mhurhangee/ep-ind-claims huggingface dataset:
A spray tip for dispensing fluids that react together comprising: a first lumen; a second lumen; a dispensing cap located at distal ends of said respective first and second lumens (138, 140) and defining a distal end of said spray tip, said dispensing cap comprising a distal end wall defining a closed end of said dispensing cap; a first spray orifice formed in said distal end wall that is in fluid communication with said first lumen, wherein said first spray orifice includes a first raised mound that projects distally from an outer surface of said distal end wall of said dispensing cap, a second spray orifice formed in said distal end wall that is in fluid communication with said second lumen, wherein said second spray orifice includes a second raised mound that projects distally from the outer surface of said distal end wall of said dispensing cap, and an external dividing wall that projects distally from said distal end wall of said dispensing cap and that extends between said first and second spray orifices (220, 226) for forming a barrier between said first and second spray orifices (220, 226). a first lumen; a second lumen; a dispensing cap located at distal ends of said respective first and second lumens (138, 140) and defining a distal end of said spray tip, said dispensing cap comprising a distal end wall defining a closed end of said dispensing cap; a first spray orifice formed in said distal end wall that is in fluid communication with said first lumen, wherein said first spray orifice includes a first raised mound that projects distally from an outer surface of said distal end wall of said dispensing cap, a second spray orifice formed in said distal end wall that is in fluid communication with said second lumen, wherein said second spray orifice includes a second raised mound that projects distally from the outer surface of said distal end wall of said dispensing cap, and an external dividing wall that projects distally from said distal end wall of said dispensing cap and that extends between said first and second spray orifices (220, 226) for forming a barrier between said first and second spray orifices (220, 226). a distal end wall defining a closed end of said dispensing cap; a first spray orifice formed in said distal end wall that is in fluid communication with said first lumen, wherein said first spray orifice includes a first raised mound that projects distally from an outer surface of said distal end wall of said dispensing cap, a second spray orifice formed in said distal end wall that is in fluid communication with said second lumen, wherein said second spray orifice includes a second raised mound that projects distally from the outer surface of said distal end wall of said dispensing cap, and an external dividing wall that projects distally from said distal end wall of said dispensing cap and that extends between said first and second spray orifices (220, 226) for forming a barrier between said first and second spray orifices (220, 226).
A columnar structure composing an electrode, the columnar structure comprising: multiple columnar sections with lateral surfaces at least partially contacting each other, wherein each columnar section includes a multilayer part in which different inorganic compound layers are stacked on each other. multiple columnar sections with lateral surfaces at least partially contacting each other, wherein each columnar section includes a multilayer part in which different inorganic compound layers are stacked on each other.
A first base station that communicates with a user equipment that performs dual connectivity with the first base station and a second base station, comprising: a communication unit configured to communicate with the second base station via an interface established between the first base station and the second base station, the communication unit configured to receive from the second base station, information indicating a subcarrier spacing applied in a cell managed by the second base station; and a transmitter configured to transmit to the user equipment, information indicating the subcarrier spacing applied in the cell managed by the second base station. a communication unit configured to communicate with the second base station via an interface established between the first base station and the second base station, the communication unit configured to receive from the second base station, information indicating a subcarrier spacing applied in a cell managed by the second base station; and a transmitter configured to transmit to the user equipment, information indicating the subcarrier spacing applied in the cell managed by the second base station.
A pharmaceutical composition, comprising: furosemide, or a pharmaceutically acceptable salt, hydrate or ester thereof; and tris(hydroxymethyl)aminomethane, wherein the furosemide is present in the pharmaceutical composition at a concentration from about 10 mg/mL to about 30 mg/mL; the tris(hydroxymethyl)aminomethane is present in the pharmaceutical composition at a concentration of less than or equal to 40 mM; and the pharmaceutical composition has a pH value from about 8.0 to about 8.5; the term "about" referring to a +/-10% variation from the nominal value and wherein the pharmaceutical composition has a molar ratio of the tris(hydroxymethyl)aminomethane to the furosemide of less than or equal to 0.8. furosemide, or a pharmaceutically acceptable salt, hydrate or ester thereof; and tris(hydroxymethyl)aminomethane, wherein the furosemide is present in the pharmaceutical composition at a concentration from about 10 mg/mL to about 30 mg/mL; the tris(hydroxymethyl)aminomethane is present in the pharmaceutical composition at a concentration of less than or equal to 40 mM; and the pharmaceutical composition has a pH value from about 8.0 to about 8.5; the term "about" referring to a +/-10% variation from the nominal value and wherein the pharmaceutical composition has a molar ratio of the tris(hydroxymethyl)aminomethane to the furosemide of less than or equal to 0.8.
A tire comprising: a tread portion including a land portion (24, 24A, 24B, 24C) divided by a recessed groove formed on a surface; and a mount member which is provided on a tire inner surface that is on an inner side of the tread portion, and to which electric equipment can be attached, wherein the mount member is disposed on the tire inner surface at a mounting position corresponding to the land portion (24, 24A, 24B, 24C), characterized in that a complex elastic modulus E*1 of a first rubber composition constituting the mount member is larger than a complex elastic modulus E*2 of a second rubber composition constituting the tread portion, when E*1 and E*2 are measured under the following measurement conditions: measurement temperature of 30°C, initial strain of 5%, dynamic strain of ±1 %, frequency of 10Hz, and stretch deformation mode. a tread portion including a land portion (24, 24A, 24B, 24C) divided by a recessed groove formed on a surface; and a mount member which is provided on a tire inner surface that is on an inner side of the tread portion, and to which electric equipment can be attached, wherein the mount member is disposed on the tire inner surface at a mounting position corresponding to the land portion (24, 24A, 24B, 24C), characterized in that a complex elastic modulus E*1 of a first rubber composition constituting the mount member is larger than a complex elastic modulus E*2 of a second rubber composition constituting the tread portion, when E*1 and E*2 are measured under the following measurement conditions: measurement temperature of 30°C, initial strain of 5%, dynamic strain of ±1 %, frequency of 10Hz, and stretch deformation mode.
An apparatus for use downhole, comprising: a member with flow passages; and a filter media placed on a side of the member, the apparatus being characterized by: the filter media comprising a base member with an array of pyramid-shaped or conical-shaped elements attached to the base member, the pyramid-shaped or conical-shaped elements being configured to trap solid particles of a selected size as a fluid containing the solid particles flows through the filter media. a member with flow passages; and a filter media placed on a side of the member, the apparatus being characterized by: the filter media comprising a base member with an array of pyramid-shaped or conical-shaped elements attached to the base member, the pyramid-shaped or conical-shaped elements being configured to trap solid particles of a selected size as a fluid containing the solid particles flows through the filter media. the filter media comprising a base member with an array of pyramid-shaped or conical-shaped elements attached to the base member, the pyramid-shaped or conical-shaped elements being configured to trap solid particles of a selected size as a fluid containing the solid particles flows through the filter media.
A heat exchanger comprising: a heat exchanging part including a plurality of flat tubes aligned vertically in a state where the heat exchanger is installed; a first flow divider including a first pipe where a refrigerant enters and exits, a plurality of second pipes providing refrigerant flow paths between the heat exchanging part and the first pipe, and a main body internally including a first space that communicates with a first end of the first pipe and with first end of the second pipes and that causes the refrigerant from one of the first pipe and the second pipes to flow into the other; and a plurality of second flow dividers internally including second spaces that provide refrigerant flow paths between the heat exchanging part and the first flow divider, that communicate with first end of the corresponding flat tube and with second end of the corresponding second pipe, and that cause the refrigerant from the corresponding flat tube and the corresponding second pipe to flow into the other, wherein the second spaces are three or more second spaces aligned vertically in the state where the heat exchanger is installed, the second spaces include center second space located in a center and lower second space located below the center second space, the heat exchanger being characterized in that the number of flat tubes communicating with the lower second space is smaller than the number of flat tubes communicating with the center second space. a heat exchanging part including a plurality of flat tubes aligned vertically in a state where the heat exchanger is installed; a first flow divider including a first pipe where a refrigerant enters and exits, a plurality of second pipes providing refrigerant flow paths between the heat exchanging part and the first pipe, and a main body internally including a first space that communicates with a first end of the first pipe and with first end of the second pipes and that causes the refrigerant from one of the first pipe and the second pipes to flow into the other; and a plurality of second flow dividers internally including second spaces that provide refrigerant flow paths between the heat exchanging part and the first flow divider, that communicate with first end of the corresponding flat tube and with second end of the corresponding second pipe, and that cause the refrigerant from the corresponding flat tube and the corresponding second pipe to flow into the other, wherein the second spaces are three or more second spaces aligned vertically in the state where the heat exchanger is installed, the second spaces include center second space located in a center and lower second space located below the center second space, the heat exchanger being characterized in that the number of flat tubes communicating with the lower second space is smaller than the number of flat tubes communicating with the center second space.
A method for managing program state information of a protected software function performed by a computing system comprising secure hardware, a processor, and a non-transitory computer-readable medium storing instructions that, when executed by the processor, cause the computing system to perform the method, the method comprising: receiving software function inputs; receiving encrypted initial program state information; retrieving a previous secure tag and a current secure tag associated with the encrypted initial program state information from a protected memory register of the secure hardware; generating a state decryption key based on a protected fixed key and the previous secure tag; decrypting the encrypted initial program state information using the state decryption key; executing the protected software function using, at least in part, the software function inputs and the decrypted initial program state information to generate updated program state information; generating a state encryption key based on the protected fixed key and the current secure tag; encrypting the updated program state information using the state encryption key; and storing the encrypted updated program state information in system memory maintained on the non-transitory computer-readable medium. receiving software function inputs; receiving encrypted initial program state information; retrieving a previous secure tag and a current secure tag associated with the encrypted initial program state information from a protected memory register of the secure hardware; generating a state decryption key based on a protected fixed key and the previous secure tag; decrypting the encrypted initial program state information using the state decryption key; executing the protected software function using, at least in part, the software function inputs and the decrypted initial program state information to generate updated program state information; generating a state encryption key based on the protected fixed key and the current secure tag; encrypting the updated program state information using the state encryption key; and storing the encrypted updated program state information in system memory maintained on the non-transitory computer-readable medium.
A smoke barrier system comprising at least two brackets, a glass panel and fastener means, wherein the glass panel comprises at least two holes and wherein the fastener means is equipped to fasten the bracket to the hole of the glass panel, in particular wherein the fastener means are equipped to fasten a first bracket to a first hole of the glass panel and a second bracket to a second hole of the glass panel; wherein the brackets are equipped to be fixed to a supporting construction on which the smoke barrier system is to be installed, wherein the smoke barrier system further comprises at least two first washer, wherein the washer is arranged between the fastener means and the glass panel; characterized in that the washer is an intumescent washer, wherein the intumescent washer expands under thermal influence of a fire, hot smoke, and/or hot gas and forms a thermally insulating layer, wherein under thermal influence the intumescent washer build up additional pressure between the fastener means and the glass panel. wherein the intumescent washer expands under thermal influence of a fire, hot smoke, and/or hot gas and forms a thermally insulating layer, wherein under thermal influence the intumescent washer build up additional pressure between the fastener means and the glass panel.
An aqueous liquid of a carbon fiber precursor treatment agent comprising a carbon fiber precursor treatment agent and water, wherein the carbon fiber precursor treatment agent contains an amino-modified silicone and a nonionic surfactant having a molecular weight distribution (Mw/Mn) of 1.05 to 1.50, the nonionic surfactant includes two or more nonionic surfactants that are represented by the following Chemical Formula 1 and have different numbers of carbon atoms of R 1 in Chemical Formula 1. (In Chemical Formula 1, R 1 is a straight chain hydrocarbon group having 8 to 18 carbon atoms or a branched chain hydrocarbon group having 8 to 18 carbon atoms, AO is an oxyalkylene group having 2 to 3 carbon atoms, R 2 is a hydrogen atom or a hydrocarbon group having 1 to 4 carbon atoms, and n is an integer of 1 to 60.) the carbon fiber precursor treatment agent contains an amino-modified silicone and a nonionic surfactant having a molecular weight distribution (Mw/Mn) of 1.05 to 1.50, the nonionic surfactant includes two or more nonionic surfactants that are represented by the following Chemical Formula 1 and have different numbers of carbon atoms of R 1 in Chemical Formula 1. (In Chemical Formula 1, R 1 is a straight chain hydrocarbon group having 8 to 18 carbon atoms or a branched chain hydrocarbon group having 8 to 18 carbon atoms, AO is an oxyalkylene group having 2 to 3 carbon atoms, R 2 is a hydrogen atom or a hydrocarbon group having 1 to 4 carbon atoms, and n is an integer of 1 to 60.)
A programmable beam injector comprising: a light source adapted to generate a beam of light; a beam splitter configured to receive the beam of light from the light source and polarize the received beam of light; a beam blocker receiving the polarized beam of light from the beam splitter, comprising a plurality of pixel modulators, wherein each pixel modulator includes a plurality of liquid crystal cells (710, 720), wherein each pixel modulator is independently operable between an off state in which the light passes through and an on state in which the light is blocked. a light source adapted to generate a beam of light; a beam splitter configured to receive the beam of light from the light source and polarize the received beam of light; a beam blocker receiving the polarized beam of light from the beam splitter, comprising a plurality of pixel modulators, wherein each pixel modulator includes a plurality of liquid crystal cells (710, 720), wherein each pixel modulator is independently operable between an off state in which the light passes through and an on state in which the light is blocked.
A transmitting method comprising: generating a frame by allocating time and frequency resources to a plurality of data transmitted by using an Orthogonal Frequency-Division Multiplexing method; and transmitting the frame, wherein the frame includes a first period in which a first preamble and a second preamble including control information is transmitted, and a second period in which a plurality of transmission data groups is transmitted, each of the plurality of transmission data groups to be transmitted in the second period being transmitted by using a part of the frequency resources among an entirety of the frequency resources included in the second period of the frame and by using an entirety or a part of the time resources included in the second period, and the control information includes information related to a frame configuration, wherein three bits are allocated as the information related to the frame configuration and indicate one of a plurality of frame configurations, wherein the plurality of frame configurations includes a first frame configuration wherein the transmission data groups are transmitted by using frequency division and temporal division in combination; and a second frame configuration with three transmission data groups, wherein the transmission data groups are transmitted by using frequency division and temporal division in combination, and wherein a pilot symbol is inserted temporally between the first two transmission data groups and the third transmission data group. generating a frame by allocating time and frequency resources to a plurality of data transmitted by using an Orthogonal Frequency-Division Multiplexing method; and transmitting the frame, wherein the frame includes a first period in which a first preamble and a second preamble including control information is transmitted, and a second period in which a plurality of transmission data groups is transmitted, each of the plurality of transmission data groups to be transmitted in the second period being transmitted by using a part of the frequency resources among an entirety of the frequency resources included in the second period of the frame and by using an entirety or a part of the time resources included in the second period, and the control information includes information related to a frame configuration, wherein three bits are allocated as the information related to the frame configuration and indicate one of a plurality of frame configurations, wherein the plurality of frame configurations includes a first frame configuration wherein the transmission data groups are transmitted by using frequency division and temporal division in combination; and a second frame configuration with three transmission data groups, wherein the transmission data groups are transmitted by using frequency division and temporal division in combination, and wherein a pilot symbol is inserted temporally between the first two transmission data groups and the third transmission data group.
Method for localizing objects enclosed in a medium in which a measurement signal (U M) correlated with the enclosed object is generated, from which a signal is generated which enables at least a distinction to be made between a first state "object detected" (Z=a) and at least one second state "no object detected" (Z=b), characterized in that the system changes from the first state "object detected" to the second state "no object detected" if the magnitude of the measurement signal (U M) currently measured stays below a previously measured local maximum value (U Max,n) of the measurement signal by a predetermined first percentage P 1.
Method for metering a volume of a fluid of known density flowing in a circuit with a total flow rate (Qt) while correcting the metering error associated with the viscosity of the flowing fluid, characterised in that - there are incorporated into the circuit a viscosensitive element through which the flowing fluid to be measured passes and which allows laminar flow characteristics of the fluid to be ensured over the whole of the envisaged range of flow rates, and either a first fluidic oscillator mounted in series with the viscosensitive element and a second fluidic oscillator mounted in parallel with the viscosensitive element, or a first fluidic oscillator mounted in series with the viscosensitive element and a second fluidic oscillator mounted in parallel with the viscosensitive element and with the first fluidic oscillator, - the flow rates (Q 1, Q 2) passing through each of the fluidic oscillators (21, 22) are determined, and - the total flow rate (Q t) of the fluid flowing in the circuit is derived therefrom while correcting the measurement of the flow rate as a function of a viscosity (μ)-dependent parameter known by prior calibration, and as a function of the Reynolds number. - there are incorporated into the circuit a viscosensitive element through which the flowing fluid to be measured passes and which allows laminar flow characteristics of the fluid to be ensured over the whole of the envisaged range of flow rates, and either a first fluidic oscillator mounted in series with the viscosensitive element and a second fluidic oscillator mounted in parallel with the viscosensitive element, or a first fluidic oscillator mounted in series with the viscosensitive element and a second fluidic oscillator mounted in parallel with the viscosensitive element and with the first fluidic oscillator, - the flow rates (Q 1, Q 2) passing through each of the fluidic oscillators (21, 22) are determined, and - the total flow rate (Q t) of the fluid flowing in the circuit is derived therefrom while correcting the measurement of the flow rate as a function of a viscosity (μ)-dependent parameter known by prior calibration, and as a function of the Reynolds number.