mhurhangee/ep-ind-claims huggingface dataset:
Gas analyser with at least two different light sources (10, 11, 12), a detector and a Herriott cell containing a measurement gas with two mirrors (5, 6), wherein the radiation sources (10, 11, 12) are arranged and aligned in relation to the Herriott cell in such a manner that beams (7, 8, 9) which are coupled by them into the Herriott cell and reflected between the mirrors (5, 6) strike the mirrors (5, 6) in point patterns (20, 21, 22; 20', 21', 22') which run along ellipses (17, 18, 19; 17', 18', 19'), wherein - the ellipses (17, 18, 19; 17', 18', 19') have two shared vertices (24, 25) which lie inside one another on a shared axis of symmetry and various vertices apart from these, - the beams (7, 8, 9) of at least two of the different radiation sources (10, 11, 12) - enter the Herriott cell at differing points (29, 30, 31) of the associated point pattern (20, 21, 22; 20', 21', 22') and/or - enter the Herriott cell in such a manner that they pass through the associated point patterns (20, 21, 22; 20', 21', 22') along the ellipses (17, 18, 19; 17', 18', 19') in opposite directions, - all beams (7, 8, 9) exit the Herriott cell at the point of one of the shared vertices (24, 25; 24') and strike the detector, and wherein - the beams (7, 8, 9) of the at least two of the different radiation sources (10, 11, 12) pass through differing path lengths in the Herriott cell. - the ellipses (17, 18, 19; 17', 18', 19') have two shared vertices (24, 25) which lie inside one another on a shared axis of symmetry and various vertices apart from these, - the beams (7, 8, 9) of at least two of the different radiation sources (10, 11, 12) - enter the Herriott cell at differing points (29, 30, 31) of the associated point pattern (20, 21, 22; 20', 21', 22') and/or - enter the Herriott cell in such a manner that they pass through the associated point patterns (20, 21, 22; 20', 21', 22') along the ellipses (17, 18, 19; 17', 18', 19') in opposite directions, - enter the Herriott cell at differing points (29, 30, 31) of the associated point pattern (20, 21, 22; 20', 21', 22') and/or - enter the Herriott cell in such a manner that they pass through the associated point patterns (20, 21, 22; 20', 21', 22') along the ellipses (17, 18, 19; 17', 18', 19') in opposite directions, - all beams (7, 8, 9) exit the Herriott cell at the point of one of the shared vertices (24, 25; 24') and strike the detector, and wherein - the beams (7, 8, 9) of the at least two of the different radiation sources (10, 11, 12) pass through differing path lengths in the Herriott cell.
An adeno-associated virus vector comprising a recombinant nucleic acid molecule, wherein the recombinant nucleic acid molecule comprises nucleotides 182-4441 of SEQ ID NO: 1 or nucleotides 182-4441 of SEQ ID NO: 3.
An abnormality determination apparatus for a vehicle comprising: a heat flux sensor having an insulating substrate made of a thermoplastic resin to which a plurality of first and second via holes (101, 102) penetrating in a thickness direction thereof are formed, first and second interlayer connection members (130, 140) composed of different metals from each other that are embedded in the first and the second via holes, the first and the second interlayer connection members being connected in series alternately; and a control unit that is configured to perform abnormality determination of a heating element disposed in a vehicle; wherein, at least one of the metals forming the first and the second interlayer connection members is a sintered alloy that is solid-phase sintered in a state where a plurality of metal atoms is maintaining a crystal structure of the metal atoms; the heat flux sensor is configured to be provided to the heating element and to output a sensor signal corresponding to heat flux between the heating element and an outside air; and the control unit is configured to determine, based on the sensor signal, that there is abnormality in the heating element when the heat flux between the heating element and the outside air is out of a predetermined range. a heat flux sensor having an insulating substrate made of a thermoplastic resin to which a plurality of first and second via holes (101, 102) penetrating in a thickness direction thereof are formed, first and second interlayer connection members (130, 140) composed of different metals from each other that are embedded in the first and the second via holes, the first and the second interlayer connection members being connected in series alternately; and a control unit that is configured to perform abnormality determination of a heating element disposed in a vehicle; wherein, at least one of the metals forming the first and the second interlayer connection members is a sintered alloy that is solid-phase sintered in a state where a plurality of metal atoms is maintaining a crystal structure of the metal atoms; the heat flux sensor is configured to be provided to the heating element and to output a sensor signal corresponding to heat flux between the heating element and an outside air; and the control unit is configured to determine, based on the sensor signal, that there is abnormality in the heating element when the heat flux between the heating element and the outside air is out of a predetermined range.
A pod containing one or more beverage ingredients, the pod comprising: a generally rigid outer member having an outer peripheral sidewall defining an open top and extending downwardly from the open top toward a bottom portion and inwardly converging toward an outlet opening, the bottom portion of the sidewall defining a plurality of ribs extending inwardly in the interior of the outer member toward the outlet opening, and beverage outlet flow paths disposed between adjacent ribs and directed toward the outlet opening; a filter supported above the outlet opening and the beverage outlet flow paths by the plurality of ribs; a lid attached to the sidewall of the outer member to close the open top to form a beverage ingredient compartment bounded in part by the lid and the filter, the lid being pierceable to accommodate an inflow of an aqueous medium into the beverage ingredient compartment; and one or more beverage ingredients disposed in the beverage ingredient compartment. a generally rigid outer member having an outer peripheral sidewall defining an open top and extending downwardly from the open top toward a bottom portion and inwardly converging toward an outlet opening, the bottom portion of the sidewall defining a plurality of ribs extending inwardly in the interior of the outer member toward the outlet opening, and beverage outlet flow paths disposed between adjacent ribs and directed toward the outlet opening; a filter supported above the outlet opening and the beverage outlet flow paths by the plurality of ribs; a lid attached to the sidewall of the outer member to close the open top to form a beverage ingredient compartment bounded in part by the lid and the filter, the lid being pierceable to accommodate an inflow of an aqueous medium into the beverage ingredient compartment; and one or more beverage ingredients disposed in the beverage ingredient compartment.
A method of producing acrylic acid from beta-propiolactone, the method comprising: contacting beta-propiolactone with a heterogeneous catalyst comprising crystalline microporous solids under vapor phase conditions, optionally in the presence of a radical polymerization inhibitor, and maintaining the beta-propiolactone in the vapor phase and converting at least a portion of the beta-propiolactone into acrylic acid, wherein the heterogeneous catalyst comprises a zeolite having Lewis and/or Bronsted acidity, and wherein the zeolite is in a hydrogen form or in a metal cation exchanged form. contacting beta-propiolactone with a heterogeneous catalyst comprising crystalline microporous solids under vapor phase conditions, optionally in the presence of a radical polymerization inhibitor, and maintaining the beta-propiolactone in the vapor phase and converting at least a portion of the beta-propiolactone into acrylic acid, wherein the heterogeneous catalyst comprises a zeolite having Lewis and/or Bronsted acidity, and wherein the zeolite is in a hydrogen form or in a metal cation exchanged form.
An air-conditioning control and monitoring device that controls the operation of an air conditioner in accordance with a command from a client terminal, which remote-controls the air conditioner, and that monitors an operating state of the air conditioner so as to provide information regarding the operating state of the air conditioner to the client terminal, the air-conditioning control and monitoring device comprising: a sending unit that sends an air conditioner setting corresponding to a predetermined timing to the client terminal; a settings storage unit that stores the setting in association with identification information when the settings storage unit receives the identification information and a store command from the client terminal having received the setting sent from the sending unit; and a control unit that reads the setting associated with the identification information from the settings storage unit when the control unit receives the identification information and a change command for changing the air conditioner setting from the client terminal, and changes the air conditioner setting to the setting read from the settings storage unit, characterized in that the setting includes an installation environment of the air conditioner. a sending unit that sends an air conditioner setting corresponding to a predetermined timing to the client terminal; a settings storage unit that stores the setting in association with identification information when the settings storage unit receives the identification information and a store command from the client terminal having received the setting sent from the sending unit; and a control unit that reads the setting associated with the identification information from the settings storage unit when the control unit receives the identification information and a change command for changing the air conditioner setting from the client terminal, and changes the air conditioner setting to the setting read from the settings storage unit, characterized in that the setting includes an installation environment of the air conditioner.
An apparatus including: a source of ions; an ion detector (111, 111'); an ion gate; and an ion flow path extending between the source and the detector, wherein the apparatus includes an arrangement (107, 108; 107', 108') for applying an asymmetric electric field substantially parallel to the ion flow path along a part at least of the ion flow path downstream along the ion flow path from the ion gate such that ions flowing along the path are subjected to alternate high and low fields such that the time taken for an ion to reach the detector (111, 111') is dependent on the difference between its low field mobility and its high field mobility. a source of ions; an ion detector (111, 111'); an ion gate; and an ion flow path extending between the source and the detector, wherein the apparatus includes an arrangement (107, 108; 107', 108') for applying an asymmetric electric field substantially parallel to the ion flow path along a part at least of the ion flow path downstream along the ion flow path from the ion gate such that ions flowing along the path are subjected to alternate high and low fields such that the time taken for an ion to reach the detector (111, 111') is dependent on the difference between its low field mobility and its high field mobility.
An assembly comprising a compressor for a turbomachine, and an air discharge system of the compressor comprising: - a supply line whose one end is connected to the level of the compressor, the supply line (2, 6, 8) being configured to take therefrom an air flow compressed by the compressor, - an expansion device comprising an inlet and an outlet, the inlet being connected to another end of the supply line, wherein said expansion device comprises: • A shell forming a volume between the inlet and the outlet, • A porous material occupying the volume, • Means for maintaining the porous material within said shell, wherein the outlet has an open section (S 62) allowing the passage of air which is above the open section (S 61) of the inlet, characterized in that the porous material is a metal knit or a ceramic knit or a composite material knit. - a supply line whose one end is connected to the level of the compressor, the supply line (2, 6, 8) being configured to take therefrom an air flow compressed by the compressor, - an expansion device comprising an inlet and an outlet, the inlet being connected to another end of the supply line, wherein said expansion device comprises: • A shell forming a volume between the inlet and the outlet, • A porous material occupying the volume, • Means for maintaining the porous material within said shell, wherein the outlet has an open section (S 62) allowing the passage of air which is above the open section (S 61) of the inlet, characterized in that the porous material is a metal knit or a ceramic knit or a composite material knit. • A shell forming a volume between the inlet and the outlet, • A porous material occupying the volume, • Means for maintaining the porous material within said shell, wherein the outlet has an open section (S 62) allowing the passage of air which is above the open section (S 61) of the inlet, characterized in that the porous material is a metal knit or a ceramic knit or a composite material knit.
A coating composition for producing a coating, the coating composition comprising a mixture of: • a thermosetting resin system, • graphene nanoplatelets, and • a natural or synthetic oil, wherein the graphene nanoplatelets and the natural or synthetic oil are dispersed in the thermosetting resin system; wherein the thermosetting resin system comprises an allyl resin, an amino resin, a polyester resin, a bis-maleimide resin, a cyanate ester resin, an epoxy resin, a furan resin, a phenolic resin, a polyurea resin, a polyurethane resin, a silicone resin, or a vinyl ester resin; and wherein the synthetic oil is a polyalphaolefin oil, a diester oil, a polyolester oil, a phosphate ester oil, a polyalkylene glycol oil, or a silicone oil; or the natural oil is Albizia benth oil, anchovy oil, argemone oil, avocado oil, canola oil, Capparis zeylanica oil, Cardamine impatiens oil, castor oil, coconut oil, Coriaria oil, corn oil, cottonseed oil, crambe oil, fish oil, grape seed oil, hemp oil, laurel oil, lesquerollic acid, linseed oil, lumbang oil, meadowfoam seed oil, Mesua ferrea oil, mineral oil, mustard oil, neem oil, olive oil, palm oil, peanut oil, pongamia oil, radish oil, rapeseed oil, Ricinus communis oil, rubber seed oil, safflower oil, Santalum album oil, Sebastiana commersoniana oil, sesame oil, Strophantus oil, soybean oil, sugar apple (Annona squamosa) oil, sunflower oil, tigernut oil, or tung oil. • a thermosetting resin system, • graphene nanoplatelets, and • a natural or synthetic oil, wherein the graphene nanoplatelets and the natural or synthetic oil are dispersed in the thermosetting resin system; wherein the thermosetting resin system comprises an allyl resin, an amino resin, a polyester resin, a bis-maleimide resin, a cyanate ester resin, an epoxy resin, a furan resin, a phenolic resin, a polyurea resin, a polyurethane resin, a silicone resin, or a vinyl ester resin; and wherein the synthetic oil is a polyalphaolefin oil, a diester oil, a polyolester oil, a phosphate ester oil, a polyalkylene glycol oil, or a silicone oil; or the natural oil is Albizia benth oil, anchovy oil, argemone oil, avocado oil, canola oil, Capparis zeylanica oil, Cardamine impatiens oil, castor oil, coconut oil, Coriaria oil, corn oil, cottonseed oil, crambe oil, fish oil, grape seed oil, hemp oil, laurel oil, lesquerollic acid, linseed oil, lumbang oil, meadowfoam seed oil, Mesua ferrea oil, mineral oil, mustard oil, neem oil, olive oil, palm oil, peanut oil, pongamia oil, radish oil, rapeseed oil, Ricinus communis oil, rubber seed oil, safflower oil, Santalum album oil, Sebastiana commersoniana oil, sesame oil, Strophantus oil, soybean oil, sugar apple (Annona squamosa) oil, sunflower oil, tigernut oil, or tung oil.
Flood light, in particular for illuminating a stage or a building facade, which contains a multiplicity of light-emitting diodes as light sources, at least some of the light-emitting diodes being switchable between operation in a first operating mode with a first maximum intensity and operation in a second operating mode with a second maximum intensity differing from the first maximum intensity, a plurality of control units (10; 12; 14) being present for the variable control of an emitted light intensity of the part of the light-emitting diodes as a component of the spotlight; 12; 14) are present, the plurality of control units (10; 12; 14) specifying for each operating mode a maximum current, which can be selected by switching over, for setting the respective maximum intensity, characterized in that the plurality of control units (10; 12; 14) each use a modulation circuit to carry out intensity control of the part of the light-emitting diodes up to the respective maximum current, and a brightness of the light-emitting diodes can be set with the respective modulation circuit within a respective operating mode.
A data transmission method performed by a terminal device, comprising: determining a size of a semi-static Hybrid Automatic Repeat Request-Acknowledge, HARQ-ACK, codebook for a Physical Downlink Shared Channel, PDSCH; and performing a corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook, characterized in that, performing the corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook comprises: performing the corresponding HARQ-ACK feedback for the PDSCH with repetition transmissions according to the determined size of the semi-static HARQ-ACK codebook. determining a size of a semi-static Hybrid Automatic Repeat Request-Acknowledge, HARQ-ACK, codebook for a Physical Downlink Shared Channel, PDSCH; and performing a corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook, characterized in that, performing the corresponding HARQ-ACK feedback for the PDSCH according to the determined size of the semi-static HARQ-ACK codebook comprises: performing the corresponding HARQ-ACK feedback for the PDSCH with repetition transmissions according to the determined size of the semi-static HARQ-ACK codebook.
An air conditioning system comprising a heat exchanger unit having a utilization heat exchanger and configured to generate conditioned air through heat exchange in the utilization heat exchanger and supply an air conditioning target space with the conditioned air through a plurality of distribution flow paths communicating with the heat exchanger unit, each of the distribution flow paths including a duct (20, 20a to 20d) connected to the heat exchanger unit and provided for distribution of the conditioned air, and a fan unit (30, 30a to 30d) provided correspondingly to the duct and configured to supply the air conditioning target space with the conditioned air from the heat exchanger unit through the ducts, wherein each of the distribution flow paths further including an actuator (33, 39, 75) configured to individually change supply air volume of the conditioned air supplied to the air conditioning target space, and wherein the air conditioning system further comprising a main controller configured to control the actuators such that airflow volume through the utilization heat exchanger satisfies a predetermined condition, characterized in that at least either the ducts or the fan units each include an airflow volume sensing unit, the main controller is configured to total airflow volume through the distribution flow paths detected by the airflow volume sensing units and control the actuators such that a total satisfies the predetermined condition, the actuators are fan motors of the fan units, and the main controller controls numbers of revolutions of the fan motors in accordance with values of the airflow volume sensing units. each of the distribution flow paths including a duct (20, 20a to 20d) connected to the heat exchanger unit and provided for distribution of the conditioned air, and a fan unit (30, 30a to 30d) provided correspondingly to the duct and configured to supply the air conditioning target space with the conditioned air from the heat exchanger unit through the ducts, wherein each of the distribution flow paths further including an actuator (33, 39, 75) configured to individually change supply air volume of the conditioned air supplied to the air conditioning target space, and wherein the air conditioning system further comprising a main controller configured to control the actuators such that airflow volume through the utilization heat exchanger satisfies a predetermined condition, characterized in that at least either the ducts or the fan units each include an airflow volume sensing unit, the main controller is configured to total airflow volume through the distribution flow paths detected by the airflow volume sensing units and control the actuators such that a total satisfies the predetermined condition, the actuators are fan motors of the fan units, and the main controller controls numbers of revolutions of the fan motors in accordance with values of the airflow volume sensing units.
An agricultural machine, comprising a chassis supporting an open shell, which partially delimits a chamber for accommodating and compressing agricultural products, of the type of grass, wheat, maize, hay, forage, and the like, for the formation of a bale to be subsequently discharged onto the ground, said shell being associated with a closing apparatus, which can move from a first configuration, in which it cooperates with said shell for the delimitation and closure of said chamber, to at least one second configuration, in which it allows the discharging of the bale onto the ground, and vice versa, said closing apparatus comprising a first door, which is articulated about a first pivoting axis, and a second door, which is articulated to said shell about a second pivoting axis and is substantially parallel to said first axis, in said first configuration both of said doors (7, 8) cooperating with said shell to delimit and close said chamber, in said second configuration both of said doors (7, 8) being rotated, in order to discharge the bale onto the ground, said first pivoting axis being arranged at a vertical height that is intermediate with respect to the vertical extension of said shell, and is distanced from the top of said shell and of said chamber, said second door being articulated to said shell about said second pivoting axis that is arranged at the top of the shell and resting on top of said first door, characterized in that said first pivoting axis is arranged to articulate said first door to said shell so that in said second configuration said first door and said second door are both rotated with respect to said shell, with the second door resting on top to said first door being entrained in rotation by said first door.
A positive electrode material for a lithium ion secondary battery comprising: 5% by mass or more and 30% by mass or less of a carbon black composite formed by physically fusing carbon nanotubes and carbon black wherein the ash content of the carbon black composite is 1.0% or less by mass in accordance with JIS K 1469 and the remainder includes olivine-type lithium iron phosphate and wherein the material contains a volatile oxygen-containing functional group which constitutes 1.0% or less by mass of the positive electrode material.