mhurhangee/patent-ind-claim-en huggingface dataset:
Filling element for filling containers with a liquid, comprising an elongated filling element body , which surrounds an axial product channel , in which a valve element is movably arranged, said valve element having a valve body which, together with a valve seat arranged on the filling element body , forms a filling valve , wherein the filling element has a dispensing opening at the lower end of the product channel , wherein at least one flushing outlet opening is arranged in the region of the dispensing opening , which is connected to a flushing-gas supply via a flushing control valve , and wherein at least one flushing return opening is arranged in the region of the dispensing opening , characterised in that the flushing outlet opening surrounds the dispensing opening in ring fashion, that the flushing outlet opening is inclined obliquely downwards and onto the central axis of the filling element body , and that the flushing return opening or the flushing return openings surround the flushing outlet opening in ring fashion.
A balun for dividing an input electrical signal in the range 1 to 40 GHz to produce first and second output electrical signals which are substantially out of phase, the balun including: an input port for receiving the input electrical signal; an input line for coupling the input electrical signal to a slotline ; and an output line for coupling the first and second output electrical signals to, respectively, a first output port and a second output port , the output line having a junction with the slotline , the output line comprising: a first arm connecting the junction with the slotline to the first output port ; and a second arm connecting the junction with the slotline to the second output port ; wherein the slotline couples the input electrical signal to the junction, and the junction acts as a divider to produce the first and second electrical signals; in which the input line , slotline and output line are tapered, and each of the first and second arms has a stepped section , such that the balun is tuned to obtain a wideband input match. an input port for receiving the input electrical signal; an input line for coupling the input electrical signal to a slotline ; and an output line for coupling the first and second output electrical signals to, respectively, a first output port and a second output port , the output line having a junction with the slotline , the output line comprising: a first arm connecting the junction with the slotline to the first output port ; and a second arm connecting the junction with the slotline to the second output port ; wherein the slotline couples the input electrical signal to the junction, and the junction acts as a divider to produce the first and second electrical signals; in which the input line , slotline and output line are tapered, and each of the first and second arms has a stepped section , such that the balun is tuned to obtain a wideband input match.
An internal combustion engine comprising a turbocharger , an intercooler and a cooling circuit for cooling of the intercooler , the cooling circuit comprising adjusting means for adjusting a temperature of a cooling liquid of the cooling circuit flowing through the intercooler , the internal combustion engine comprising a controller for controlling the adjusting means of the cooling circuit , the controller comprising a function for determining a dew point temperature of the charge air, characterized in that the controller is configured to control the temperature of the cooling liquid and/or of the intercooler relative to the dew point temperature, wherein the internal combustion engine further comprises a temperature sensor for sensing the temperature of the coolant arranged in the cooling circuit or a temperature sensor for sensing the temperature of the intercooler arranged at the intercooler , the controller further comprising a feedback function for comparing the temperature sensed by the temperature sensor with a dew point temperature threshold, the controller being configured to control the adjusting means in dependence on the output of the feedback function. the cooling circuit comprising adjusting means for adjusting a temperature of a cooling liquid of the cooling circuit flowing through the intercooler , the internal combustion engine comprising a controller for controlling the adjusting means of the cooling circuit , the controller comprising a function for determining a dew point temperature of the charge air, characterized in that the controller is configured to control the temperature of the cooling liquid and/or of the intercooler relative to the dew point temperature, wherein the internal combustion engine further comprises a temperature sensor for sensing the temperature of the coolant arranged in the cooling circuit or a temperature sensor for sensing the temperature of the intercooler arranged at the intercooler , the controller further comprising a feedback function for comparing the temperature sensed by the temperature sensor with a dew point temperature threshold, the controller being configured to control the adjusting means in dependence on the output of the feedback function.
A camera module , comprising: a circuit board having a first surface and an opposite second surface; a photosensitive element mounted on the first surface of the circuit board; and a support body formed on the circuit board and surrounding the photosensitive element, and extending toward the photosensitive element and contacting the photosensitive element, so that there is no gap between the support body and a side surface of the photosensitive element ; an optical assembly mounted on the support body ; wherein, the support body and the circuit board are fixed together to form a combined body, the combined body has a side surface , the side surface includes an indented surface indented toward the direction of the photosensitive element, and one end of the indented surface is located on a bottom surface of the circuit board , which bottom surface represents the second surface of the circuit board; and wherein the one end of the indented surface located on the bottom surface of the circuit board represents a first end of the indented surface, and the photosensitive element has a first side closest to the indented surface, and in a direction parallel to the bottom surface of the circuit board, a distance from the first end to the first side is 0.05 mm-0.35 mm. a circuit board having a first surface and an opposite second surface; a photosensitive element mounted on the first surface of the circuit board; and a support body formed on the circuit board and surrounding the photosensitive element, and extending toward the photosensitive element and contacting the photosensitive element, so that there is no gap between the support body and a side surface of the photosensitive element ; an optical assembly mounted on the support body ; wherein, the support body and the circuit board are fixed together to form a combined body, the combined body has a side surface , the side surface includes an indented surface indented toward the direction of the photosensitive element, and one end of the indented surface is located on a bottom surface of the circuit board , which bottom surface represents the second surface of the circuit board; and wherein the one end of the indented surface located on the bottom surface of the circuit board represents a first end of the indented surface, and the photosensitive element has a first side closest to the indented surface, and in a direction parallel to the bottom surface of the circuit board, a distance from the first end to the first side is 0.05 mm-0.35 mm.
A method of dispensing a beverage at a beverage dispenser , the method comprising: receiving, by the beverage dispenser , a smartcup identifier and a dynamic token from a smartcup reader, the smartcup identifier and the dynamic token being read from a smartcup tag ; sending, by the beverage dispenser , a smartcup authentication request including the smartcup identifier and the dynamic token to a smartcup server computer, wherein the smartcup server computer validates the authenticity of the smartcup identifier and the dynamic token by parsing the smartcup identifier and the dynamic token from the smartcup authentication request, searching a smartcup database for the smartcup identifier, and comparing the dynamic token to a security token associated with the smartcup identifier, wherein the authenticity of the smartcup identifier and the dynamic token is validated when the dynamic token matches the security token, wherein the smartcup server computer determines a dispense decision associated with the smartcup identifier; receiving, by the beverage dispenser , a smartcup authentication response including the dispense decision, wherein the dispense decision indicates whether the beverage dispenser is authorized to dispense the beverage; determining, by the beverage dispenser , that the dispense decision is affirmative; determining, by the beverage dispenser , an updated dynamic token for the smartcup tag ; updating, by the beverage dispenser , the dynamic token of the smartcup tag with the updated dynamic token; and dispensing, by the beverage dispenser , the beverage in a cup. receiving, by the beverage dispenser , a smartcup identifier and a dynamic token from a smartcup reader, the smartcup identifier and the dynamic token being read from a smartcup tag ; sending, by the beverage dispenser , a smartcup authentication request including the smartcup identifier and the dynamic token to a smartcup server computer, wherein the smartcup server computer validates the authenticity of the smartcup identifier and the dynamic token by parsing the smartcup identifier and the dynamic token from the smartcup authentication request, searching a smartcup database for the smartcup identifier, and comparing the dynamic token to a security token associated with the smartcup identifier, wherein the authenticity of the smartcup identifier and the dynamic token is validated when the dynamic token matches the security token, wherein the smartcup server computer determines a dispense decision associated with the smartcup identifier; receiving, by the beverage dispenser , a smartcup authentication response including the dispense decision, wherein the dispense decision indicates whether the beverage dispenser is authorized to dispense the beverage; determining, by the beverage dispenser , that the dispense decision is affirmative; determining, by the beverage dispenser , an updated dynamic token for the smartcup tag ; updating, by the beverage dispenser , the dynamic token of the smartcup tag with the updated dynamic token; and dispensing, by the beverage dispenser , the beverage in a cup.
A platinum ion chelating dipyridoxyl compound according to Formula I, or a pharmaceutically acceptable salt thereof, wherein the dipyridoxyl compound is coordinated with a metal ion which is not a transition metal or uncoordinated, for use in prevention or treatment of chemotherapy drug induced peripheral sensory neuropathy in a patient, wherein the chemotherapy drug comprises platinum ions, wherein X represents CH or N, each R 1 independently represents hydrogen or -CH 2 COR 5 ; R 5 represents hydroxy, optionally hydroxylated alkoxy, amino or alkylamido; each R 2 independently represents ZYR 6 wherein Z represents a bond or a C 1-3 alkylene or oxoalkylene group, optionally substituted by R 7 ; Y represents a bond, an oxygen atom or NR 6 ; R 6 is a hydrogen atom, COOR 8 , alkyl, alkenyl, cycloalkyl, aryl or aralkyl group, optionally substituted by one or more groups selected from COOR 8 , CONR 8 2 , NR 8 2 , OR 8 , =NR 8 , =O, OP(O) (OR 8 )R 7 and OSO 3 M; R 7 is hydroxy, optionally hydroxylated, optionally alkoxylated alkyl or aminoalkyl group; R 8 is a hydrogen atom or an optionally hydroxylated, optionally alkoxylated alkyl group; M is a hydrogen atom or one equivalent of a physiologically tolerable cation; R 3 represents a C 1-8 alkylene, a 1,2-cykloalkylene, or a 1,2-arylene group, optionally substituted with R 7 ; and each R 4 independently represents hydrogen or C 1-3 alkyl. X represents CH or N, each R 1 independently represents hydrogen or -CH 2 COR 5 ; R 5 represents hydroxy, optionally hydroxylated alkoxy, amino or alkylamido; each R 2 independently represents ZYR 6 wherein Z represents a bond or a C 1-3 alkylene or oxoalkylene group, optionally substituted by R 7 ; Y represents a bond, an oxygen atom or NR 6 ; R 6 is a hydrogen atom, COOR 8 , alkyl, alkenyl, cycloalkyl, aryl or aralkyl group, optionally substituted by one or more groups selected from COOR 8 , CONR 8 2 , NR 8 2 , OR 8 , =NR 8 , =O, OP(O) (OR 8 )R 7 and OSO 3 M; R 7 is hydroxy, optionally hydroxylated, optionally alkoxylated alkyl or aminoalkyl group; R 8 is a hydrogen atom or an optionally hydroxylated, optionally alkoxylated alkyl group; M is a hydrogen atom or one equivalent of a physiologically tolerable cation; R 3 represents a C 1-8 alkylene, a 1,2-cykloalkylene, or a 1,2-arylene group, optionally substituted with R 7 ; and each R 4 independently represents hydrogen or C 1-3 alkyl.
A refrigeration unit for use with a container , the refrigeration unit comprising: a compressor , a condenser , an expansion device and an evaporator configured to circulate a refrigerant; a condenser section housing the compressor and the condenser; an evaporator section housing the evaporator; and an atmosphere control system comprising: an air compressor configured to generate compressed air, the air compressor located outside the container; a separator configured to receive the compressed air and output nitrogen into the interior of the container; a valve (V1) between the air compressor and the separator ; a heat exchanger positioned between the air compressor and the separator , the heat exchanger configured to cool the compressed air from the air compressor; and a water separator between the heat exchanger and the separator ; wherein, the valve (V1), in an open position, directs compressed air to the container ; wherein the air compressor is located in the condenser section; and wherein the separator is located in the evaporator section. a compressor , a condenser , an expansion device and an evaporator configured to circulate a refrigerant; a condenser section housing the compressor and the condenser; an evaporator section housing the evaporator; and an atmosphere control system comprising: an air compressor configured to generate compressed air, the air compressor located outside the container; a separator configured to receive the compressed air and output nitrogen into the interior of the container; a valve (V1) between the air compressor and the separator ; a heat exchanger positioned between the air compressor and the separator , the heat exchanger configured to cool the compressed air from the air compressor; and a water separator between the heat exchanger and the separator ; wherein, the valve (V1), in an open position, directs compressed air to the container ; wherein the air compressor is located in the condenser section; and wherein the separator is located in the evaporator section.
A firearm , comprising: a hammer ; a safety lever configured to select an operation mode; a trigger ; an electromechanical sear ; wherein the operation modes include an electromechanical mode, characterized in that the firearm is configured so that when moving the safety lever to select the electromechanical mode the safety lever moves the hammer to be held by the electromechanical sear instead of by the trigger . a hammer ; a safety lever configured to select an operation mode; a trigger ; an electromechanical sear ; wherein the operation modes include an electromechanical mode, characterized in that the firearm is configured so that when moving the safety lever to select the electromechanical mode the safety lever moves the hammer to be held by the electromechanical sear instead of by the trigger .
A topical sanitizing composition for restoring skin's natural balance of bacteria comprising: 0.02 wt.% to 10.0 wt.% of an active ingredient, wherein said active ingredient is selected from a strain of one or more of Lactobacillus, Clostridia, Saccharomyces, Lactococcus, Pedicoccus, Enterococcus, Escherichia, Alcaligenes, Corynebacterium, Bacillus, and Propionibacterium, and combinations thereof; at least 60 wt. % of one or more C 1-6 alcohols; and water, wherein said topical sanitizing composition reduces pathogen binding on skin by a statistically significant amount, as compared to an otherwise identical composition without the active ingredient. 0.02 wt.% to 10.0 wt.% of an active ingredient, wherein said active ingredient is selected from a strain of one or more of Lactobacillus, Clostridia, Saccharomyces, Lactococcus, Pedicoccus, Enterococcus, Escherichia, Alcaligenes, Corynebacterium, Bacillus, and Propionibacterium, and combinations thereof; at least 60 wt. % of one or more C 1-6 alcohols; and water, wherein said topical sanitizing composition reduces pathogen binding on skin by a statistically significant amount, as compared to an otherwise identical composition without the active ingredient.
A negative electrode active material for a non-aqueous electrolyte secondary battery, comprising negative electrode active material particles containing a silicon compound expressed by SiO x where 0.5≤x≤1.6, the negative electrode active material particles being coated with a carbon coating composed of a substance at least partially containing carbon, the carbon coating having a density ranging from 1.2 g/cm 3 to 1.9 g/cm 3 , the negative electrode active material particles having a characteristic of type II or type III adsorption-desorption isotherm in the IUPAC classification, as obtained by adsorption-desorption isotherm measurement with nitrogen gas. the negative electrode active material particles being coated with a carbon coating composed of a substance at least partially containing carbon, the carbon coating having a density ranging from 1.2 g/cm 3 to 1.9 g/cm 3 , the negative electrode active material particles having a characteristic of type II or type III adsorption-desorption isotherm in the IUPAC classification, as obtained by adsorption-desorption isotherm measurement with nitrogen gas.
Tufting machine, comprising ▪ a frame , ▪ a drive unit which is designed to move the frame on a base at least in a forward direction, and ▪ a tufting unit which is designed to insert a number of yarn strands into the substrate during a respective tufting operation, characterized in that the tufting machine has a horizontal movement unit which is designed to move the tufting unit relative to the frame during a tufting operation at least counter to the forward direction. ▪ a frame , ▪ a drive unit which is designed to move the frame on a base at least in a forward direction, and ▪ a tufting unit which is designed to insert a number of yarn strands into the substrate during a respective tufting operation,
A passenger seat comprising: a seat bottom coupled to a frame, said seat bottom is moveable during reclining of the passenger seat, a deployable leg rest ; and an actuator coupled to the deployable leg rest for inducing deployment of the deployable leg rest , wherein the actuator is coupled at one end to the seat bottom through a rear actuator bracket , said rear actuator bracket connects to the actuator at a rear actuator pivot such that as the actuator moves through its range of motion, the actuator pivots around the rear actuator pivot and the rear actuator bracket .and the deployable leg rest is coupled directly to the seat bottom through a front actuator bracket that provides a front actuator pivot such that as said actuator moves, the actuator will pivot around the front actuator pivot and rear actuator pivot so as to allow the leg rest to move and articulate with the seat and pivot and/or extend away from the seat bottom during deployment. a seat bottom coupled to a frame, said seat bottom is moveable during reclining of the passenger seat, a deployable leg rest ; and an actuator coupled to the deployable leg rest for inducing deployment of the deployable leg rest ,
Skin and/or mucous membrane penetrating microemulsion comprising: - 50 to 80% w/w of an oil phase, - 2 to 40 % w/w of a mixture of one or several W/O emulsifiers and one or several O/W emulsifiers at a ratio of 1:5 to 1:1, - 5 to 40 % w/w of honey, royal jelly, propolis and/or perga - 0.01 to 30 % w/w of co-emulsifiers, wherein the co-emulsifiers originate from the group of phospholipids - 1 to 20 % w/w of water or an aqueous solution and - 0.01 to 30 % w/w of one or several water-soluble or fat-soluble active ingredients, wherein the active ingredients are selected from the group: analgetics, local anesthetics, antiphlogistics, antirheumatics, glucocorticoids, antibiotics, antimycotics, virustatics, immunosuppressive agents, phytopharmaceuticals, antihistamines, chemotherapeutics, blood circulation stimulants, steroids, immunomodulators, antipsoriatics, keratolytics, hormones, alkaloids, hormones, ceramides. - 50 to 80% w/w of an oil phase, - 2 to 40 % w/w of a mixture of one or several W/O emulsifiers and one or several O/W emulsifiers at a ratio of 1:5 to 1:1, - 5 to 40 % w/w of honey, royal jelly, propolis and/or perga - 0.01 to 30 % w/w of co-emulsifiers, wherein the co-emulsifiers originate from the group of phospholipids - 1 to 20 % w/w of water or an aqueous solution and - 0.01 to 30 % w/w of one or several water-soluble or fat-soluble active ingredients,
An airbag unit, in particular an airbag unit comprising a gas generator , a module carrier and a damping element being positioned between the gas generator and the module carrier , the damping element including at least one engaging means and the gas generator at least one receiving means so that the damping element and the gas generator are positively connectable to each other, preferably in the form of a bayonet lock, the damping element including at least one aligning means through which the gas generator and the module carrier can be aligned relative to each other in the rotational direction, characterized in that a through-hole for receiving the aligning means is formed on the gas generator and a through-hole for receiving the aligning means is formed on the module carrier .
Cellular wheel sluice for granulate bulk product, with a housing in which a cellular wheel is rotatably mounted, wherein the housing has an inlet shaft for the bulk product, wherein at least two raised granulate roofs (19; 32) are arranged at the inlet shaft , characterized in that - a granulate groove (23, 24; 35) is arranged in each case at the transition between two granulate roofs (19; 32) and at the transition between one granulate roof (19; 32) and an inlet edge , - two granulate grooves (23, 24; 35) in each case run together at an intersection point in the rotation direction of the cellular wheel . - a granulate groove (23, 24; 35) is arranged in each case at the transition between two granulate roofs (19; 32) and at the transition between one granulate roof (19; 32) and an inlet edge , - two granulate grooves (23, 24; 35) in each case run together at an intersection point in the rotation direction of the cellular wheel .