mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising (a) microparticles which comprise cinmethylin and a polymeric material which surrounds or embeds cinmethylin; and (b) at least one herbicide different from cinmethylin which is selected from the group consisting of quinmerac, picolinafen and diflufenican; where the at least one herbicide different from cinmethylin is not present in the microparticles; where the microparticles are microcapsules comprising a shell and a core, where the core comprises cinmethylin and the shell comprises polyurea obtainable by polyaddition reaction of at least one aliphatic or aromatic polyisocyanate and at least one aliphatic polyamine; where the polyisocyanate is selected from the group consisting of hexamethylene diisocyanate, isophorone diisocyanate, diphenylmethane-4,4'-diisocyanate, toluene diisocyanates, and oligomeric isocyanates; and where the polyamine is an α,ω-diamine of the formula H 2 N-(CH 2) p -NH 2, wherein p is an integer from 2 to 6; where the composition contains the microparticles in an amount of from 30 to 60% by weight, based on the total weight of the composition. (a) microparticles which comprise cinmethylin and a polymeric material which surrounds or embeds cinmethylin; and (b) at least one herbicide different from cinmethylin which is selected from the group consisting of quinmerac, picolinafen and diflufenican; where the at least one herbicide different from cinmethylin is not present in the microparticles; where the microparticles are microcapsules comprising a shell and a core, where the core comprises cinmethylin and the shell comprises polyurea obtainable by polyaddition reaction of at least one aliphatic or aromatic polyisocyanate and at least one aliphatic polyamine; where the polyisocyanate is selected from the group consisting of hexamethylene diisocyanate, isophorone diisocyanate, diphenylmethane-4,4'-diisocyanate, toluene diisocyanates, and oligomeric isocyanates; and where the polyamine is an α,ω-diamine of the formula H 2 N-(CH 2) p -NH 2, wherein p is an integer from 2 to 6; where the composition contains the microparticles in an amount of from 30 to 60% by weight, based on the total weight of the composition.
A method comprising: transmitting, by a first device, a body area network session initiation signal indicating an availability to establish an on-body communication with a second device; receiving, by the first device, at least one BAN acknowledgement signal from the second device; determining an elapsed time between the transmission of the BAN session initiation signal and the receipt of the at least one BAN acknowledgment signal; determining (520,535), for each received BAN acknowledgment signal, one of: that the elapsed time is greater than a predetermined threshold time, or; that the elapsed time is equal to or less than the predetermined threshold time; wherein the predetermined threshold time indicates a period of time under which the at least one BAN signal is considered to have propagated by over-the-air transmission, and over which the at least one BAN signal is considered to have propagated by on-body conduction; and proceeding, by the first device, with BAN session initiation upon a positive determination that the elapsed time is greater than the threshold time. transmitting, by a first device, a body area network session initiation signal indicating an availability to establish an on-body communication with a second device; receiving, by the first device, at least one BAN acknowledgement signal from the second device; determining an elapsed time between the transmission of the BAN session initiation signal and the receipt of the at least one BAN acknowledgment signal; determining (520,535), for each received BAN acknowledgment signal, one of: that the elapsed time is greater than a predetermined threshold time, or; that the elapsed time is equal to or less than the predetermined threshold time; that the elapsed time is greater than a predetermined threshold time, or; that the elapsed time is equal to or less than the predetermined threshold time; wherein the predetermined threshold time indicates a period of time under which the at least one BAN signal is considered to have propagated by over-the-air transmission, and over which the at least one BAN signal is considered to have propagated by on-body conduction; and proceeding, by the first device, with BAN session initiation upon a positive determination that the elapsed time is greater than the threshold time.
Battery system comprising a housing having a bottom surface and a top surface, a plurality of cells arranged in an interior space of the housing, and a temperature control device arranged therein for supplying heat to the cells and/or carrying heat away therefrom by means of a liquid heat transfer medium, wherein the housing comprises housing openings (7.1, 7.2, 7.5, 7.6), which enable gas exchange between the interior space and the exterior of the housing, and wherein the housing comprises housing portions (2.1, 2.6), which are configured to conduct exiting heat transfer medium to housing portions (2.2, 2.3, 2.4, 2.5) by means of slopes (6.1, 6.2) on the bottom surface and slopes (6.3, 6.4) on the top surface, regardless of the installation position of the battery system, wherein the housing opening (7.1) is arranged in the housing portion (2.2), the housing opening (7.2) is arranged in the housing portion (2.3), the housing opening (7.5) is arranged in the housing portion (2.4) and the housing opening (7.6) is arranged in the housing portion (2.5), and the housing consists of two housing halves, which are identical parts such that the construction of the upper and lower housing halves is a mirror image.
In a computer system that implements a speech encoder, a method comprising: receiving speech input; encoding the speech input to produce encoded data, including: filtering input values based on the speech input according to linear prediction coefficients, thereby producing residual values; and encoding the residual values, including: determining a set of phase values; and encoding the set of phase values, including representing at least some of the set of phase values using a linear component and a weighted sum of basis functions; and storing the encoded data for output as part of a bitstream. receiving speech input; encoding the speech input to produce encoded data, including: filtering input values based on the speech input according to linear prediction coefficients, thereby producing residual values; and encoding the residual values, including: determining a set of phase values; and encoding the set of phase values, including representing at least some of the set of phase values using a linear component and a weighted sum of basis functions; and filtering input values based on the speech input according to linear prediction coefficients, thereby producing residual values; and encoding the residual values, including: determining a set of phase values; and encoding the set of phase values, including representing at least some of the set of phase values using a linear component and a weighted sum of basis functions; and determining a set of phase values; and encoding the set of phase values, including representing at least some of the set of phase values using a linear component and a weighted sum of basis functions; and storing the encoded data for output as part of a bitstream.
A heat transfer device comprising: at least an aggregate of fibres or sheet of fibres with internal passages and holes capable of capillary transport of liquids from a heat source region (54, 74) to heat dissipation region (56, 76) and vice versa; a coolant fluid in sufficient amount absorbed or contained by said fibres or sheet of fibres with internal passages and holes capable of capillary transport of liquids; a pressure tension member comprising a strong yet resilient structure placed within a confined space and exerting pressure on said aggregate of fibres or sheet of fibres with internal passages and holes capable of capillary transport of liquids against said heat source region (54, 74) and/or heat dissipation region (56, 76), wherein a plurality of undulations are provided on said pressure tension member; and a casing enclosing hermetically the aforesaid in the confined space, characterized in that: the heat source region (54, 74) and the heat dissipation region (56, 76) are located at opposite ends of the casing; and the pressure tension member) is configured such that it occupies minimal volume in the casing, with pressure tensioning portions of the pressure tension member being maximized at regions where the pressure should be accentuated at the heat source and heat dissipation regions, and minimized in the region therebetween. at least an aggregate of fibres or sheet of fibres with internal passages and holes capable of capillary transport of liquids from a heat source region (54, 74) to heat dissipation region (56, 76) and vice versa; a coolant fluid in sufficient amount absorbed or contained by said fibres or sheet of fibres with internal passages and holes capable of capillary transport of liquids; a pressure tension member comprising a strong yet resilient structure placed within a confined space and exerting pressure on said aggregate of fibres or sheet of fibres with internal passages and holes capable of capillary transport of liquids against said heat source region (54, 74) and/or heat dissipation region (56, 76), wherein a plurality of undulations are provided on said pressure tension member; and a casing enclosing hermetically the aforesaid in the confined space, the heat source region (54, 74) and the heat dissipation region (56, 76) are located at opposite ends of the casing; and the pressure tension member) is configured such that it occupies minimal volume in the casing, with pressure tensioning portions of the pressure tension member being maximized at regions where the pressure should be accentuated at the heat source and heat dissipation regions, and minimized in the region therebetween.
An Alternating-current-Direct-current (AC-DC) dual-use Light Emitting Diode driving circuit, suitable for driving an LED, comprising: an input power circuit for outputting a current signal (I C); a buck-boost converter for receiving the current signal (I C) and outputting a driving signal (I O), the AC-DC dual-use LED driving circuit driving the LED by using the driving signal (I O), the buck-boost converter comprising a switching transistor, a feedback resistor, a low pass filter and a free-wheeling diode, and one end of the free-wheeling diode connected to the low pass filter and the other end of the free-wheeling diode connected to the LED; and a PWM signal controller; wherein the circuit further comprises: the PWM signal controller for outputting a PWM signal according to a feedback signal (V B) passing through the low pass filter for sequentially turning on and turning off the switching transistor, with a floating ground terminal (GNDF) of the PWM signal controller electrically connected to the switching transistor and the low pass filter and the two ends of the feedback resistor respectively connected to the floating ground terminal (GNDF) and the low pass filter, characterized by the buck-boost converter comprising a first inductor and a sensing resistor connected to the floating ground terminal (GNDF) of the PWM signal controller, wherein the PWM signal controller detects via the sensing resistor a first current (I L1) passing through the first inductor. an input power circuit for outputting a current signal (I C); a buck-boost converter for receiving the current signal (I C) and outputting a driving signal (I O), the AC-DC dual-use LED driving circuit driving the LED by using the driving signal (I O), the buck-boost converter comprising a switching transistor, a feedback resistor, a low pass filter and a free-wheeling diode, and one end of the free-wheeling diode connected to the low pass filter and the other end of the free-wheeling diode connected to the LED; and a PWM signal controller; wherein the circuit further comprises: the PWM signal controller for outputting a PWM signal according to a feedback signal (V B) passing through the low pass filter for sequentially turning on and turning off the switching transistor, with a floating ground terminal (GNDF) of the PWM signal controller electrically connected to the switching transistor and the low pass filter and the two ends of the feedback resistor respectively connected to the floating ground terminal (GNDF) and the low pass filter, characterized by the buck-boost converter comprising a first inductor and a sensing resistor connected to the floating ground terminal (GNDF) of the PWM signal controller, wherein the PWM signal controller detects via the sensing resistor a first current (I L1) passing through the first inductor.
An oligonucleotide derivative or a salt thereof comprising a circular oligonucleotide and a linear oligonucleotide, wherein the circular oligonucleotide and the linear oligonucleotide have base sequences complementary to each other, and form a complex via a hydrogen bond between the complementary base sequences, and wherein the circular oligonucleotide has a base length of 10 to 40, and wherein the circular oligonucleotide is represented by formula 1: wherein L1 and L2 each represents a linker; n1 and n2 each independently represents an integer of 0 to 10; M represents a moiety comprising a chemical structure that is cleaved by an intracellular environment; and X represents an oligonucleotide. the circular oligonucleotide and the linear oligonucleotide have base sequences complementary to each other, and form a complex via a hydrogen bond between the complementary base sequences, and wherein the circular oligonucleotide has a base length of 10 to 40, and wherein the circular oligonucleotide is represented by formula 1: wherein L1 and L2 each represents a linker; n1 and n2 each independently represents an integer of 0 to 10; M represents a moiety comprising a chemical structure that is cleaved by an intracellular environment; and X represents an oligonucleotide. L1 and L2 each represents a linker; n1 and n2 each independently represents an integer of 0 to 10; M represents a moiety comprising a chemical structure that is cleaved by an intracellular environment; and X represents an oligonucleotide.
A process for producing bisphenol-A, the process comprising: (a) reacting acetone and phenol in the presence of a catalyst system comprising an acidic heterogeneous catalyst and a catalyst promoter comprising at least one organic sulfur-containing compound to produce a reaction effluent comprising bisphenol-A, water, unreacted acetone, unreacted phenol and at least part of the catalyst promoter; (b) distilling at least part of the reaction effluent to remove water, catalyst promoter and unreacted acetone, and leave a residual stream containing bisphenol A; (c) contacting at least part of the residual stream with a basic anion exchange resin to produce a purified stream; and (d) recovering bisphenol-A from the purified stream. (a) reacting acetone and phenol in the presence of a catalyst system comprising an acidic heterogeneous catalyst and a catalyst promoter comprising at least one organic sulfur-containing compound to produce a reaction effluent comprising bisphenol-A, water, unreacted acetone, unreacted phenol and at least part of the catalyst promoter; (b) distilling at least part of the reaction effluent to remove water, catalyst promoter and unreacted acetone, and leave a residual stream containing bisphenol A; (c) contacting at least part of the residual stream with a basic anion exchange resin to produce a purified stream; and (d) recovering bisphenol-A from the purified stream.
Composition for production of rigid polyurethane foam, comprising at least one isocyanate component, a polyol component, optionally a catalyst that catalyses the formation of a urethane or isocyanurate bond, optionally blowing agents, where the composition additionally comprises polyalkylsiloxane containing no polyether modification, and polyether-modified siloxane, characterized in that the polyalkylsiloxanes are used in combination with polyether-modified siloxanes in a mass ratio of 1:5 to 1:200.
Dextran sulfate, or a pharmaceutically acceptable salt thereof, having an average molecular weight equal to or below 10 000 Da for use in treating, inhibiting or preventing glaucoma in a subject.
A multiband antenna transmission device, comprising: a driving gear; a shifter, wherein the shifter and the driving gear are coaxially and rotatably arranged, and the shifter comprises a plate and a boss protruding from a side of the plate; and a plurality of screw assemblies, arranged in a circumferential direction of the driving gear, with each of the plurality of screw assemblies comprising: a lead screw, a driven gear, and a first elastic member arranged between the lead screw and the driven gear; characterized in that the driven gear is selectively connected with or separated from the lead screw; and the multiband antenna transmission device is configured such that the boss sequentially pushes the driven gear of one of the plurality of screw assemblies, during rotation of the shifter, into connection with the corresponding lead screw and into mesh with the driving gear for transmission. a driving gear; a shifter, wherein the shifter and the driving gear are coaxially and rotatably arranged, and the shifter comprises a plate and a boss protruding from a side of the plate; and a plurality of screw assemblies, arranged in a circumferential direction of the driving gear, with each of the plurality of screw assemblies comprising: a lead screw, a driven gear, and a first elastic member arranged between the lead screw and the driven gear; characterized in that the driven gear is selectively connected with or separated from the lead screw; and the multiband antenna transmission device is configured such that the boss sequentially pushes the driven gear of one of the plurality of screw assemblies, during rotation of the shifter, into connection with the corresponding lead screw and into mesh with the driving gear for transmission.
Wall duct having a wall and a wall duct element for a fluid line, wherein the wall duct element is provided with a housing, which has a piercing region running in an axial direction having a fastening geometry and a stop, wherein the piercing region has a bearing section and wherein, on a side of the bearing section facing away from the stop, the fastening geometry has several formations protruding over the bearing section and having a rear wall facing towards the stop, and at least one radially sprung projection, which is displaced in the peripheral direction with respect to the formations, wherein a sprung projection is arranged between at least two formations, wherein the radially sprung projection protrudes in an axial direction with respect to the rear wall in the direction of the stop, characterised in that the wall has a passage opening which has an inner contour adapted to the formations, wherein a seal is arranged between the stop and the wall.
A method for communicating in a wireless local area network, WLAN, comprising: transmitting, from a wireless device to an access point, AP, an Access Network Query Protocol, ANQP, request for a Third Generation Partnership Project,3GPP, capabilities element prior to the wireless device associating with the AP; and receiving, at the wireless device prior to the wireless device associating with the AP, an ANQP response from the AP, wherein the ANQP response includes the 3GPP capabilities element, wherein the 3GPP capabilities element includes one or more 3GPP entity fields, each 3GPP entity field indicating whether a corresponding 3GPP capability is supported by the WLAN, and wherein the 3GPP capabilities element is defined as a Wi-Fi Alliance element. transmitting, from a wireless device to an access point, AP, an Access Network Query Protocol, ANQP, request for a Third Generation Partnership Project,3GPP, capabilities element prior to the wireless device associating with the AP; and receiving, at the wireless device prior to the wireless device associating with the AP, an ANQP response from the AP, wherein the ANQP response includes the 3GPP capabilities element, wherein the 3GPP capabilities element includes one or more 3GPP entity fields, each 3GPP entity field indicating whether a corresponding 3GPP capability is supported by the WLAN, and wherein the 3GPP capabilities element is defined as a Wi-Fi Alliance element.
A heater control device including: a tank heater for heating a reducing agent stored in a tank; and a piping heater for heating the reducing agent in a flow channel including a supply channel, the heater control device comprising: a first current supply circuit configured to supply a current to the tank heater; a second current supply circuit configured to supply a current to the piping heater; a common current supply circuit that connects between a battery and each of the first current supply circuit and the second current supply circuit; and a heater control unit configured to control driving of the tank heater and the piping heater on the basis of a total value of the current supplied to the tank heater and the current supplied to the piping heater and a rated current value of the common current supply circuit; wherein the heater control unit is configured to start driving the piping heater at the time when a sum of the supply current value to the tank heater and a control target current value of the piping heater becomes smaller than the rated current value of the common current supply circuit after the tank heater starts being driven. a first current supply circuit configured to supply a current to the tank heater; a second current supply circuit configured to supply a current to the piping heater; a common current supply circuit that connects between a battery and each of the first current supply circuit and the second current supply circuit; and a heater control unit configured to control driving of the tank heater and the piping heater on the basis of a total value of the current supplied to the tank heater and the current supplied to the piping heater and a rated current value of the common current supply circuit; wherein the heater control unit is configured to start driving the piping heater at the time when a sum of the supply current value to the tank heater and a control target current value of the piping heater becomes smaller than the rated current value of the common current supply circuit after the tank heater starts being driven.