responding STA to the initiating STA (S07; S27); receiving a UL-NDP frame from the initiating STA, wherein the UL-NDP frame comprises a first LTF sequence derived from the LTF sequence generation information associated with the LTF generation sequence authentication code (S08; S32); transmitting an NDP announcement frame and a DL-NDP frame from the responding STA, wherein the DL-NDP frame comprises a second LTF sequence derived from the LTF sequence generation information associated with the LTF generation sequence authentication code (S09, S10; S33, S34); transmitting an LMR frame generated according to the first and second LTF sequences (S11; S35); and determining that an incorrect sequence authentication code was received by the initiating STA when the initiating STA responds with a known LTF sequence.
A PVC-free multiple layer surface covering comprising at least one layer of a thermoplastic composition, said thermoplastic composition comprising: - a polymer-based matrix representing 100 parts in weight and comprising one or more olefin-based polymer(s) and one or more anhydride copolymer(s), said one or more anhydride copolymer(s) representing between 5 and 40 parts in weight of the polymer-based matrix, - one or more filler(s) representing in weight at least 100 parts per 100 parts of said polymer-based matrix, - one or more basic or amphoteric metal oxide(s) representing between 5 and 40 parts in weight per 100 parts of said polymer-based matrix. - a polymer-based matrix representing 100 parts in weight and comprising one or more olefin-based polymer(s) and one or more anhydride copolymer(s), said one or more anhydride copolymer(s) representing between 5 and 40 parts in weight of the polymer-based matrix, - one or more filler(s) representing in weight at least 100 parts per 100 parts of said polymer-based matrix, - one or more basic or amphoteric metal oxide(s) representing between 5 and 40 parts in weight per 100 parts of said polymer-based matrix.
A method of presenting content with a first electronic device that is in communication with a plurality of electronic devices, the method comprising: presenting, by the first electronic device, a first portion of the content which is presented across the plurality of electronic devices; at least one of: receiving, by the first electronic device, information regarding an input while the first portion of the content is being presented, and detecting, by the first electronic device, the input while the first portion of the content is being presented; determining, by the first electronic device, an operating mode of each of the plurality of electronic devices based on the detected input or the information regarding the input; configuring, by the first electronic device, a first group including one or more electronic devices based on the operating mode of the each of the plurality of electronic devices; selecting, by the first electronic device, a second electronic device from the first group based on display resolutions of the one or more electronic devices and a resolution of the content; and presenting, by the first electronic device, a second portion of the content which is presented across the one or more electronic devices except for the selected second electronic device, wherein control interface related to the content is presented in the selected second electronic device. presenting, by the first electronic device, a first portion of the content which is presented across the plurality of electronic devices; at least one of: receiving, by the first electronic device, information regarding an input while the first portion of the content is being presented, and detecting, by the first electronic device, the input while the first portion of the content is being presented; receiving, by the first electronic device, information regarding an input while the first portion of the content is being presented, and detecting, by the first electronic device, the input while the first portion of the content is being presented; determining, by the first electronic device, an operating mode of each of the plurality of electronic devices based on the detected input or the information regarding the input; configuring, by the first electronic device, a first group including one or more electronic devices based on the operating mode of the each of the plurality of electronic devices; selecting, by the first electronic device, a second electronic device from the first group based on display resolutions of the one or more electronic devices and a resolution of the content; and presenting, by the first electronic device, a second portion of the content which is presented across the one or more electronic devices except for the selected second electronic device, wherein control interface related to the content is presented in the selected second electronic device.
Process for producing a thermoplastic molding material containing A) at least one aromatic polycarbonate and B) a further polymer which is chemically distinct from polymer A and which contains at least one type of functional group selected from ester, epoxy, hydroxyl, carboxyl and carboxylic anhydride groups, comprising the steps of a) melting and commixing the components A and B in the presence of a catalyst of component C at a temperature in the range from 200°C to 350°C and b) solidifying the composition by cooling the composition, wherein the component A has an average molecular weight M w measured by gel permeation chromatography at room temperature in methylene chloride with a bisphenol Abased polycarbonate standard of at least 3000 g/mol, characterized in that in process step a) at least a portion of the component A is reacted with the component B to afford a copolymer and wherein the catalyst C is a phosphonium salt according to formula wherein R 1 and R 2 each independently of one another represent C 1 -C 10 alkyl, R 3 and R 4 each independently of one another represent C 1 -C 10 -alkyl or C 6 -C 12 -aryl, A n- represents the anion of a carboxylic acid and n represents 1, 2 or 3. A) at least one aromatic polycarbonate and B) a further polymer which is chemically distinct from polymer A and which contains at least one type of functional group selected from ester, epoxy, hydroxyl, carboxyl and carboxylic anhydride groups, comprising the steps of a) melting and commixing the components A and B in the presence of a catalyst of component C at a temperature in the range from 200°C to 350°C and b) solidifying the composition by cooling the composition, a) melting and commixing the components A and B in the presence of a catalyst of component C at a temperature in the range from 200°C to 350°C and b) solidifying the composition by cooling the composition, wherein the component A has an average molecular weight M w measured by gel permeation chromatography at room temperature in methylene chloride with a bisphenol Abased polycarbonate standard of at least 3000 g/mol, characterized in that in process step a) at least a portion of the component A is reacted with the component B to afford a copolymer and wherein the catalyst C is a phosphonium salt according to formula wherein R 1 and R 2 each independently of one another represent C 1 -C 10 alkyl, R 3 and R 4 each independently of one another represent C 1 -C 10 -alkyl or C 6 -C 12 -aryl, A n- represents the anion of a carboxylic acid and n represents 1, 2 or 3. R 1 and R 2 each independently of one another represent C 1 -C 10 alkyl, R 3 and R 4 each independently of one another represent C 1 -C 10 -alkyl or C 6 -C 12 -aryl, A n- represents the anion of a carboxylic acid and n represents 1, 2 or 3.
A marking for identifying and/or authenticating an item or good wherein the marking comprises at least one luminescent substance (a) and at least one chiral liquid crystal polymer (CLCP) material (b) having a reflection wavelength range that overlaps at least a part of the luminescence wavelength range of (a), at least a part of (a) being located underneath (b), wherein the marking comprises (i) a first layer comprising (a) and, arranged on top of at least a part of the first layer, (ii) at least a part of (b) in the form of randomly distributed particles comprising (b).
A surgical stapling instrument, comprising: a handle assembly, a first endoscopic portion and a second endoscopic portion selectively connectable to a distal portion of the handle assembly and defining a longitudinal axis; and an end effector selectively connectable to a distal portion of the endoscopic portion, the end effector configured to perform a stapling function; characterised in that the handle assembly further includes a conductive portion operably disposed therewith; the first endoscopic portion includes a motor associated therewith, and the second endoscopic portion comprises a manually controllable endoscopic portion, wherein the conductive portion communicates electrical power to the motor when the first endoscopic portion is selectively connected to the handle assembly. a handle assembly, a first endoscopic portion and a second endoscopic portion selectively connectable to a distal portion of the handle assembly and defining a longitudinal axis; and an end effector selectively connectable to a distal portion of the endoscopic portion, the end effector configured to perform a stapling function; characterised in that the handle assembly further includes a conductive portion operably disposed therewith; the first endoscopic portion includes a motor associated therewith, and the second endoscopic portion comprises a manually controllable endoscopic portion, wherein the conductive portion communicates electrical power to the motor when the first endoscopic portion is selectively connected to the handle assembly.
A heat exchanger for cooling electrical elements of a vehicle, the heat exchanger comprising: a pair of coolers disposed over and under an electrical element module, respectively, and each having a plurality of channels longitudinally formed to pass cooling fluid; pipe couplers respectively coupled to first ends of the pair of coolers to pass cooling fluid, having protrusions on first surfaces facing each other, respectively, and connected with pipes on second surfaces; bellows couplers respectively coupled to second ends of the pair of coolers to pass cooling fluid and having protrusions on first surfaces facing each other; and a bellows having top and bottom openings fitted on the protrusions, and being able to contract, wherein the bellows couplers have grooves formed around the protrusions in a shape corresponding to the bellows, and widths of the grooves are larger than a width of the bellows. a pair of coolers disposed over and under an electrical element module, respectively, and each having a plurality of channels longitudinally formed to pass cooling fluid; pipe couplers respectively coupled to first ends of the pair of coolers to pass cooling fluid, having protrusions on first surfaces facing each other, respectively, and connected with pipes on second surfaces; bellows couplers respectively coupled to second ends of the pair of coolers to pass cooling fluid and having protrusions on first surfaces facing each other; and a bellows having top and bottom openings fitted on the protrusions, and being able to contract, wherein the bellows couplers have grooves formed around the protrusions in a shape corresponding to the bellows, and widths of the grooves are larger than a width of the bellows.
A method of processing data in a user equipment, UE, device, the method comprising: storing in a cache data received from at least one of a mobile communications network and a local access network; at a later time, processing the data stored in the cache; and transmitting a message to the mobile communications network to inform the network that the data stored in the cache has been processed, characterized in that the message comprises information about an availability of at least one network when the data stored in the cache was processed. storing in a cache data received from at least one of a mobile communications network and a local access network; at a later time, processing the data stored in the cache; and transmitting a message to the mobile communications network to inform the network that the data stored in the cache has been processed, characterized in that the message comprises information about an availability of at least one network when the data stored in the cache was processed.