mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining, by a positioning system including a GPS receiver, a latitude, longitude and/or altitude position of a vehicle ; determining, by one or more processors , a set of routes from a start location to an end location, each route of the set of routes comprising one or more portions; for each given route of the set of routes, determining, by the one or more processors, a total motion sickness value based on a sway motion sickness value, a surge motion sickness value, and a heave motion sickness value for each of the one or more portions of the given route, wherein the total motion sickness value for a route reflects a likelihood that a user will experience motion sickness while in the vehicle along the route; selecting, by the one or more processors, a first route of the set of routes based on the total motion sickness value of each route of the set of routes; receiving, by the one or more processors, user input indicating a user is experiencing symptoms of motion sickness while the vehicle is operating autonomously using a first driving style for traveling along the first route; and operating, by the one or more processors, when the user input has been received, the vehicle autonomously using a second driving style for traveling along the first route, the second driving style being less assertive than the first driving style. determining, by a positioning system including a GPS receiver, a latitude, longitude and/or altitude position of a vehicle ; determining, by one or more processors , a set of routes from a start location to an end location, each route of the set of routes comprising one or more portions; for each given route of the set of routes, determining, by the one or more processors, a total motion sickness value based on a sway motion sickness value, a surge motion sickness value, and a heave motion sickness value for each of the one or more portions of the given route, wherein the total motion sickness value for a route reflects a likelihood that a user will experience motion sickness while in the vehicle along the route; selecting, by the one or more processors, a first route of the set of routes based on the total motion sickness value of each route of the set of routes; receiving, by the one or more processors, user input indicating a user is experiencing symptoms of motion sickness while the vehicle is operating autonomously using a first driving style for traveling along the first route; and operating, by the one or more processors, when the user input has been received, the vehicle autonomously using a second driving style for traveling along the first route, the second driving style being less assertive than the first driving style.
Laboratory device unit for processing substances, mixtures or media, comprising a laboratory device and comprising a remote control for the adjustment variables that are present or alterable and/or the measurement variables that are detectable in the laboratory device , the laboratory device being equipped with a full adjustment and/or measurement range with regard to its adjustment and/or measurement variables, characterized in that the remote control is designed for the full range of the adjustment variables that are present and/or alterable and/or the measurement variables that are detectable on the laboratory device , and in that functions of the remote control are releasably blocked electronically and/or by software in such a way that only a restricted adjustment and/or measurement range of the laboratory device is actuable and/or only a portion of the adjustment and/or measurement variables of the laboratory device is retrievable or controllable or regulatable, the laboratory device having a weighing function as adjustment variable and/or being a stirring device or a dispersing device or a magnetic stirrer.
Process for producing a sintered body, comprising the following steps: a) pressing a valve metal powder selected from tantalum and/or niobium, comprising: i) oxygen in an amount of 4100 ppm·g/m 2 and 8000 ppm·g/m 2 , ii) nitrogen in an amount below 300 ppm, preferably between 0.1 ppm and 300 ppm, iii) boron in an amount below 10 ppm, preferably between 0.01 ppm and 10 ppm, iv) sulfur in an amount below 20 ppm, preferably between 0.1 ppm and 10 ppm, v) silicon in an amount below 20 ppm, preferably between 0.01 ppm and 20 ppm, vi) arsenic in an amount below 10 ppm, preferably between 0.01 ppm and 10 ppm and vii) phosphorus in an amount below 20 ppm, preferably between 0.1 ppm and 20 ppm, where the ppm values are each based on parts by mass, wherein the powder is pressed around a wire, b) providing the pellet obtained in step a) together with a reducing agent such that the pellet is not in direct contact and does not come into direct contact with solid or liquid reducing agent, c) heating in such a way that the powder is sintered to form a sintered body and the oxygen content of the valve metal within the sintered body is simultaneously reduced; and d) removing the oxidized reducing agent with the aid of mineral acids, where the sintered body in step c) has an oxygen content of 2400 to 3600 ppm·g/m 2 . a) pressing a valve metal powder selected from tantalum and/or niobium, comprising: i) oxygen in an amount of 4100 ppm·g/m 2 and 8000 ppm·g/m 2 , ii) nitrogen in an amount below 300 ppm, preferably between 0.1 ppm and 300 ppm, iii) boron in an amount below 10 ppm, preferably between 0.01 ppm and 10 ppm, iv) sulfur in an amount below 20 ppm, preferably between 0.1 ppm and 10 ppm, v) silicon in an amount below 20 ppm, preferably between 0.01 ppm and 20 ppm, vi) arsenic in an amount below 10 ppm, preferably between 0.01 ppm and 10 ppm and vii) phosphorus in an amount below 20 ppm, preferably between 0.1 ppm and 20 ppm, where the ppm values are each based on parts by mass, wherein the powder is pressed around a wire, i) oxygen in an amount of 4100 ppm·g/m 2 and 8000 ppm·g/m 2 , ii) nitrogen in an amount below 300 ppm, preferably between 0.1 ppm and 300 ppm, iii) boron in an amount below 10 ppm, preferably between 0.01 ppm and 10 ppm, iv) sulfur in an amount below 20 ppm, preferably between 0.1 ppm and 10 ppm, v) silicon in an amount below 20 ppm, preferably between 0.01 ppm and 20 ppm, vi) arsenic in an amount below 10 ppm, preferably between 0.01 ppm and 10 ppm and vii) phosphorus in an amount below 20 ppm, preferably between 0.1 ppm and 20 ppm, where the ppm values are each based on parts by mass, b) providing the pellet obtained in step a) together with a reducing agent such that the pellet is not in direct contact and does not come into direct contact with solid or liquid reducing agent, c) heating in such a way that the powder is sintered to form a sintered body and the oxygen content of the valve metal within the sintered body is simultaneously reduced; and d) removing the oxidized reducing agent with the aid of mineral acids, where the sintered body in step c) has an oxygen content of 2400 to 3600 ppm·g/m 2 .
A water disintegrable granular composition comprising: at least one agrochemical active, wherein the agrochemical active comprises any one of a water insoluble nutrient or an algae or a pesticidal active, in a concentration range of 0.1% to 95% by weight; and, at least one agrochemically acceptable excipient; wherein the water disintegrable granular composition is in a size range of 0.1 mm to 6 mm, comprising particles in a size range of from 0.1 μm to 50 μm; and, wherein the water disintegrable granular composition has a bulk density of less than 1.5 g/ml and a hardness of at least 1 Newton. at least one agrochemical active, wherein the agrochemical active comprises any one of a water insoluble nutrient or an algae or a pesticidal active, in a concentration range of 0.1% to 95% by weight; and, at least one agrochemically acceptable excipient; wherein the water disintegrable granular composition is in a size range of 0.1 mm to 6 mm, comprising particles in a size range of from 0.1 μm to 50 μm; and, wherein the water disintegrable granular composition has a bulk density of less than 1.5 g/ml and a hardness of at least 1 Newton.
A support and guiding system of doors for sliding door closets, comprising carriages on an upper part of a door with bearings with horizontal axis (X) sliding in a track arranged on a plane of the closet, and carriages on a lower part of the door with bearings with vertical axis (Y) sliding in a track placed under a plane of the closet, characterised in that said upper track is made of at least two sections (20', 20") joined by a joint and said upper carriages have a double bearing , a first of said bearings being normally engaged with a corresponding first track or guide , the second of said bearings going into engagement with a corresponding second track or guide at said joint producing the detachment of the first bearing from the corresponding first track or guide , wherein said bearings of the upper carriages are coaxial and of the same diameter, and said second track of the joint of engaging of said second bearing has a height at the ends equal to or slightly lower than the height of the first bearing engagement track , the height gradually increasing towards the centre, at the area of joining between the two track sections (20', 20") exceeding the height of the first track .
A negative electrode active material for an electrical device, comprising a Si-containing alloy having a composition to be represented by the following Chemical Formula : [Chemical Formula 1] Si x Sn y M z Al w A a wherein in Chemical Formula above, M is one or two or more transition metal elements selected from the group consisting of Ti, Zr, Ni, Cu, Mo, Nb, Sc, Co, Cr and Fe, A is an unavoidable impurity, and x, y, z, w, and a represent values of percentage by mass, wherein y, z, and w are 2 ≤ y ≤ 10, 25 ≤ z ≤ 35, and 0.3 ≤ w ≤ 3, respectively, and x + y + z + w + a = 100. M is one or two or more transition metal elements selected from the group consisting of Ti, Zr, Ni, Cu, Mo, Nb, Sc, Co, Cr and Fe, A is an unavoidable impurity, and x, y, z, w, and a represent values of percentage by mass, wherein y, z, and w are 2 ≤ y ≤ 10, 25 ≤ z ≤ 35, and 0.3 ≤ w ≤ 3, respectively, and x + y + z + w + a = 100.
An instrument for determining macular pigment of a macula of an eye of a user, characterized in : a housing including a lower hand-held portion with a user-input button configured for actuation by the user and a display for displaying an MPOD score for the user, the lower hand-held portion further including a battery and electronics for operating the instrument ; and a viewing tube coupled to the hand-held portion and terminating in an eye cup configured to be placed over the eye of the user, the viewing tube being transverse to the lower hand-held portion , the viewing tube including a light source for transmitting light and a blocking wall with an aperture adjacent to the light source , the viewing tube further including a light ring with a center opening, the light ring being located between the blocking wall and the eye cup , the light source is located in the viewing tube such that the light is transmitted through the aperture of the blocking wall , through the center opening of the light ring , and toward the eye cup , the light source providing two colored lights alternating at an initial frequency that is not perceptible by the user, the frequency decreasing from the initial frequency until the user activates the user-input button in response to a frequency at which the user perceives a flicker of the two colored lights, the perceived frequency being used to for determining the MPOD score for the user. a housing including a lower hand-held portion with a user-input button configured for actuation by the user and a display for displaying an MPOD score for the user, the lower hand-held portion further including a battery and electronics for operating the instrument ; and a viewing tube coupled to the hand-held portion and terminating in an eye cup configured to be placed over the eye of the user, the viewing tube being transverse to the lower hand-held portion , the viewing tube including a light source for transmitting light and a blocking wall with an aperture adjacent to the light source , the viewing tube further including a light ring with a center opening, the light ring being located between the blocking wall and the eye cup , the light source is located in the viewing tube such that the light is transmitted through the aperture of the blocking wall , through the center opening of the light ring , and toward the eye cup , the light source providing two colored lights alternating at an initial frequency that is not perceptible by the user, the frequency decreasing from the initial frequency until the user activates the user-input button in response to a frequency at which the user perceives a flicker of the two colored lights, the perceived frequency being used to for determining the MPOD score for the user.
A shroud hanger assembly for a gas turbine, comprising: a shroud , the shroud comprising: a forward shroud wall ; an aft shroud wall spaced from said forward shroud wall , a shroud base extending between said forward shroud wall and said aft shroud wall , said shroud base also defining a flowpath for combustor gas; a first angled portion on said forward shroud wall ; and a second angled portion on said aft shroud wall; and a shroud hanger , the shroud hanger comprising: a first hanger portion having a first angled surface ; and a second hanger portion having a second angled surface ; characterized in that the first angled surface and the second angled surface mateably engage the first angled portion and the second angled portion thereby to provide radial support for said shroud . a shroud , the shroud comprising: a forward shroud wall ; an aft shroud wall spaced from said forward shroud wall , a shroud base extending between said forward shroud wall and said aft shroud wall , said shroud base also defining a flowpath for combustor gas; a first angled portion on said forward shroud wall ; and a second angled portion on said aft shroud wall; and a forward shroud wall ; an aft shroud wall spaced from said forward shroud wall , a shroud base extending between said forward shroud wall and said aft shroud wall , said shroud base also defining a flowpath for combustor gas; a first angled portion on said forward shroud wall ; and a second angled portion on said aft shroud wall; and a shroud hanger , the shroud hanger comprising: a first hanger portion having a first angled surface ; and a second hanger portion having a second angled surface ; a first hanger portion having a first angled surface ; and a second hanger portion having a second angled surface ; characterized in that the first angled surface and the second angled surface mateably engage the first angled portion and the second angled portion thereby to provide radial support for said shroud .
A check valve , comprising: a check valve body having a seat defining an aperture through which a fluid flow is permitted; a pin-hinge disposed to bifurcate the aperture into first and second openings (221; 222) and a housing connected to the seat and supportively coupled to the pin-hinge ; the check valve body further comprising a housing having sidewalls connected to the seat and respectively coupled to opposite ends of the pin hinge to support the pin hinge ; first and second petals pivotably coupled to the pin-hinge to occupy respective open and closed positions in accordance with a pressure differential of the fluid flow across the check valve ; bearing elements disposed in sequence along the pin-hinge to pivotably couple the first and second petals to the pin-hinge ; and a respective lift generating element coupled to each of the petals and configured to aerodynamically interact with the fluid flow to generate a lift force on the petals in a direction transverse to a direction of the fluid flow; characterized by further comprising: a washer element interposed between an endmost one of the bearing elements and the adjacent corresponding sidewall so as to support the bearing element and bear the weight of the first and second petals when the check valve is in a vertical orientation with the said one of the bearing elements lowermost, the lift force being directed to relieve the weight of the first and second petals borne by the washer element when the valve is in that orientation. a check valve body having a seat defining an aperture through which a fluid flow is permitted; a pin-hinge disposed to bifurcate the aperture into first and second openings (221; 222) and a housing connected to the seat and supportively coupled to the pin-hinge ; the check valve body further comprising a housing having sidewalls connected to the seat and respectively coupled to opposite ends of the pin hinge to support the pin hinge ; first and second petals pivotably coupled to the pin-hinge to occupy respective open and closed positions in accordance with a pressure differential of the fluid flow across the check valve ; bearing elements disposed in sequence along the pin-hinge to pivotably couple the first and second petals to the pin-hinge ; and a respective lift generating element coupled to each of the petals and configured to aerodynamically interact with the fluid flow to generate a lift force on the petals in a direction transverse to a direction of the fluid flow; characterized by further comprising: a washer element interposed between an endmost one of the bearing elements and the adjacent corresponding sidewall so as to support the bearing element and bear the weight of the first and second petals when the check valve is in a vertical orientation with the said one of the bearing elements lowermost, the lift force being directed to relieve the weight of the first and second petals borne by the washer element when the valve is in that orientation.
An apparatus comprising: a flexible transparent substrate; a sensor arranged to detect electromagnetic radiation, the sensor being mounted on the transparent substrate; and a flexible reflective surface, formed by depositing a reflective material onto a flexible surface, shaped and positioned relative to the sensor to reflect electromagnetic radiation that has passed through the transparent substrate at a given angle or range of angles onto the sensor, wherein the sensor comprises two dimensional material arranged to enable an electrical output to be provided in response to incident electromagnetic radiation on the sensor. a flexible transparent substrate; a sensor arranged to detect electromagnetic radiation, the sensor being mounted on the transparent substrate; and a flexible reflective surface, formed by depositing a reflective material onto a flexible surface, shaped and positioned relative to the sensor to reflect electromagnetic radiation that has passed through the transparent substrate at a given angle or range of angles onto the sensor, wherein the sensor comprises two dimensional material arranged to enable an electrical output to be provided in response to incident electromagnetic radiation on the sensor.
A device, wherein the device is applicable to an ultra dense network, UDN, and the device is a User equipment, UE, and the device comprises: a receiver , configured to receive information about one or more backhaul links, wherein one backhaul link wireless connects a micro base station and a donor micro base station in the UDN to transmit data to a core network, wherein the information about the one or more backhaul links is broadcast from different micro base stations , wherein the information about the one or more backhaul links includes active states and inactive states of the one or more backhaul links; a processor , configured to select a micro base station, wherein the micro base station is applicable to the UDN, corresponding to backhaul link information that meets a preset condition ; and a transmitter , configured to send an activation signal to the selected micro base station when the micro base station was selected corresponding to information that is about an inactive backhaul link wherein the processor is further configured to access the selected micro base station . a receiver , configured to receive information about one or more backhaul links, wherein one backhaul link wireless connects a micro base station and a donor micro base station in the UDN to transmit data to a core network, wherein the information about the one or more backhaul links is broadcast from different micro base stations , wherein the information about the one or more backhaul links includes active states and inactive states of the one or more backhaul links; a processor , configured to select a micro base station, wherein the micro base station is applicable to the UDN, corresponding to backhaul link information that meets a preset condition ; and a transmitter , configured to send an activation signal to the selected micro base station when the micro base station was selected corresponding to information that is about an inactive backhaul link wherein the processor is further configured to access the selected micro base station .
A cryogenic cooling system comprising: a cooled plate thermally coupled to a cryogenic refrigerator ; a target assembly , wherein the target assembly comprises a target refrigerator configured to obtain a lower base temperature than the cryogenic refrigerator; a heat switch assembly comprising one or more gas gap heat switches , the heat switch assembly having a first end thermally coupled to the cooled plate and a second end thermally coupled to the target assembly ; and a sorption pump configured to control the thermal conductivity across the heat switch assembly in accordance with the temperature of the sorption pump, characterised in that the sorption pump is thermally coupled to the cryogenic refrigerator by a thermal link extending from the cooled plate to the heat switch assembly, wherein the sorption pump is arranged at a position along the thermal link between the heat switch assembly and the cooled plate. a cooled plate thermally coupled to a cryogenic refrigerator ; a target assembly , wherein the target assembly comprises a target refrigerator configured to obtain a lower base temperature than the cryogenic refrigerator; a heat switch assembly comprising one or more gas gap heat switches , the heat switch assembly having a first end thermally coupled to the cooled plate and a second end thermally coupled to the target assembly ; and a sorption pump configured to control the thermal conductivity across the heat switch assembly in accordance with the temperature of the sorption pump, characterised in that the sorption pump is thermally coupled to the cryogenic refrigerator by a thermal link extending from the cooled plate to the heat switch assembly, wherein the sorption pump is arranged at a position along the thermal link between the heat switch assembly and the cooled plate.