mhurhangee/ep-ind-claims huggingface dataset:
An analyte monitoring device operable to draw a fluid sample from a subject, the device comprising: a housing, a carrier rotatably attached to the housing, the carrier comprising a first plurality of microneedles and moveable by a drive mechanism so that each of the first plurality of microneedles is individually addressable, at least one actuator operable to extend each microneedle to draw the fluid sample from the subject, a controller operable to initiate analyte testing of the fluid sample, and a plurality of monitoring microchannels, wherein each of the first plurality of microneedles is at least intermittently in fluid communication with a corresponding monitoring microchannel, and wherein each monitoring microchannel is associated with a reagent. a housing, a carrier rotatably attached to the housing, the carrier comprising a first plurality of microneedles and moveable by a drive mechanism so that each of the first plurality of microneedles is individually addressable, at least one actuator operable to extend each microneedle to draw the fluid sample from the subject, a controller operable to initiate analyte testing of the fluid sample, and a plurality of monitoring microchannels, wherein each of the first plurality of microneedles is at least intermittently in fluid communication with a corresponding monitoring microchannel, and wherein each monitoring microchannel is associated with a reagent.
An apparatus comprising a thermostat and a housing, wherein said thermostat is installed in said housing, and wherein said housing is connected to a plurality of passages (31, 32, 33) through which a cooling water flows, said passages being linked or blocked by the actuation of a valve in response to temperature changes of the cooling water, wherein said thermostat comprises: a thermoelement having a piston that slides up and down as a result of the temperature changes and a flanged valve in its perimeter edge, said flanged valve being actuated by the advancing and retreating action of said piston; a spring which is arranged so as to surround said thermoelement and one end of which elastically pressure-contacts the rear side of said flanged valve; an upper frame in which a valve seat that abuts against the upper side of said flanged valve is formed; and a lower frame that is pressure-contacted by the other end of said spring, wherein latch frames are formed in said upper frame and a plurality of latch hooks that latch to said latch frames are formed in said lower frame, said upper frame and said lower frame being integrally formed by forming at least said lower frame from an elastic material and utilizing the elasticity to latch and fix the latch hooks to said latch frames, characterized in that, in a state in which said upper frame and said lower frame are latched, the length dimension of said latch hooks formed in the lower frame is larger than the gap dimension between the lower frame and the inner wall of said housing.
A composition for use in the prevention or improvement of type IV allergy which is contact dermatitis, the composition comprising, as an active ingredient, a cell body of a lactic acid bacterium belonging to Lactobacillus paracasei, a cultured product or fermented product thereof, or a polysaccharide produced thereby, wherein the lactic acid bacterium is Lactobacillus paracasei strain IJH-SONE68 (Accession No. NITE BP-02242), and wherein the polysaccharide is a neutral polysaccharide having a structure in which N-acetylglucosamines are linked with each other via α-1,6 bond and/or an acidic polysaccharide composed mainly of glucoses and mannoses.
A synthetic disaccharide lipid compound having the structure: or a pharmaceutically acceptable salt thereof, or having the structure:, or a pharmaceutically acceptable salt thereof. or a pharmaceutically acceptable salt thereof, or having the structure:, or a pharmaceutically acceptable salt thereof.
A method implemented at a network device, comprising: determining downlink control information, DCI, for instructing a first terminal device (102, 103) to perform blind detection of data transmitted on a resource region allocated to the first terminal device (102, 103), the DCI including a plurality of candidate resource sets for data transmission to the first terminal device (102, 103); transmitting the DCI to the first terminal device (102, 103); and indicating a subset of the plurality of candidate resource sets to the first terminal device (102, 103), the subset being information for enabling the terminal device to perform detection of the data based on the subset of the plurality of candidate resource sets, wherein indicating the subset of the plurality of candidate resource sets comprises: - determining a further DCI for instructing the first terminal device to perform detection of the data transmitted on the resource region, the further DCI indicating the subset of the plurality of candidate resource sets; and - transmitting the further DCI to the first terminal device. determining downlink control information, DCI, for instructing a first terminal device (102, 103) to perform blind detection of data transmitted on a resource region allocated to the first terminal device (102, 103), the DCI including a plurality of candidate resource sets for data transmission to the first terminal device (102, 103); transmitting the DCI to the first terminal device (102, 103); and indicating a subset of the plurality of candidate resource sets to the first terminal device (102, 103), the subset being information for enabling the terminal device to perform detection of the data based on the subset of the plurality of candidate resource sets, wherein indicating the subset of the plurality of candidate resource sets comprises: - determining a further DCI for instructing the first terminal device to perform detection of the data transmitted on the resource region, the further DCI indicating the subset of the plurality of candidate resource sets; and - transmitting the further DCI to the first terminal device. - determining a further DCI for instructing the first terminal device to perform detection of the data transmitted on the resource region, the further DCI indicating the subset of the plurality of candidate resource sets; and - transmitting the further DCI to the first terminal device.
A method for manufacturing a heat radiation member characterized by comprising: disposing a mesh on a metal base material made of a first metal material; and forming a heat radiation section made of granulated particles on a surface of the metal base material by spraying granulated particles granulated from particles made of a second metal material different from the first metal material and particles made of an oxide of the second metal material on a surface of the metal base material on which the mesh was disposed. disposing a mesh on a metal base material made of a first metal material; and forming a heat radiation section made of granulated particles on a surface of the metal base material by spraying granulated particles granulated from particles made of a second metal material different from the first metal material and particles made of an oxide of the second metal material on a surface of the metal base material on which the mesh was disposed.
An apparatus to measure the cognitive processes of a subject that are important in making split-second decisions in fast-paced, visually dynamic environments, the apparatus comprising: a display to present a plurality of stimuli to the subject, wherein the plurality of stimuli comprises stimuli to measure visual perception of the subject, stimuli to measure memory and learning of the subject and stimuli to measure command and control of the subject; and a processor coupled to the display, the processor comprising instructions to determine a visual perception of the subject, a memory and learning of the subject, and a command and control of the subject and wherein the processor comprises instructions to provide on the display an assessment task configured to measure an ability of the subject to regulate a decision to act or withhold action, based on whether a moving visual target is predicted to intercept or avoid a point in space, the processor comprises instructions to measure a response to a stimulus shown on the display, including the accuracy (%) and decision speed (ms) of the subject. a display to present a plurality of stimuli to the subject, wherein the plurality of stimuli comprises stimuli to measure visual perception of the subject, stimuli to measure memory and learning of the subject and stimuli to measure command and control of the subject; and a processor coupled to the display, the processor comprising instructions to determine a visual perception of the subject, a memory and learning of the subject, and a command and control of the subject and wherein the processor comprises instructions to provide on the display an assessment task configured to measure an ability of the subject to regulate a decision to act or withhold action, based on whether a moving visual target is predicted to intercept or avoid a point in space, the processor comprises instructions to measure a response to a stimulus shown on the display, including the accuracy (%) and decision speed (ms) of the subject.
A process for reacting a cellulose ether with an aliphatic monocarboxylic acid anhydride and a dicarboxylic acid anhydride, wherein the process comprises the steps of a) preparing a reaction mixture comprising the cellulose ether, the dicarboxylic acid anhydride and a reaction diluent and heating the reaction mixture to a temperature of from 60°C to 110 °C prior to, during or after mixing the components of the reaction mixture, wherein the reaction diluent is an aliphatic carboxylic acid and wherein reaction mixture additionally comprises an esterification catalyst which is an alkali metal carboxylate, and b) adding the monocarboxylic acid anhydride continuously or in at least three portions to the reaction mixture of step a) and completing the reaction, wherein the cellulose ether is esterified with (i) succinic anhydride or phthalic anhydride and (ii) an aliphatic monocarboxylic acid anhydride selected from the group consisting of acetic anhydride, butyric anhydride and propionic anhydride and wherein the cellulose ether is hydroxypropyl methylcellulose. a) preparing a reaction mixture comprising the cellulose ether, the dicarboxylic acid anhydride and a reaction diluent and heating the reaction mixture to a temperature of from 60°C to 110 °C prior to, during or after mixing the components of the reaction mixture, wherein the reaction diluent is an aliphatic carboxylic acid and wherein reaction mixture additionally comprises an esterification catalyst which is an alkali metal carboxylate, and b) adding the monocarboxylic acid anhydride continuously or in at least three portions to the reaction mixture of step a) and completing the reaction, wherein the cellulose ether is esterified with (i) succinic anhydride or phthalic anhydride and (ii) an aliphatic monocarboxylic acid anhydride selected from the group consisting of acetic anhydride, butyric anhydride and propionic anhydride and wherein the cellulose ether is hydroxypropyl methylcellulose.
A secure transmission proxy apparatus, comprising: 1.1 a receiving unit, configured to receive a service request message sent by a client; 1.2 a decryption unit, configured to decrypt the service request message, wherein the service request message comprises a service type; 1.3 a verification unit, configured to perform verification on service permission of a decrypted service request message according to the service type; 1.4 a conversion unit, configured to perform protocol conversion on the decrypted service request message if the service permission verification succeeds; and 1.5 a sending unit, configured to send a service request message obtained after the protocol conversion to a service server side; 1.6 wherein the service request message further comprises at least a message channel ID and user information; wherein 1.7 the verification unit is configured to perform first verification on the service permission according to the message channel ID and the service type, and perform second verification on the service permission according to the user information and the service type if the first verification succeeds; and 1.8 the conversion unit is configured to perform protocol conversion on the decrypted service request message after the second verification succeeds. 1.9 wherein the verification unit is specifically configured to search a preset database for a first service type corresponding to the message channel ID, wherein the first verification succeeds if the service type is any service type corresponding to the message channel ID. 1.1 a receiving unit, configured to receive a service request message sent by a client; 1.2 a decryption unit, configured to decrypt the service request message, wherein the service request message comprises a service type; 1.3 a verification unit, configured to perform verification on service permission of a decrypted service request message according to the service type; 1.4 a conversion unit, configured to perform protocol conversion on the decrypted service request message if the service permission verification succeeds; and 1.5 a sending unit, configured to send a service request message obtained after the protocol conversion to a service server side; 1.6 wherein the service request message further comprises at least a message channel ID and user information; wherein 1.7 the verification unit is configured to perform first verification on the service permission according to the message channel ID and the service type, and perform second verification on the service permission according to the user information and the service type if the first verification succeeds; and 1.8 the conversion unit is configured to perform protocol conversion on the decrypted service request message after the second verification succeeds. 1.9 wherein the verification unit is specifically configured to search a preset database for a first service type corresponding to the message channel ID, wherein the first verification succeeds if the service type is any service type corresponding to the message channel ID.
Mixture comprising at least two ester compounds of the general formula (Ia) wherein n' and n" are either 1 and 2 or 2 and 1, m' is 1 to 5, the remainder R 1 is selected from the group consisting of hydrogen, branched or unbranched C 1 - to C 60 alkyl residues, branched or unbranched C 2 - to C 60 alkenyl residues, C 7 - to C 60 arylalkyl residues, C 1 - to C 60 heteroaryalkyl residues, and/or C 6 - to C 60 aryl residues, the remainder R 2 is selected from the group consisting of branched or unbranched C 1 - to C 60 alkyl residues, branched or unbranched C 2 - to C 60 alkenyl residues, C 7 - to C 60 arylalkyl residues, and/or C 6 - to C 60 heteroarylalkyl residues, and/or cyclic saturated or unsaturated C 5 - to C 60 alkyl residues, wherein these are unsubstituted or substituted singly or multiple times with at least one substitute selected from the group from OH. n' and n" are either 1 and 2 or 2 and 1, m' is 1 to 5, the remainder R 1 is selected from the group consisting of hydrogen, branched or unbranched C 1 - to C 60 alkyl residues, branched or unbranched C 2 - to C 60 alkenyl residues, C 7 - to C 60 arylalkyl residues, C 1 - to C 60 heteroaryalkyl residues, and/or C 6 - to C 60 aryl residues, the remainder R 2 is selected from the group consisting of branched or unbranched C 1 - to C 60 alkyl residues, branched or unbranched C 2 - to C 60 alkenyl residues, C 7 - to C 60 arylalkyl residues, and/or C 6 - to C 60 heteroarylalkyl residues, and/or cyclic saturated or unsaturated C 5 - to C 60 alkyl residues, wherein these are unsubstituted or substituted singly or multiple times with at least one substitute selected from the group from OH.
An infant or follow-on formula comprising a proteinaceous composition comprising: a) 3.2-5.0 g threonine per 100 g protein; b) 0.7-1.1 g tryptophan per 100 g protein; c) a ratio of tryptophan to the sum of all neutral amino acids isoleucine, leucine, valine, phenylalanine, tyrosine, and methionine of from 0.030 to 0.025; and d) 5.0-7.8 g isoleucine per 100 g protein, 6.6-10.3 g leucine per 100 g protein, 6.2-9.7 g lysine per 100 g protein, 1.8-2.8 g methionine per 100 g protein, and 5.2-8.1 g valine per 100 g protein, wherein the formula comprises a protein intake level of: - 1.4 to 1.8 g of protein per 100 kcal of formula; or - 0.9 to 1.2 g of protein per 100 ml of formula. a) 3.2-5.0 g threonine per 100 g protein; b) 0.7-1.1 g tryptophan per 100 g protein; c) a ratio of tryptophan to the sum of all neutral amino acids isoleucine, leucine, valine, phenylalanine, tyrosine, and methionine of from 0.030 to 0.025; and d) 5.0-7.8 g isoleucine per 100 g protein, 6.6-10.3 g leucine per 100 g protein, 6.2-9.7 g lysine per 100 g protein, 1.8-2.8 g methionine per 100 g protein, and 5.2-8.1 g valine per 100 g protein, wherein the formula comprises a protein intake level of: - 1.4 to 1.8 g of protein per 100 kcal of formula; or - 0.9 to 1.2 g of protein per 100 ml of formula. - 1.4 to 1.8 g of protein per 100 kcal of formula; or - 0.9 to 1.2 g of protein per 100 ml of formula.
An aqueous perfluoropolyether oil emulsion comprising, as an emulsifier, 0.01 to 30 parts by weight of a perfluoroalkylethyl phosphonic acid salt represented by the general formula: C n F 2n+1 CH 2 CH 2 P (OM 1)(OM 2) wherein M 1 is a hydrogen atom, ammonium salt, or organic amine salt, M 2 is an ammonium salt or organic amine salt, and n is an integer of 1 to 6, based on 100 parts by weight of the perfluoropolyether oil represented by the general formula: RfO[CF(CF 3)CF 2 O] m Rf' [Ia] wherein Rf and Rf' are perfluoro-lower alkyl groups having 1 to 5 carbon atoms, and m is an integer of 2 to 200.
An apparatus comprising: a preamplification semiconductor optical amplifier, SOA, section (SOA1; SOA12) configured to receive at a first output a first optical signal transmitted through an optical fiber and to perform preamplification of the first optical signal to generate at a second output an amplified optical signal; a first photodiode (PD, PON-PD) optically connected to the second output of the preamplification SOA section (SOA1; SOA12) and configured to convert the amplified optical signal into a first electrical signal; a source signal generation SOA section (SOA2; SOA12) configured to generate an Optical Time Domain Reflectometry, OTDR, source signal for transmission through the optical fiber in a direction opposite to the first optical signal; wherein the preamplification SOA section is configured to receive at the first output in response to the OTDR source signal an OTDR back-reflected signal transmitted through the optical fiber and to perform preamplification of the OTDR back-reflected signal. a preamplification semiconductor optical amplifier, SOA, section (SOA1; SOA12) configured to receive at a first output a first optical signal transmitted through an optical fiber and to perform preamplification of the first optical signal to generate at a second output an amplified optical signal; a first photodiode (PD, PON-PD) optically connected to the second output of the preamplification SOA section (SOA1; SOA12) and configured to convert the amplified optical signal into a first electrical signal; a source signal generation SOA section (SOA2; SOA12) configured to generate an Optical Time Domain Reflectometry, OTDR, source signal for transmission through the optical fiber in a direction opposite to the first optical signal; wherein the preamplification SOA section is configured to receive at the first output in response to the OTDR source signal an OTDR back-reflected signal transmitted through the optical fiber and to perform preamplification of the OTDR back-reflected signal.
A water server comprising a cold water tank configured to cool water stored in the cold water tank, a water supply line through which water is supplied into the cold water tank, a cold water discharge line extending from the cold water tank to an atmosphere, and a baffle configured to interfere with a downward flow of water introduced into the cold water tank from the water supply line, wherein the baffle has an outermost circumferential portion, wherein the cold water tank has a lower portion (h) within a height range extending from a bottom of the cold water tank to the outermost circumferential portion, wherein the water server is configured such that a low-temperature water layer is generated in the lower portion (h) of the cold water tank, the low-temperature water layer being lower in temperature than water in the cold water tank above the baffle, and such that water forming the low-temperature water layer is discharged through the cold water discharge line, and wherein the baffle is formed with at least one water transfer passage at a portion of the baffle located inwardly of the outermost circumferential portion such that water introduced into a portion of the cold water tank above the baffle can flow through the water transfer passage into the lower portion (h) of the cold water tank, wherein the water transfer passage has no portion extending in a vertical direction over an entire vertical length of the water transfer passage, and is configured such that water is discharged into the lower portion (h) of the cold water tank from the water transfer passage in a horizontal direction or a direction close to a horizontal direction characterized in that the at least one water transfer passage comprises a plurality of water transfer passages having terminal end openings (e, 5g) which face a single common direction of rotation about a common vertical axis.
An ultracapacitor module, comprising: an ultracapacitor cell stack containing one or more ultracapacitor cells; a bidirectional boost/buck DC/DC converter, wherein the ultracapacitor cell stack and the DC/DC converter are configured to be connected in series with a voltage supply bus of a vehicle; one or more voltage sensors configured to determine an operating voltage Vo of the voltage supply bus; and an electronic controller in electrical communication with the DC/DC converter and the one or more voltage sensors, characterised in that the electronic controller is configured to: control the DC/DC converter using a first set of control parameters when the operating voltage Vo is greater than a target bus voltage value Vt, and control the DC/DC converter using a second set of control parameters different from the first set of control parameters when the operating voltage Vo is less than the target bus voltage value Vt. an ultracapacitor cell stack containing one or more ultracapacitor cells; a bidirectional boost/buck DC/DC converter, wherein the ultracapacitor cell stack and the DC/DC converter are configured to be connected in series with a voltage supply bus of a vehicle; one or more voltage sensors configured to determine an operating voltage Vo of the voltage supply bus; and an electronic controller in electrical communication with the DC/DC converter and the one or more voltage sensors, characterised in that the electronic controller is configured to: control the DC/DC converter using a first set of control parameters when the operating voltage Vo is greater than a target bus voltage value Vt, and control the DC/DC converter using a second set of control parameters different from the first set of control parameters when the operating voltage Vo is less than the target bus voltage value Vt. control the DC/DC converter using a first set of control parameters when the operating voltage Vo is greater than a target bus voltage value Vt, and control the DC/DC converter using a second set of control parameters different from the first set of control parameters when the operating voltage Vo is less than the target bus voltage value Vt.