mhurhangee/patent-ind-claim-en huggingface dataset:
Work machine, comprising a drive means , a clutch arrangement and a working means , wherein the clutch arrangement comprises a clutch (K) and an evaluation device , wherein the clutch (K) comprises a torque input means , a torque output means , a clutch means and a shift means , wherein the clutch is provided with at least one condition monitoring means, wherein the condition monitoring means is configured as at least one friction lining wear monitoring means, characterised in that the evaluation device is adapted to generate a maintenance plan from the data of the friction lining wear monitoring means in dependence on the actual state of wear of the clutch discs .
Interior-compartment device for a motor vehicle , having a dashboard which is assignable to a windscreen and on which at least one instrument panel is arranged, and having a vent arrangement which comprises at least one first vent which is arranged on a top side , assignable to the windscreen , of the dashboard , wherein the instrument panel is mounted adjustably on the dashboard , wherein the instrument panel is mounted on the dashboard so as to be displaceable in a longitudinal direction of the dashboard , characterized in that the first vent has at least one air-guiding element which is adjustable mechanically by means of an actuating element which is able to be actuated by a user, and in that the vent arrangement comprises at least one second vent which is arranged on a front side , facing towards the vehicle interior compartment, of the dashboard , wherein the second vent is formed without an actuating element, so that the user is unable to manually influence the outflow, and extends at least regionally along the dashboard below the instrument panel .
Composite large frame for the manufacture of doors and/or windows with a fixed rim and at least one leaf , which may be fixed or movable, wherein the leaf has at least one element along its perimeter, said element being formed by at least one aluminum profile , at least one wood profile and mechanical fittings , and the mechanical fittings are located between the at least one wood profile and the at least one aluminium profile of the respective elements , in order to unite the wood profiles to the aluminum profiles ; the at least one wood profile and the at least one aluminum profile are additionally joined to each other by means of screws , characterised in that the at least one wood profile and at least one aluminum profile are glued to each other by at least one adhesive , said adhesive being based on polyurethane. the leaf has at least one element along its perimeter, said element being formed by at least one aluminum profile , at least one wood profile and mechanical fittings , and the mechanical fittings are located between the at least one wood profile and the at least one aluminium profile of the respective elements , in order to unite the wood profiles to the aluminum profiles ; the at least one wood profile and the at least one aluminum profile are additionally joined to each other by means of screws , characterised in that the at least one wood profile and at least one aluminum profile are glued to each other by at least one adhesive , said adhesive being based on polyurethane.
A composition for use in a method of treating a Substance Use Disorder (SUD) comprising: an effective amount of a modified tetracycline to ameliorate or eliminate the SUD and wherein the modified tetracycline has reduced binding to a microbial ribosome and has the formula: R 1 is methyl, ethyl, propyl, butyl, acetyl, alkyl, R 2 is H or acetyl, R 3 is H or acetyl, R 4 is H or acetyl, and R 5 is H or acetyl. an effective amount of a modified tetracycline to ameliorate or eliminate the SUD and wherein the modified tetracycline has reduced binding to a microbial ribosome and has the formula: R 1 is methyl, ethyl, propyl, butyl, acetyl, alkyl, R 2 is H or acetyl, R 3 is H or acetyl, R 4 is H or acetyl, and R 5 is H or acetyl.
A metal mask material, the metal mask material is characterised by having a composition including, by mass%, C: 0.01% or less, Si: 0.5% or less, Mn: 1.0% or less, and Ni: 30 to 50%, with the balance being made up of Fe and inevitable impurities, wherein, per 1 g of the metal mask material, there are 2.0 or less oxide-based nonmetallic inclusions with an area equivalent circle diameter exceeding 10.0 μm, and there are 20.0 or less oxide-based nonmetallic inclusions with an area equivalent circle diameter of 6.0 to 10.0 μm, and wherein the metal mask material has a thin plate shape with a plate thickness of 0.25 mm or less, wherein the oxide-based nonmetallic inclusions are measured with the method defined in the description.
Method for concentrating metals, in the form of silver from metal-containing wastes, by treating the silver-containing wastes with a sulfonic acid of the formula R-SO 2 -OH, wherein R is an organic radical or -NH 2 , in the presence of an oxidizing agent and, in the case of a silver-containing waste, a silver sulfonate solution obtained leads to the precipitation of silver as silver chloride by addition of stoichiometric amounts of HCl and at the same time to reform the respective sulfonic acid, and the mixture of sulfonic acid and an oxidizing agent converts lead and/or tin in silver-containing wastes into their readily soluble sulfonates, is extracted therefrom and made available for further utilization, and wherein the treatment of the metal-containing wastes with at least 15% sulfonic acid 1/10% by mass of 30% hydrogen peroxide solution, calculated to 50% sulfonic acid, results in the formation of silver sulfonate.
A computer implemented method for impact event evaluation comprising: receiving sensor information from a sensor unit configured as a mouth guard, the sensor information comprising an acceleration associated with an impact to the head of a user wearing the mouth guard; determining an impact vector based on the acceleration and an expected orientation of the mouthguard with respect to the user's skull; characterized by the steps of: translating the impact vector from a location of the sensor unit to at least one other location in the head of the user to establish a corresponding vector; and comparing the corresponding vector to a threshold value. receiving sensor information from a sensor unit configured as a mouth guard, the sensor information comprising an acceleration associated with an impact to the head of a user wearing the mouth guard; determining an impact vector based on the acceleration and an expected orientation of the mouthguard with respect to the user's skull; characterized by the steps of: translating the impact vector from a location of the sensor unit to at least one other location in the head of the user to establish a corresponding vector; and comparing the corresponding vector to a threshold value. translating the impact vector from a location of the sensor unit to at least one other location in the head of the user to establish a corresponding vector; and comparing the corresponding vector to a threshold value.
A fire retardant rail chamber filling element for a rail which has a rail foot , a rail head and a rail web connecting the rail head and the rail foot so as to define a rail chamber between the rail head and the rail foot on either side of the rail web , the rail chamber filling element being adapted to at least partially fill one of the rail chambers ; or a fire retardant escape route slab for an escape route; comprising: a binder; and an elastomeric granulate material bound in the binder; characterized in that the elastomeric granulate material comprises cable jacket granulate in a relative proportion of at least 20 % and a fire protection additive that is bound in the cable jacket granulate. a fire retardant escape route slab for an escape route; comprising: a binder; and an elastomeric granulate material bound in the binder; a binder; and an elastomeric granulate material bound in the binder; characterized in that the elastomeric granulate material comprises cable jacket granulate in a relative proportion of at least 20 % and a fire protection additive that is bound in the cable jacket granulate.
A method for decoding encoded video, the method comprising receiving coded pictures of a first scalability layer comprising one or more temporal sub-layers; decoding the coded pictures of the first scalability layer; receiving coded pictures of a second scalability layer comprising one or more temporal sub-layers, the second scalability layer depending on the first scalability layer; selecting a layer access picture on the second scalability layer from the coded pictures of the second scalability layer, wherein the selected layer access picture is a step-wise temporal sub-layer access (STSA) picture on a lowest temporal sub-layer, the STSA picture enabling decoding of subsequent pictures, in decoding order, on the same temporal sub-layer, wherein no inter-prediction from any picture on the same temporal sub-layer prior to said STSA picture, in decoding order, is allowed; ignoring coded pictures on the second scalability layer prior to, in decoding order, the selected layer access picture; and decoding or selecting the selected layer access picture and subsequent pictures, if any, in decoding order, on the same or a higher temporal sub-layer. receiving coded pictures of a first scalability layer comprising one or more temporal sub-layers; decoding the coded pictures of the first scalability layer; receiving coded pictures of a second scalability layer comprising one or more temporal sub-layers, the second scalability layer depending on the first scalability layer; selecting a layer access picture on the second scalability layer from the coded pictures of the second scalability layer, wherein the selected layer access picture is a step-wise temporal sub-layer access (STSA) picture on a lowest temporal sub-layer, the STSA picture enabling decoding of subsequent pictures, in decoding order, on the same temporal sub-layer, wherein no inter-prediction from any picture on the same temporal sub-layer prior to said STSA picture, in decoding order, is allowed; ignoring coded pictures on the second scalability layer prior to, in decoding order, the selected layer access picture; and decoding or selecting the selected layer access picture and subsequent pictures, if any, in decoding order, on the same or a higher temporal sub-layer.
Motorized vehicle , comprising a front part provided with at least one steering skid intended to be steered by a handlebar , a rear part comprising a frame rigidly connected to a propulsion means that is of the caterpillar type and is driven by a transmission mechanism configured to be driven by a motor , the motor being housed in a wheel of the transmission mechanism that forms a drive wheel of the propulsion means , the propulsion means being supported by a bogie , the motorized vehicle being characterized in that the bogie has an upper bogie rigidly connected to the frame and a lower bogie , said bogies being connected together by a suspension mechanism , the lower bogie having at least one degree of freedom with respect to the upper bogie , said wheel of the transmission mechanism that forms a drive wheel of the propulsion means being rigidly connected to the lower bogie , at the rear thereof.
An agricultural working machine, in particular a tractor, with a drive unit comprising at least one propulsion engine for the production of propulsive power, with a first power consumer in the form of a propulsion unit and at least one further power consumer in the form of a hydraulically actuatable working unit and/or implement of the agricultural working machine , wherein a driver assistance system of the agricultural working machine is configured to carry out an automatic regulation of the propulsive power based on both a determined required power and/or load factor of the first power consumer as well as based on a determined required hydraulic power and/or a hydraulic load factor of the at least one further power consumer , characterized in that the driver assistance system for automatic regulation of the propulsive power has a hydraulic controller which is configured to adjust the pump speed of the respective hydraulic pump which is associated with one or more of the further power consumers as a function of a performance requirement of the respective further power consumer(s) , wherein drive controllers and hydraulic controllers are configured to communicate with each other. wherein a driver assistance system of the agricultural working machine is configured to carry out an automatic regulation of the propulsive power based on both a determined required power and/or load factor of the first power consumer as well as based on a determined required hydraulic power and/or a hydraulic load factor of the at least one further power consumer , characterized in that the driver assistance system for automatic regulation of the propulsive power has a hydraulic controller which is configured to adjust the pump speed of the respective hydraulic pump which is associated with one or more of the further power consumers as a function of a performance requirement of the respective further power consumer(s) , wherein drive controllers and hydraulic controllers are configured to communicate with each other.
A method of operating a network entity (101, 104; 201, 206, 207) of a network comprising a gateway (100; 200), the method characterized by : dynamically changing or shifting a general packet radio service tunneling protocol, GTP, termination point (105; 204, 227), wherein the GTP termination point (105; 204, 227) is configured to serve as a mobility anchor point, in the gateway (100; 200) from a cloud GTP termination point (105; 227) in a control plane to a physical GTP termination point (105; 204) in a user plane, or from the physical GTP termination point (105; 204) in the user plane to the cloud GTP termination point (105; 227) in the control plane, wherein the changing or shifting of the GTP termination point (105; 204, 227) is initiated by a trigger originating from an exceeded traffic volume threshold associated with the gateway (100; 200). dynamically changing or shifting a general packet radio service tunneling protocol, GTP, termination point (105; 204, 227), wherein the GTP termination point (105; 204, 227) is configured to serve as a mobility anchor point, in the gateway (100; 200) from a cloud GTP termination point (105; 227) in a control plane to a physical GTP termination point (105; 204) in a user plane, or from the physical GTP termination point (105; 204) in the user plane to the cloud GTP termination point (105; 227) in the control plane, from a cloud GTP termination point (105; 227) in a control plane to a physical GTP termination point (105; 204) in a user plane, or from the physical GTP termination point (105; 204) in the user plane to the cloud GTP termination point (105; 227) in the control plane, wherein the changing or shifting of the GTP termination point (105; 204, 227) is initiated by a trigger originating from an exceeded traffic volume threshold associated with the gateway (100; 200).
A respiratory mask for use in an aircraft, comprising: a plurality of sensors monitoring at least one of cockpit ambient air for at least one parameter capable of affecting oxygen level and health of a crew member for at least one parameter capable of causing respiratory disorder, and providing associated output signals; and a regulator electronically coupled to the plurality of sensors , wherein the regulator automatically switches between operating modes to supply respiratory gas to the crew member based on the associated output signals of the plurality of sensors , wherein the operating modes comprise a dilution mode, an emergency mode, and a recirculation mode, wherein the respiratory gas comprises a combination of exhaled gas and oxygen during the recirculation mode. a plurality of sensors monitoring at least one of cockpit ambient air for at least one parameter capable of affecting oxygen level and health of a crew member for at least one parameter capable of causing respiratory disorder, and providing associated output signals; and a regulator electronically coupled to the plurality of sensors , wherein the regulator automatically switches between operating modes to supply respiratory gas to the crew member based on the associated output signals of the plurality of sensors , wherein the operating modes comprise a dilution mode, an emergency mode, and a recirculation mode, wherein the respiratory gas comprises a combination of exhaled gas and oxygen during the recirculation mode.
A gas turbine engine component comprising: a wall providing an exterior surface and an interior flow path surface , the wall having a wall thickness ; a protrusion arranged on the wall and extending a height beyond the wall thickness and providing a portion of the interior flow path surface ; and a film cooling hole having an inlet provided on the protrusion and extending to an exit on the exterior surface , characterized in that the protrusion includes a first tapered surface configured to face into a longitudinal flow, the inlet arranged on the first tapered surface , and a second tapered surface joining the first tapered surface at a peak , the second tapered surface arranged on a downstream side of the protrusion ; and the wall provides a cooling passage extending in a longitudinal direction (L), the film cooling hole aligned with the longitudinal direction and having a centerline that is generally in the same direction as the longitudinal direction (L) of the cooling passage , wherein the film cooling hole includes a metering hole providing the inlet and a diffuser providing the exit arranged downstream from the metering hole . a wall providing an exterior surface and an interior flow path surface , the wall having a wall thickness ; a protrusion arranged on the wall and extending a height beyond the wall thickness and providing a portion of the interior flow path surface ; and a film cooling hole having an inlet provided on the protrusion and extending to an exit on the exterior surface , characterized in that the protrusion includes a first tapered surface configured to face into a longitudinal flow, the inlet arranged on the first tapered surface , and a second tapered surface joining the first tapered surface at a peak , the second tapered surface arranged on a downstream side of the protrusion ; and the wall provides a cooling passage extending in a longitudinal direction (L), the film cooling hole aligned with the longitudinal direction and having a centerline that is generally in the same direction as the longitudinal direction (L) of the cooling passage , wherein the film cooling hole includes a metering hole providing the inlet and a diffuser providing the exit arranged downstream from the metering hole .
An in-line check valve for use in microfluidic devices such as small, implantable drug-delivery devices, comprising: a first rigid tube defining a first lumen for flow of fluid therethrough; affixed to an interior surface of the first tube and spanning a cross-section thereof, an elastic diaphragm comprising a slit or opening therethrough ; and a backward-leakage stopper (i) extending beyond and surrounding an inlet end of the first rigid tube , (ii) affixed to an exterior surface of the first tube, and (iii) abutting the diaphragm at a first side thereof ; wherein the valve is configured to (i) open upon application of at least a cracking pressure on the first side of the diaphragm so as to permit fluid to pass through the slit or opening from the first side to a second side of the diaphragm, and (ii) prevent backflow of fluid from the second side to the first side until at least a breakdown pressure is reached on the second side. a first rigid tube defining a first lumen for flow of fluid therethrough; affixed to an interior surface of the first tube and spanning a cross-section thereof, an elastic diaphragm comprising a slit or opening therethrough ; and a backward-leakage stopper (i) extending beyond and surrounding an inlet end of the first rigid tube , (ii) affixed to an exterior surface of the first tube, and (iii) abutting the diaphragm at a first side thereof ; wherein the valve is configured to (i) open upon application of at least a cracking pressure on the first side of the diaphragm so as to permit fluid to pass through the slit or opening from the first side to a second side of the diaphragm, and (ii) prevent backflow of fluid from the second side to the first side until at least a breakdown pressure is reached on the second side.
A reaction system for preparing β-phenylethanol, wherein the reaction system comprises: a micro reaction channel loaded with a catalyst, wherein the micro reaction channel is a coiled tube having a microsized diameter and used as reaction site; a Y-shaped channel communicated with one end of the micro reaction channel, wherein the two channels of the Y-shaped channel are respectively one gas channel for introducing a gas reaction raw material and one liquid channel for introducing a liquid reaction raw material; an outlet filtration unit communicated with the other end of the micro reaction channel, wherein the outlet filtration unit is used for preventing the catalyst in the micro reaction channel from passing through and allowing liquid product and gas to flow out; a gas-liquid separation system communicated with the outlet filtration unit, wherein the gas-liquid separation system is used for separating the liquid product from the gas; and an ultrasonic field generator for applying an ultrasonic field to the micro reaction channel; wherein the Y-shaped channel has a channel diameter of 5-50 μm; the gas channel and the liquid channel of the Y-shaped channel are both composed of a plurality of evenly distributed thin tubes; the number of the thin tubes per channel is 3-15; the micro reaction channel has a diameter of 5-500 μm; and the outlet filtration unit is an etched silicon column having an average pore diameter of 0.1-15 μm. a micro reaction channel loaded with a catalyst, wherein the micro reaction channel is a coiled tube having a microsized diameter and used as reaction site; a Y-shaped channel communicated with one end of the micro reaction channel, wherein the two channels of the Y-shaped channel are respectively one gas channel for introducing a gas reaction raw material and one liquid channel for introducing a liquid reaction raw material; an outlet filtration unit communicated with the other end of the micro reaction channel, wherein the outlet filtration unit is used for preventing the catalyst in the micro reaction channel from passing through and allowing liquid product and gas to flow out; a gas-liquid separation system communicated with the outlet filtration unit, wherein the gas-liquid separation system is used for separating the liquid product from the gas; and an ultrasonic field generator for applying an ultrasonic field to the micro reaction channel; wherein the Y-shaped channel has a channel diameter of 5-50 μm; the gas channel and the liquid channel of the Y-shaped channel are both composed of a plurality of evenly distributed thin tubes; the number of the thin tubes per channel is 3-15; the micro reaction channel has a diameter of 5-500 μm; and the outlet filtration unit is an etched silicon column having an average pore diameter of 0.1-15 μm.