mhurhangee/ep-ind-claims huggingface dataset:
A medical device for detecting at least one analyte in a body fluid, the medical device comprising: • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula, wherein the analyte sensor at least partially is placed inside the insertion cannula; • at least one electronics unit, wherein the analyte sensor is operably connected to the electronics unit; • at least one housing, wherein the housing comprises at least one electronics compartment configured to at least partially receive the electronics unit and at least one sensor compartment configured to at least partially receive the analyte sensor, wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor, wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap, wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap, wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula, wherein the electronics compartment surrounds the sensor compartment; wherein the electronics compartment and the sensor compartment share a common wall of the housing, wherein the electronics compartment and the sensor compartment are connected to each other via at least one sealed opening, wherein the analyte sensor passes through the sealed opening. • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula, wherein the analyte sensor at least partially is placed inside the insertion cannula; • at least one electronics unit, wherein the analyte sensor is operably connected to the electronics unit; • at least one housing, wherein the housing comprises at least one electronics compartment configured to at least partially receive the electronics unit and at least one sensor compartment configured to at least partially receive the analyte sensor, wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor, wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap, wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap, wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula, wherein the electronics compartment surrounds the sensor compartment; wherein the electronics compartment and the sensor compartment share a common wall of the housing, wherein the electronics compartment and the sensor compartment are connected to each other via at least one sealed opening, wherein the analyte sensor passes through the sealed opening.
A method for the destruction of a non-combustible target gas, the method including: a) compressing at a first pressure a mixture of air and target gas to produce a compressed target gas mixture, wherein the target gas concentration in the mixture of air and target gas is kept below about 40 g/m 3; b) destroying the target gas by combusting the compressed target gas mixture with fuel in a forced-induction internal combustion engine at a combustion pressure greater than the first pressure, to thermally decompose the target gas and produce an oxidised exhaust gas, the combustion occurring while maintaining a load on the engine with a load bank; and c) processing the oxidised exhaust gas to produce a vent gas for venting to atmosphere where the vent gas includes substantially no target gas. a) compressing at a first pressure a mixture of air and target gas to produce a compressed target gas mixture, wherein the target gas concentration in the mixture of air and target gas is kept below about 40 g/m 3; b) destroying the target gas by combusting the compressed target gas mixture with fuel in a forced-induction internal combustion engine at a combustion pressure greater than the first pressure, to thermally decompose the target gas and produce an oxidised exhaust gas, the combustion occurring while maintaining a load on the engine with a load bank; and c) processing the oxidised exhaust gas to produce a vent gas for venting to atmosphere where the vent gas includes substantially no target gas.
A method for modeling a composite material preform having a bionic structure, characterized in that the method includes: performing statistics and analysis on spatial structural characteristic values of a retinervus luffae fructus to obtain a mean values of the spatial structural characteristic values; building a model based on the mean values of the spatial structural characteristic values to obtain a primary retinervus luffae fructus structure model, the primary retinervus luffae fructus structure model includes a plurality of interconnected structural units; and performing a finite element stress analysis on the primary retinervus luffae fructus structure model and performing a structural adjustment on the structural units according to the stressed nephogram of the primary retinervus luffae fructus structure model, obtaining a bionic retinervus luffae fructus structure model as the structure model of the composite material preform. performing statistics and analysis on spatial structural characteristic values of a retinervus luffae fructus to obtain a mean values of the spatial structural characteristic values; building a model based on the mean values of the spatial structural characteristic values to obtain a primary retinervus luffae fructus structure model, the primary retinervus luffae fructus structure model includes a plurality of interconnected structural units; and performing a finite element stress analysis on the primary retinervus luffae fructus structure model and performing a structural adjustment on the structural units according to the stressed nephogram of the primary retinervus luffae fructus structure model, obtaining a bionic retinervus luffae fructus structure model as the structure model of the composite material preform.
A security structure comprising: - at least one pattern appearing in the foreground; characterized in that it comprises - at least one reflective optical structure creating a virtual image of the observer, which image is seen in the background behind the foreground pattern. - at least one pattern appearing in the foreground; characterized in that it comprises - at least one reflective optical structure creating a virtual image of the observer, which image is seen in the background behind the foreground pattern.
A tobacco plant having a mutation in an endogenous nicotine demethylase gene having the nucleotide sequence set forth in SEQ ID NO: 4, wherein the mutation is selected from the group consisting of a point mutation, a deletion, an insertion, a duplication and an inversion, and wherein said tobacco plant exhibits reduced expression of the mutated nicotine demethylase gene or gene product relative to a non-mutated control plant, or the nicotine demethylase encoded by the mutated gene exhibits reduced enzymatic activity relative to a non-mutated nicotine demethylase.
An apparatus for transporting molten molding material, comprising: a vessel having an orifice and an internal cavity for receiving said molten molding material through said orifice and preventing flow of said material during transport, wherein said orifice is both a filling orifice, for mating to a melter to receive said molten molding material, and an ejection orifice, for mating to a mold to force said molten molding material from said vessel into said mold; a coupling assembly (1322, 1332, 1334, 140) for selectively mating to a processing station (102, 104) to transfer molding material; an ejection mechanism operable to force said molten molding material out of said vessel; characterised by transport device comprising a guide with which said vessel is configured to releasably engage for movement of said vessel along said guide relative to a processing station, said guide comprising one or more tracks or conveyors; and a handling feature (125, 125') for releasably securing said vessel to said transport device, said handling feature comprising an adapter configured to engage said vessel and said guide. a vessel having an orifice and an internal cavity for receiving said molten molding material through said orifice and preventing flow of said material during transport, wherein said orifice is both a filling orifice, for mating to a melter to receive said molten molding material, and an ejection orifice, for mating to a mold to force said molten molding material from said vessel into said mold; a coupling assembly (1322, 1332, 1334, 140) for selectively mating to a processing station (102, 104) to transfer molding material; an ejection mechanism operable to force said molten molding material out of said vessel; characterised by transport device comprising a guide with which said vessel is configured to releasably engage for movement of said vessel along said guide relative to a processing station, said guide comprising one or more tracks or conveyors; and a handling feature (125, 125') for releasably securing said vessel to said transport device, said handling feature comprising an adapter configured to engage said vessel and said guide.
Tyre for motorcycles comprising a tread band on which a tread pattern is formed, the tread pattern comprising a plurality of grooves arranged so as to define on said tread band a void to rubber ratio lower than or equal to about 12%, wherein said tread pattern comprises: - a pair of first substantially longitudinal grooves (11, 12) arranged on opposite sides with respect to an equatorial plane (X-X) of said tyre and extending substantially along a whole circumferential extension of said tread band, - at least one pair of second substantially longitudinal grooves (13, 14) extending substantially along the whole circumferential extension of said tread band and arranged in an axially outer position with respect to said pair of first substantially longitudinal grooves (11, 12); - a plurality of first transversal grooves (20, 21) arranged in and extending over at least 50% of the lateral extension of portions (15, 16) of said tread band which are comprised between said first and said second substantially longitudinal grooves (11, 12, 13, 14); - a plurality of second transversal grooves (22, 23, 24, 25), arranged in said portions (15, 16) of said tread band which are comprised between said first and said second substantially longitudinal grooves (11, 12, 13, 14), wherein said second transversal grooves (22, 23, 24, 25) have a length shorter than a length of said first transversal grooves (20, 21). - a pair of first substantially longitudinal grooves (11, 12) arranged on opposite sides with respect to an equatorial plane (X-X) of said tyre and extending substantially along a whole circumferential extension of said tread band, - at least one pair of second substantially longitudinal grooves (13, 14) extending substantially along the whole circumferential extension of said tread band and arranged in an axially outer position with respect to said pair of first substantially longitudinal grooves (11, 12); - a plurality of first transversal grooves (20, 21) arranged in and extending over at least 50% of the lateral extension of portions (15, 16) of said tread band which are comprised between said first and said second substantially longitudinal grooves (11, 12, 13, 14); - a plurality of second transversal grooves (22, 23, 24, 25), arranged in said portions (15, 16) of said tread band which are comprised between said first and said second substantially longitudinal grooves (11, 12, 13, 14), wherein said second transversal grooves (22, 23, 24, 25) have a length shorter than a length of said first transversal grooves (20, 21).
A steel wire rod consisting of: C: 0.95 to 1.10 mass%, Si: 0.10 to 0.70 mass%, Mn: 0.20 to 1.20 mass%, Cr: 0.90 to 1.60 mass%, Mo: 0 to 0.25 mass%, B: 0 to 25 ppm, P: 0 to 0.020 mass%, S: 0 to 0.020 mass%, O: 0 to 0.0010 mass%, N: 0 to 0.030 mass%, Al: 0.010 to 0.100 mass%, and a balance: Fe and impurities, wherein a surface area is an area between a surface and a line 0.1 times a half of an equivalent circle diameter of the steel wire rod apart from the surface in a cross-section perpendicular to a longitudinal direction, and has a microstructure consisting of pearlite, pro-eutectoid cementite, and a balance, wherein in the surface area, a Vickers hardness is HV 300 to 420, an area ratio of the pearlite is 80% or more, an area ratio of the pro-eutectoid cementite is 2.0% or less, and the balance is one or more selected from the group consisting of ferrite, spheroidal cementite, and bainite, wherein an inner area is an area enclosed by the line 0.1 times the half of the equivalent circle diameter of the steel wire rod apart from the surface and including a center in the cross-section perpendicular to the longitudinal direction, and has a microstructure consisting of pearlite, pro-eutectoid cementite, and a balance, wherein in the inner area, an area ratio of the pearlite is 90% or more, an area ratio of the pro-eutectoid cementite is 5.0% or less, the balance is one or more selected from the group consisting of ferrite, spheroidal cementite, and bainite, and an area ratio of pearlite blocks existing in the pearlite and having an equivalent circle diameter of more than 40 μm is 0.62% or less, and wherein a center portion is an area enclosed by a line 0.5 times the half of the equivalent circle diameter of the steel wire rod apart from the center and including the center in the cross-section perpendicular to the longitudinal direction, and a difference between a Vickers hardness of the center portion and a Vickers hardness of the surface area is HV 20.0 or less. C: 0.95 to 1.10 mass%, Si: 0.10 to 0.70 mass%, Mn: 0.20 to 1.20 mass%, Cr: 0.90 to 1.60 mass%, Mo: 0 to 0.25 mass%, B: 0 to 25 ppm, P: 0 to 0.020 mass%, S: 0 to 0.020 mass%, O: 0 to 0.0010 mass%, N: 0 to 0.030 mass%, Al: 0.010 to 0.100 mass%, and a balance: Fe and impurities, wherein a surface area is an area between a surface and a line 0.1 times a half of an equivalent circle diameter of the steel wire rod apart from the surface in a cross-section perpendicular to a longitudinal direction, and has a microstructure consisting of pearlite, pro-eutectoid cementite, and a balance,
An optical sensor (210, 300, 400, 500, 600) comprising: light sources configured to emit light; a substrate on which the light sources are mounted, the substrate comprising holes in regions on which the light sources are mounted, a separate hole corresponding to each of the light sources; a first photodetector configured to receive a first light emitted from a front surface of each of the light sources, each of the front surfaces facing away from the substrate and the first light being reflected or scattered from an object; and at least one second photodetector configured to receive a second light emitted from a rear surface of each of the light sources, each of the rear surfaces facing towards the substrate and the second light passing through the holes corresponding to the light sources. light sources configured to emit light; a substrate on which the light sources are mounted, the substrate comprising holes in regions on which the light sources are mounted, a separate hole corresponding to each of the light sources; a first photodetector configured to receive a first light emitted from a front surface of each of the light sources, each of the front surfaces facing away from the substrate and the first light being reflected or scattered from an object; and at least one second photodetector configured to receive a second light emitted from a rear surface of each of the light sources, each of the rear surfaces facing towards the substrate and the second light passing through the holes corresponding to the light sources.
A method of sending a message from a first machine to a second machine, the second machine having second machine addressing information unknown to the first machine, the method comprising the steps of: a) storing in a database an association between sender information relating to the identity of the first machine and recipient information relating to the second machine, the database containing, for a plurality of machines, machine characteristic information, machine addressing information, and a security rule for the second machine; b) without user action, composing the message based on a conditional rule, at the first machine, the message comprising the sender information and the recipient information, but not including second machine addressing information and not including recipient addressing information, and a message payload; c) transmitting the message to an intermediary server, the intermediary server in communication with the database; d) authenticating the sender information relating to the identity of the first machine at the intermediary server; e) querying the database and comparing the recipient information to the machine characteristic information to identify the second machine; and f) transmitting the message payload to the identified second machine, wherein the message payload is transmitted according to the security rule associated with the second machine. a) storing in a database an association between sender information relating to the identity of the first machine and recipient information relating to the second machine, the database containing, for a plurality of machines, machine characteristic information, machine addressing information, and a security rule for the second machine; b) without user action, composing the message based on a conditional rule, at the first machine, the message comprising the sender information and the recipient information, but not including second machine addressing information and not including recipient addressing information, and a message payload; c) transmitting the message to an intermediary server, the intermediary server in communication with the database; d) authenticating the sender information relating to the identity of the first machine at the intermediary server; e) querying the database and comparing the recipient information to the machine characteristic information to identify the second machine; and f) transmitting the message payload to the identified second machine, wherein the message payload is transmitted according to the security rule associated with the second machine.
A silicone pressure sensitive adhesive composition comprising a reaction product of a mixture comprising (i) a resin comprising R 1 3 SiO 1/2 ("M") units and SiO 4/2 ("Q") units, wherein each R 1 is independently a monovalent hydrocarbon radical having from 1 to 6 carbon atoms; wherein the resin comprises from 70 mol% to 99 mol% of hydroxyl radicals and from 1 mol% to 30 mol% of hydride radicals, based on the total moles of the hydroxyl and the hydride radicals of the resin; wherein the hydroxyl radicals are bonded directly to the silicon atoms of the Q units, and the hydride radicals are bonded to the silicon atoms of the Q units via -OSiHR 5 2 radicals, wherein R 5 is a monovalent hydrocarbon radical having from 1 to 6 carbon atoms; and (ii) one or more vinyl-functional polyorganosiloxanes; and a hydrosilation catalyst. a reaction product of a mixture comprising (i) a resin comprising R 1 3 SiO 1/2 ("M") units and SiO 4/2 ("Q") units, wherein each R 1 is independently a monovalent hydrocarbon radical having from 1 to 6 carbon atoms; wherein the resin comprises from 70 mol% to 99 mol% of hydroxyl radicals and from 1 mol% to 30 mol% of hydride radicals, based on the total moles of the hydroxyl and the hydride radicals of the resin; wherein the hydroxyl radicals are bonded directly to the silicon atoms of the Q units, and the hydride radicals are bonded to the silicon atoms of the Q units via -OSiHR 5 2 radicals, wherein R 5 is a monovalent hydrocarbon radical having from 1 to 6 carbon atoms; and (ii) one or more vinyl-functional polyorganosiloxanes; and (i) a resin comprising R 1 3 SiO 1/2 ("M") units and SiO 4/2 ("Q") units, wherein each R 1 is independently a monovalent hydrocarbon radical having from 1 to 6 carbon atoms; wherein the resin comprises from 70 mol% to 99 mol% of hydroxyl radicals and from 1 mol% to 30 mol% of hydride radicals, based on the total moles of the hydroxyl and the hydride radicals of the resin; wherein the hydroxyl radicals are bonded directly to the silicon atoms of the Q units, and the hydride radicals are bonded to the silicon atoms of the Q units via -OSiHR 5 2 radicals, wherein R 5 is a monovalent hydrocarbon radical having from 1 to 6 carbon atoms; and (ii) one or more vinyl-functional polyorganosiloxanes; and a hydrosilation catalyst.
A refrigeration system, comprising: a refrigerant circuit in which at least one evaporator and at least one expansion valve associated with the evaporator are connected to each other to perform a refrigeration cycle; a calculation means configured to calculate a degree of superheat of refrigerant based on an evaporator-outlet temperature of refrigerant circulating in the refrigerant circuit; a degree-of-superheat control means configured to adjust a degree of opening of the expansion valve such that the calculated degree of superheat reaches a target degree of superheat; and a change means configured to change the target degree of superheat, wherein the degree-of-superheat control means is configured to adjust the degree of opening of the expansion valve based on a control gain for determining an opening-degree adjustment amount of the expansion valve, characterised in that the degree-of-superheat control means includes a control gain setting means configured to increase the control gain when the change means increases the target degree of superheat and to reduce the control gain when the change means reduces the target degree of superheat. a refrigerant circuit in which at least one evaporator and at least one expansion valve associated with the evaporator are connected to each other to perform a refrigeration cycle; a calculation means configured to calculate a degree of superheat of refrigerant based on an evaporator-outlet temperature of refrigerant circulating in the refrigerant circuit; a degree-of-superheat control means configured to adjust a degree of opening of the expansion valve such that the calculated degree of superheat reaches a target degree of superheat; and a change means configured to change the target degree of superheat, wherein the degree-of-superheat control means is configured to adjust the degree of opening of the expansion valve based on a control gain for determining an opening-degree adjustment amount of the expansion valve, characterised in that the degree-of-superheat control means includes a control gain setting means configured to increase the control gain when the change means increases the target degree of superheat and to reduce the control gain when the change means reduces the target degree of superheat.