mhurhangee/ep-ind-claims huggingface dataset:
A method of carrying out combustion in a furnace, comprising (i) passing fuel gas at a velocity less than 15.2 m/s (50 feet per second) into a duct having an outlet that is connected to the interior of the furnace, (ii) injecting at least one stream of motive gas having a velocity of at least 30.5 m/s (100 feet per second) into the fuel gas in the duct wherein the mass flow rate of the motive gas injected into the fuel gas is less than 60 % of the mass flow rate of the fuel gas into which the motive gas is injected, (iii) forming in the duct at least one mixed stream comprising a mixture of the fuel gas and the motive gas and having a momentum average velocity greater than 15.2 m/s (50 feet per second) in the direction of said outlet, (iv) passing said mixed stream from said duct into said furnace, and (v) combusting the mixed stream with one or more oxidant streams injected into said furnace. (i) passing fuel gas at a velocity less than 15.2 m/s (50 feet per second) into a duct having an outlet that is connected to the interior of the furnace, (ii) injecting at least one stream of motive gas having a velocity of at least 30.5 m/s (100 feet per second) into the fuel gas in the duct wherein the mass flow rate of the motive gas injected into the fuel gas is less than 60 % of the mass flow rate of the fuel gas into which the motive gas is injected, (iii) forming in the duct at least one mixed stream comprising a mixture of the fuel gas and the motive gas and having a momentum average velocity greater than 15.2 m/s (50 feet per second) in the direction of said outlet, (iv) passing said mixed stream from said duct into said furnace, and (v) combusting the mixed stream with one or more oxidant streams injected into said furnace.
Quick-drying coatings on mineral surfaces of paint and plaster systems, characterized by containing semiconductors selected from one of groups: a), a) and b), a) and c), a) and b) and c), b) and c), and c) wherein a) represents binary type compounds comprising A III B V semiconductors, wherein A represents gallium, indium, thallium, germanium, tin, lead, and B represents nitrogen, phosphorus, arsenic, antimony and bismuth in any stoichiometric ratios, b) represents elemental semiconductors, especially allotropes of tin, indium, carbon, silicon and germanium, and c) represents conductive organic polymers, especially polypyrrole, polyaniline, polyparaphenylene, polythiophene, poly(4,4-dioctylcyclopentadithiophene), poly(3,4-ethylenedioxythiophene), or poly(3,4-ethylenedioxythiophene)/poly(styrene sulfonate). a), a) and b), a) and c), a) and b) and c), b) and c), and c) a) represents binary type compounds comprising A III B V semiconductors, wherein A represents gallium, indium, thallium, germanium, tin, lead, and B represents nitrogen, phosphorus, arsenic, antimony and bismuth in any stoichiometric ratios, b) represents elemental semiconductors, especially allotropes of tin, indium, carbon, silicon and germanium, and c) represents conductive organic polymers, especially polypyrrole, polyaniline, polyparaphenylene, polythiophene, poly(4,4-dioctylcyclopentadithiophene), poly(3,4-ethylenedioxythiophene), or poly(3,4-ethylenedioxythiophene)/poly(styrene sulfonate).
A method for performing emergency braking in a motor vehicle, in particular a utility vehicle, having at least the following steps: - sensing at least one object (10.i, 16.i; i=1,..., 3) in an environment of the motor vehicle and determining a collision probability for the own motor vehicle having the at least one sensed object (10.i, 16.i) to detect an emergency braking situation; - autonomous actuating of service brakes of the motor vehicle with a target motor vehicle deceleration (zSoll) for performing emergency braking when an emergency braking situation has been detected (St2, St3); - adjusting the target motor vehicle deceleration (zSoll) during the autonomously performed emergency braking, wherein the adjusting of the target motor vehicle deceleration (zSoll) takes place as a function of at least one driving dynamics parameter (zMFDD, dvFzg), wherein the driving dynamics parameter (zMFDD, dvFzg) characterizes an actual reaction of the own motor vehicle to the performed emergency braking (St4, St5) and the driving dynamics parameter (zMFDD, dvFzg) is determined during the emergency braking, characterized in that the target motor vehicle deceleration (zSoll) will only be adjusted when the at least one driving dynamics parameter (zMFDD, dvFzg) does not contain a driving dynamics limit value (zo, dvFzgmax). - sensing at least one object (10.i, 16.i; i=1,..., 3) in an environment of the motor vehicle and determining a collision probability for the own motor vehicle having the at least one sensed object (10.i, 16.i) to detect an emergency braking situation; - autonomous actuating of service brakes of the motor vehicle with a target motor vehicle deceleration (zSoll) for performing emergency braking when an emergency braking situation has been detected (St2, St3); - adjusting the target motor vehicle deceleration (zSoll) during the autonomously performed emergency braking, wherein
Apparatus (10, 20, 30) for the generation of electrical or mechanical power, having a combustion device for a solid, gaseous or liquid medium, in particular biomass which, during combustion, generates flue gas which contains heat, having an RC system which has a circuit for a working medium which, in order to absorb heat, is guided through a first heat exchanger which acts as a working-medium evaporator, and is connected to the combustion device via a flue gas line (33, 34), in order to transfer the heat of the flue gas which is generated during the combustion to the working medium of the RC system, and which RC system has a second heat exchanger which acts as a working medium condenser and is connected to a cooling water circuit, in order to dissipate the condensation heat of the working medium via the cooling water circuit, and having a further flue gas line, via which at least part of the flue gas which is guided through the first heat exchanger and is therefore cooled can be recirculated into the flue gas line, in order to mix the flue gas which is generated during the combustion with cooled flue gas, characterized in that the cooling water circuit is guided through a further heat exchanger which is arranged in the flue gas line and removes heat from the flue gas which is guided through the further heat exchanger, a bypass line being provided, via which flue gas which is guided through the first heat exchanger can be fed into the further flue gas line, or via which flue gas can be guided out of the further flue gas line to the further heat exchanger.
A cap logo applicator, comprising: a first mandrel having a front and a back, the first mandrel having a curved, non-cylindrical surface, and a relief space in the back such that when a cap is positioned on the first mandrel, a front of the cap is in contact with the non-cylindrical surface and a top of the cap extends over the relief space; and a second mandrel opposing the first mandrel and configured to apply pressure to the first mandrel; wherein at least one of the first mandrel and the second mandrel includes a heater; and characterized in that the first mandrel includes a duo-durometer imaging area including a first pad having a first durometer, and a second pad positioned on the first pad and having a second durometer that is different from the first durometer. a first mandrel having a front and a back, the first mandrel having a curved, non-cylindrical surface, and a relief space in the back such that when a cap is positioned on the first mandrel, a front of the cap is in contact with the non-cylindrical surface and a top of the cap extends over the relief space; and a second mandrel opposing the first mandrel and configured to apply pressure to the first mandrel; wherein at least one of the first mandrel and the second mandrel includes a heater; and characterized in that the first mandrel includes a duo-durometer imaging area including a first pad having a first durometer, and a second pad positioned on the first pad and having a second durometer that is different from the first durometer.
A method of manufacturing an Under Bump Metal electrode structure body for a radiation detector comprising: preparing a CdTe substrate or CdZnTe substrate; sequentially performing methanol washing and acetone washing of the CdTe substrate or the CdZnTe substrate; washing the CdTe substrate or the CdZnTe substrate using a solvent comprised from hydrocarbons with a carbon number of 9 or more and 12 or less and containing no hydroxyl group; and forming a Pt electrode layer by electroless plating. preparing a CdTe substrate or CdZnTe substrate; sequentially performing methanol washing and acetone washing of the CdTe substrate or the CdZnTe substrate; washing the CdTe substrate or the CdZnTe substrate using a solvent comprised from hydrocarbons with a carbon number of 9 or more and 12 or less and containing no hydroxyl group; and forming a Pt electrode layer by electroless plating.
A method for purifying liquid sugar produced from granulated sugar of low purity and water, in which the liquid sugar to be purified enters a system section at a first interface (I - I) at a treatment temperature (T B) as prefiltered liquid sugar (LS 2), from which additions larger than 100 μm have been separated by filtering, and exits the system section at a second interface (II - II), wherein the method does not require filter aids and the removal and separation devices which are necessary for them, and in which the following steps (c) to (g) are provided: (c) dosing non-predissolved activated carbon in a ratio of 0.01 to 0.5 percent by quantity to the mass flow of the prefiltered liquid sugar (LS 2) depending on the impurities remaining in the prefiltered liquid sugar (LS 2) to obtain a sugar-activated-carbon solution (LS 3); (d) reacting the components of the sugar-activated-carbon solution (LS 3) with each other over a predetermined reaction time (t) of 10 to 60 minutes; (e) circulating the sugar-activated-carbon solution (LS 3) via a filter intended for direct filtration for the purpose of forming a filter cake from the activated carbon which is to be separated; (f) directly filtering the sugar-activated-carbon solution (LS 3) via the filter cake formed after step (e), which results in a filtered liquid sugar (LS 4); (g) back-up filtering the filtered liquid sugar (LS 4) to separate activated carbon which was not retained in step (f), which after steps (c) to (g) results in a back-up-filtered liquid sugar (LS 5) with an ICUMSA value of less than 30 for the residual dye. (c) dosing non-predissolved activated carbon in a ratio of 0.01 to 0.5 percent by quantity to the mass flow of the prefiltered liquid sugar (LS 2) depending on the impurities remaining in the prefiltered liquid sugar (LS 2) to obtain a sugar-activated-carbon solution (LS 3); (d) reacting the components of the sugar-activated-carbon solution (LS 3) with each other over a predetermined reaction time (t) of 10 to 60 minutes; (e) circulating the sugar-activated-carbon solution (LS 3) via a filter intended for direct filtration for the purpose of forming a filter cake from the activated carbon which is to be separated; (f) directly filtering the sugar-activated-carbon solution (LS 3) via the filter cake formed after step (e), which results in a filtered liquid sugar (LS 4); (g) back-up filtering the filtered liquid sugar (LS 4) to separate activated carbon which was not retained in step (f), which after steps (c) to (g) results in a back-up-filtered liquid sugar (LS 5) with an ICUMSA value of less than 30 for the residual dye.
An apparatus (101, 103) of an access point, AP, in a wireless local area network, WLAN, comprising: at least one processor configured to generate a high efficiency, HE, physical layer convergence protocol, PLCP, protocol data unit, PPDU, comprising a HE-signal A, HE-SIG-A, field; and at least one transceiver (209a-209n) configured to transmit the generated HE PPDU to a station, STA, wherein, when a format of the HE PPDU is a HE multiple user, MU, PPDU used for MU transmission not responding to a trigger frame, the HE PPDU further comprises a HE-SIG-B field, characterized in that the HE-SIG-B field comprises a common block field and a user specific field, and the common block field comprises sub fields comprising information indicating resource unit, RU, arrangement in a frequency domain and information indicating a number of user fields in the user specific field. at least one processor configured to generate a high efficiency, HE, physical layer convergence protocol, PLCP, protocol data unit, PPDU, comprising a HE-signal A, HE-SIG-A, field; and at least one transceiver (209a-209n) configured to transmit the generated HE PPDU to a station, STA, wherein, when a format of the HE PPDU is a HE multiple user, MU, PPDU used for MU transmission not responding to a trigger frame, the HE PPDU further comprises a HE-SIG-B field, characterized in that the HE-SIG-B field comprises a common block field and a user specific field, and the common block field comprises sub fields comprising information indicating resource unit, RU, arrangement in a frequency domain and information indicating a number of user fields in the user specific field.
A medical examination system comprising: a medical device comprising: a housing having an optical system within an interior of the housing, the optical system being defined by an optical axis and configured to operate in an optical viewing mode using an eyepiece; and an adapter (720, 920) for aligning a digital camera of a smart device (140, 220, 360, 750, 1050, 1550) with the optical system of the medical device to enable a separate electronic operating mode, each of the adapter (720, 920) and the medical device having complementary features to permit attachment of the adapter (720, 920) to the medical device, the adapter (720, 920) having at least one feature configured to permit each of a plurality of different sized smart devices to be attached to the adapter (720, 920) and in alignment with the optical system of the medical device when the adapter (720, 920) is attached thereto, wherein the system further comprises an alignment fixture having an optical target and configured to precisely attach at least one interface plate (104, 204, 208, 738) to each of the plurality of smart devices, the adapter (720, 920) having a portion configured to engage the at least one interface plate (104, 204, 208, 738). a housing having an optical system within an interior of the housing, the optical system being defined by an optical axis and configured to operate in an optical viewing mode using an eyepiece; and an adapter (720, 920) for aligning a digital camera of a smart device (140, 220, 360, 750, 1050, 1550) with the optical system of the medical device to enable a separate electronic operating mode, each of the adapter (720, 920) and the medical device having complementary features to permit attachment of the adapter (720, 920) to the medical device, the adapter (720, 920) having at least one feature configured to permit each of a plurality of different sized smart devices to be attached to the adapter (720, 920) and in alignment with the optical system of the medical device when the adapter (720, 920) is attached thereto,
An asymmetric interfering RNA duplex molecule comprising a first stand with a length of 19, 20, 21, 22, or 23 nucleotides; and a second strand with a length of 14, 15, 16, or 17 nucleotides, wherein the first strand is longer than the second strand and the last nucleotide of the first strand consists of an A, U, G or C ribonucleotide, wherein the second strand is at least 70% complementary to the first strand, forms a double-stranded region with the first strand and the first and last nucleotide of the second strand base pair with nucleotides in the first strand, wherein the first strand has a 3' overhang and a 5' blunt end, wherein the first strand is complementary to a target mRNA sequence of a gene, wherein the asymmetric interfering RNA duplex comprises a modified nucleotide or nucleotide analogue.
An oral care appliance comprising: a cartridge comprising: a housing for storing an oral care composition; a connection interface configured to form a detachable connection with the oral care appliance; and a valve assembly: (i) positioned in the connection interface; (ii) comprising at least two valves (410a; 410b); and (iii) configured to prevent escape of the oral care composition when the connection interface is in a detached position and to allow flow of the oral care composition, through the at least two valves (410a; 410b) and the connection interface and to the oral care appliance, when the connection interface is in an attached position; and a base unit for use in the oral care appliance, comprising: a base connection interface to be plugged to the cartridge; and a needle assembly operatively engageable to the cartridge to allow flow of the oral care composition from the cartridge into the oral care appliance; wherein the needle assembly is configured to interact with the valve assembly. a cartridge comprising: a housing for storing an oral care composition; a connection interface configured to form a detachable connection with the oral care appliance; and a valve assembly: (i) positioned in the connection interface; (ii) comprising at least two valves (410a; 410b); and (iii) configured to prevent escape of the oral care composition when the connection interface is in a detached position and to allow flow of the oral care composition, through the at least two valves (410a; 410b) and the connection interface and to the oral care appliance, when the connection interface is in an attached position; and a base unit for use in the oral care appliance, comprising: a base connection interface to be plugged to the cartridge; and a needle assembly operatively engageable to the cartridge to allow flow of the oral care composition from the cartridge into the oral care appliance; wherein the needle assembly is configured to interact with the valve assembly.
An isolating circuit for an electrosurgical resection system, the isolating circuit comprising: a combining circuit having a first input connectable to receive radiofrequency electromagnetic radiation having a first frequency from an RF channel, a second input connectable to receive microwave EM radiation having a second frequency that is higher than the first frequency from a microwave channel, and an output in communication with the first and second inputs for conveying the RF EM radiation and the microwave EM radiation to a common signal pathway, and a waveguide isolator connected to isolate the microwave channel from the RF EM radiation, wherein the waveguide isolator comprises a conductive input section, a conductive output section which mates with the input section to define a waveguide cavity within a volume enclosed by the input and output sections, and a DC isolation barrier arranged between the input and output sections, wherein the output from the combining circuit includes a signal conductor and a ground conductor, and wherein the isolating circuit comprises a capacitive structure between the ground conductor of the output from the combining circuit and the conductive input section of the waveguide isolator, the capacitive structure being arranged to inhibit coupling of the RF EM energy and leakage of the microwave EM energy. a combining circuit having a first input connectable to receive radiofrequency electromagnetic radiation having a first frequency from an RF channel, a second input connectable to receive microwave EM radiation having a second frequency that is higher than the first frequency from a microwave channel, and an output in communication with the first and second inputs for conveying the RF EM radiation and the microwave EM radiation to a common signal pathway, and a waveguide isolator connected to isolate the microwave channel from the RF EM radiation, wherein the waveguide isolator comprises a conductive input section, a conductive output section which mates with the input section to define a waveguide cavity within a volume enclosed by the input and output sections, and a DC isolation barrier arranged between the input and output sections, wherein the output from the combining circuit includes a signal conductor and a ground conductor, and wherein the isolating circuit comprises a capacitive structure between the ground conductor of the output from the combining circuit and the conductive input section of the waveguide isolator, the capacitive structure being arranged to inhibit coupling of the RF EM energy and leakage of the microwave EM energy.
A camera module, comprising: a front body; a lens disposed on the front body; a rear body coupled to the front body; a substrate disposed at an inner space between the front body and the rear body; and an image sensor disposed on the substrate, wherein the front body comprises a first surface facing the rear body, and a first protrusion and a second protrusion protruded from the first surface and spaced apart from each other, the first protrusion is disposed at an inner side of the second protrusion to allow being nearer to an optical axis than the second protrusion, the first protrusion is coupled with the substrate and the second protrusion is coupled with the rear body, and the front body further comprises a plurality of ribs connecting the first protrusion and the second protrusion between the first protrusion and the second protrusion and mutually spaced apart from the other wherein a distance between a distal end of the first protrusion and the first surface is longer than a distance between a distal end of the second protrusion and the first surface, wherein each rib of said plurality of ribs is extended from the first surface of the front body, wherein each rib of said plurality of ribs comprises a slant surface so slanted as to allow a distance at the first protrusion between a distal end of the rib and the first surface to be formed to be longer than a distance at the second protrusion between a distal end of the rib and the first surface. a front body; a lens disposed on the front body; a rear body coupled to the front body; a substrate disposed at an inner space between the front body and the rear body; and an image sensor disposed on the substrate, wherein the front body comprises a first surface facing the rear body, and a first protrusion and a second protrusion protruded from the first surface and spaced apart from each other, the first protrusion is disposed at an inner side of the second protrusion to allow being nearer to an optical axis than the second protrusion, the first protrusion is coupled with the substrate and the second protrusion is coupled with the rear body, and the front body further comprises a plurality of ribs connecting the first protrusion and the second protrusion between the first protrusion and the second protrusion and mutually spaced apart from the other wherein a distance between a distal end of the first protrusion and the first surface is longer than a distance between a distal end of the second protrusion and the first surface, wherein each rib of said plurality of ribs is extended from the first surface of the front body, wherein each rib of said plurality of ribs comprises a slant surface so slanted as to allow a distance at the first protrusion between a distal end of the rib and the first surface to be formed to be longer than a distance at the second protrusion between a distal end of the rib and the first surface.