mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tire seater for seating a tire on a wheel, the pneumatic tire seater comprising: an air tank configured to hold pressurized air in an interior of the air tank; a gas valve in unconstrained pneumatic communication with the interior of the air tank , the gas valve being configured with an endcap at a proximal end of the gas valve; a piston included as part of the gas valve , the piston being configured to slide back and forth within a cylinder of the gas valve, wherein a distal end of the piston is configured to be seated in a closed position against a portion of the gas valve to prevent the pressurized air from escaping from the air tank ; a control chamber formed within the cylinder between the endcap of the gas valve and a proximal end of the piston ; one or more control gas passageways configured to provide constrained pneumatic communication between the control chamber and the pressurized air in the air tank and a flexible sealing component included as part of the gas valve and being configured to removably seat on a portion of the gas valve in an airtight manner; wherein, in response to being opened the gas valve releases the pressurized air from the air tank in a burst sufficient to seat the tire on a rim of the wheel. an air tank configured to hold pressurized air in an interior of the air tank; a gas valve in unconstrained pneumatic communication with the interior of the air tank , the gas valve being configured with an endcap at a proximal end of the gas valve; a piston included as part of the gas valve , the piston being configured to slide back and forth within a cylinder of the gas valve, wherein a distal end of the piston is configured to be seated in a closed position against a portion of the gas valve to prevent the pressurized air from escaping from the air tank ; a control chamber formed within the cylinder between the endcap of the gas valve and a proximal end of the piston ; one or more control gas passageways configured to provide constrained pneumatic communication between the control chamber and the pressurized air in the air tank and a flexible sealing component included as part of the gas valve and being configured to removably seat on a portion of the gas valve in an airtight manner; wherein, in response to being opened the gas valve releases the pressurized air from the air tank in a burst sufficient to seat the tire on a rim of the wheel.
A device for emulsifying a milk-based beverage for coffee machines, comprising, operatively associated with one another, a main steam connector for connecting to the coffee machine , an intake tube for drawing milk from a milk container , a mixing body , a steam connector with a reducing hole placed between said mixing body and said main connector , a mixing element and a stabilizing element associated with said mixing body , wherein said main steam connector comprises a first safety means for the connection of said main steam connector to said coffee machine, characterised in that said main steam connector further comprises second safety means for the limited rotation of the head of said main connector so as to direct said emulsified beverage into a container .
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station , a radio resource control, RRC, message comprising information on a normal resource pool; based on the terminal receiving information on an exceptional resource pool and a sensing result on the normal resource pool being not available, randomly selecting a resource from the exceptional resource pool, wherein the resource from the exceptional resource pool is for transmitting a scheduling assignment, SA, and data corresponding to the SA to another terminal; and transmitting the SA and the data based on the randomly selected resource from the exceptional resource pool. receiving, from a base station , a radio resource control, RRC, message comprising information on a normal resource pool; based on the terminal receiving information on an exceptional resource pool and a sensing result on the normal resource pool being not available, randomly selecting a resource from the exceptional resource pool, wherein the resource from the exceptional resource pool is for transmitting a scheduling assignment, SA, and data corresponding to the SA to another terminal; and transmitting the SA and the data based on the randomly selected resource from the exceptional resource pool.
Sensor comprising a sensor element for detecting the concentration of a gas component or the temperature or a solid constituent part or a liquid constituent part of an exhaust gas from an internal combustion engine, wherein the sensor element has a first end region and a second end region which are situated opposite one another in its longitudinal direction, wherein the sensor element has, in the first end region , a functional element which is electrically conductively connected to a contact area which is arranged on the outer surface of the sensor element in the second end region , wherein the contact area has, on its side that is averted from the first end region , a rounded portion and wherein the contact area has a body region , a head region and a neck region , wherein the body region is arranged on that side of the contact area which is averted from the first end region , wherein the head region is arranged on that side of the contact area which faces the first end region , wherein the neck region is arranged between the body region and the head region , in which neck region the width of the contact area is smaller than in the body region and in the head region , wherein the head region constitutes the connection to a bushing which leads from the head region into the interior of the sensor element perpendicularly to the contact area , wherein the body region is of oval design with straight side edges which run in the longitudinal direction, and comprising a metal contact element which electrically contact-connects the sensor element to the contact area in a force-fitting and/or interlocking manner from outside the sensor element .
A haptic feedback device for steering simulation, comprising: a base unit including a base , a base supporting body extended upward from the base , a first rolling component located on the base , a second rolling component located on top of the base supporting body , and a roll center line formed by the first and the second rolling components ; and a rolling unit including a rolling base being capable of carrying at least one person (A), and a rolling supporting body connected to the rolling base , wherein one part of the rolling base is pivotally connected to the first rolling component , and one part of the rolling supporting body is pivotally connected to the second rolling component , so that the rolling base rotates around the roll center line and a cone rotation is performed; characterized in that height of the first rolling component is lower than the second rolling component , and the rolling supporting body is provided with a length-adjustable actuation component to control length of rolling supporting body . a base unit including a base , a base supporting body extended upward from the base , a first rolling component located on the base , a second rolling component located on top of the base supporting body , and a roll center line formed by the first and the second rolling components ; and a rolling unit including a rolling base being capable of carrying at least one person (A), and a rolling supporting body connected to the rolling base , wherein one part of the rolling base is pivotally connected to the first rolling component , and one part of the rolling supporting body is pivotally connected to the second rolling component , so that the rolling base rotates around the roll center line and a cone rotation is performed; characterized in that height of the first rolling component is lower than the second rolling component , and the rolling supporting body is provided with a length-adjustable actuation component to control length of rolling supporting body .
A method of determining an optical power of a toric lens, the method comprising: receiving a measurement related to an anterior corneal portion of an eye of a patient, the measurement obtained by an ophthalmic diagnostic device; receiving information related to a position of an incision to be made in the eye of the patient for surgical purpose; and calculating an optical power of a toric lens based on the received measurement and the received position, wherein the method is performed by a processor by executing instructions stored in a non-transitory computer medium; and wherein receiving the measurement related to an anterior corneal portion includes receiving orientation of the steep meridian of the anterior corneal portion; characterised in that calculating an optical power of a toric lens includes calculating a value for surgically induced astigmatism, the surgically induced astigmatism value given by a function of a sine of the orientation of the steep meridian of the anterior corneal portion and a function of the position of the incision, wherein the function comprises a first orthogonal component represented by J 0 SIA and a second orthogonal component represented by J 45 SIA, wherein J 0 SIA = k 1 + k 2 × ( sin abs φ ∗ π 180 − 1 and J 45 SIA = k 3 × ( 0 − ( cos abs φ ∗ π 180 , wherein the variable φ refers to the angular difference between the pre-operative orientation of the steep meridian of the anterior cornea and the incision axis and k 1 , k 2 and k 3 are constants. receiving a measurement related to an anterior corneal portion of an eye of a patient, the measurement obtained by an ophthalmic diagnostic device; receiving information related to a position of an incision to be made in the eye of the patient for surgical purpose; and calculating an optical power of a toric lens based on the received measurement and the received position, wherein the method is performed by a processor by executing instructions stored in a non-transitory computer medium; and wherein receiving the measurement related to an anterior corneal portion includes receiving orientation of the steep meridian of the anterior corneal portion; characterised in that calculating an optical power of a toric lens includes calculating a value for surgically induced astigmatism, the surgically induced astigmatism value given by a function of a sine of the orientation of the steep meridian of the anterior corneal portion and a function of the position of the incision, wherein the function comprises a first orthogonal component represented by J 0 SIA and a second orthogonal component represented by J 45 SIA, wherein J 0 SIA = k 1 + k 2 × ( sin abs φ ∗ π 180 − 1 and J 45 SIA = k 3 × ( 0 − ( cos abs φ ∗ π 180 , wherein the variable φ refers to the angular difference between the pre-operative orientation of the steep meridian of the anterior cornea and the incision axis and k 1 , k 2 and k 3 are constants.
A high-pressure hose comprising, within a hose main body , four or more reinforcing layers at which linear reinforcing materials extend in spiral shapes, wherein, at two reinforcing layers that are adjacent in a hose radial direction, a pitch length λ of the reinforcing material at a reinforcing layer that is disposed at an outer side is shorter than a pitch length λ of the reinforcing material at a reinforcing layer that is disposed at an inner side, wherein given that there are n reinforcing layers, and that the pitch length λ of the innermost layer is λ1, and that the pitch length λ of the outermost layer is λn, there is a structure in which λ1 > λ2 ... > λn.
A fixing bracket for a photographing device, comprising: a rod member ; a sliding member ; a plurality of supporting feet ; and a supporting frame; wherein the sliding member is slidably sleeved on an outer surface of the rod member , top ends of the plurality of the supporting feet are hinged to the sliding member , and the supporting feet are swingable with respect to the sliding member ; at least one limiting protrusion is disposed on the outer surface of the rod member close to a bottom end of the rod member , the at least one limiting protrusion is configured to block the sliding member or the supporting feet from sliding towards the bottom end of the rod member , the at least one limiting protrusion is disposed between the sliding member and the bottom end of the rod member , the supporting frame comprises a plurality of connecting rods , top ends of the plurality of the connecting rods are hinged with the supporting feet , and bottom ends of the connecting rods are hinged with the bottom end of the rod member ; the at least one limiting protrusion is at least one structure outwardly protruding from the rod member , wherein the at least one limiting protrusion is at least one convex hull on the outer surface of the rod member , or the at least one limiting protrusion is an annular convex rib surrounding the outer surface of the rod member , characterized in that the at least one convex hull or the annular convex rib is directly formed by extending a wall body of the rod member in an outward direction. a rod member ; a sliding member ; a plurality of supporting feet ; and a supporting frame; wherein the sliding member is slidably sleeved on an outer surface of the rod member , top ends of the plurality of the supporting feet are hinged to the sliding member , and the supporting feet are swingable with respect to the sliding member ; at least one limiting protrusion is disposed on the outer surface of the rod member close to a bottom end of the rod member , the at least one limiting protrusion is configured to block the sliding member or the supporting feet from sliding towards the bottom end of the rod member , the at least one limiting protrusion is disposed between the sliding member and the bottom end of the rod member , the supporting frame comprises a plurality of connecting rods , top ends of the plurality of the connecting rods are hinged with the supporting feet , and bottom ends of the connecting rods are hinged with the bottom end of the rod member ; the at least one limiting protrusion is at least one structure outwardly protruding from the rod member , wherein the at least one limiting protrusion is at least one convex hull on the outer surface of the rod member , or the at least one limiting protrusion is an annular convex rib surrounding the outer surface of the rod member , characterized in that the at least one convex hull or the annular convex rib is directly formed by extending a wall body of the rod member in an outward direction.
A vacuum insulated glass (VIG) window unit , comprising: first and second spaced apart glass substrates defining a gap therebetween; an edge seal provided proximate a periphery of the first and second substrates to form a hermetic seal, and help define the gap which is at a pressure less than atmospheric pressure; a plurality of spacers provided between at least the first and second glass substrates of the VIG window unit for helping space apart at least the first and second glass substrates ; and characterized in that the spacers comprise an amorphous metal alloy comprising a non-crystalline structure, and wherein the spacers have a thermal conductivity of no greater than 13.0 W/m-K and a compressive yield strength of at least 80,000 psi. first and second spaced apart glass substrates defining a gap therebetween; an edge seal provided proximate a periphery of the first and second substrates to form a hermetic seal, and help define the gap which is at a pressure less than atmospheric pressure; a plurality of spacers provided between at least the first and second glass substrates of the VIG window unit for helping space apart at least the first and second glass substrates ; and characterized in that the spacers comprise an amorphous metal alloy comprising a non-crystalline structure, and wherein the spacers have a thermal conductivity of no greater than 13.0 W/m-K and a compressive yield strength of at least 80,000 psi.
Device for handling and/or sorting cargo , wherein the cargo is loaded into containers and/or unloaded from containers , comprising: several loading boxes for loading a container with cargo , several unloading boxes for unloading cargo from a container , a sorting belt for transporting cargo from an unloading box to a loading box , a container transport device for transporting containers between a vehicle and/or an unloading box and/or a loading box , wherein the sorting belt has a primary transport belt and several unloading belts branching off therefrom, said unloading belts connecting an unloading box to the primary transport belt , characterised in that an unloading box has at least one respective unloading belt that is arranged in such a way that it runs along a longitudinal side of a container located in the unloading box and is designed to be transversely displaceable in order to adjust the distance between the container and the unloading belt . several loading boxes for loading a container with cargo , several unloading boxes for unloading cargo from a container , a sorting belt for transporting cargo from an unloading box to a loading box , a container transport device for transporting containers between a vehicle and/or an unloading box and/or a loading box , wherein the sorting belt has a primary transport belt and several unloading belts branching off therefrom, said unloading belts connecting an unloading box to the primary transport belt , characterised in that an unloading box has at least one respective unloading belt that is arranged in such a way that it runs along a longitudinal side of a container located in the unloading box and is designed to be transversely displaceable in order to adjust the distance between the container and the unloading belt .
Process for making a coated oxide material, said process comprising the following steps: (a) providing a particulate material selected from lithiated nickel-cobalt aluminum oxides and lithiated layered nickel-cobalt-manganese oxides with a nickel content in the range of from 10 to 95 mole-% nickel, percentages referring to the metals other than lithium in such particulate material, (b) optionally, treating said particulate material with an aqueous medium, followed by removing said aqueous medium, (c) treating said particulate material from step (a) or (b) with a metal amide or alkyl metal compound dissolved or slurried in an organic solvent, (d) removal of organic solvent employed in step (c). (a) providing a particulate material selected from lithiated nickel-cobalt aluminum oxides and lithiated layered nickel-cobalt-manganese oxides with a nickel content in the range of from 10 to 95 mole-% nickel, percentages referring to the metals other than lithium in such particulate material, (b) optionally, treating said particulate material with an aqueous medium, followed by removing said aqueous medium, (c) treating said particulate material from step (a) or (b) with a metal amide or alkyl metal compound dissolved or slurried in an organic solvent, (d) removal of organic solvent employed in step (c).
A method for performing communication based on a beam group performed by a terminal device, the method comprising the step of: • grouping transmit beams of a network device based on a receive beam of the terminal device, thereby forming multiple groups of transmit beams, each group of transmit beams corresponding to a different receive beam (step 301); • determining, as spatial direction information, for each beam group among the multiple beam groups a direction vector of the corresponding receive beam (step 302); • characterised by determining, for each two beam groups among the multiple groups of transmit beams, information about a correlation between the two beam groups, so that at least one correlation is determined, wherein the determining the information about the correlation between the two beam groups comprises: ∘ determining the correlation between the two beam groups by using a formula where Coherence represents a correlation between a beam group 1 among the two beam groups and a beam group 2 among the two beam groups, V 1 represents a direction vector of a spatial direction of the beam group 1, and V 2 represents a direction vector of a spatial direction of the beam group 2; • sending information about the at least one correlation between the beam groups to the base station (step 303). • grouping transmit beams of a network device based on a receive beam of the terminal device, thereby forming multiple groups of transmit beams, each group of transmit beams corresponding to a different receive beam (step 301); • determining, as spatial direction information, for each beam group among the multiple beam groups a direction vector of the corresponding receive beam (step 302); • characterised by determining, for each two beam groups among the multiple groups of transmit beams, information about a correlation between the two beam groups, so that at least one correlation is determined, wherein the determining the information about the correlation between the two beam groups comprises: ∘ determining the correlation between the two beam groups by using a formula where Coherence represents a correlation between a beam group 1 among the two beam groups and a beam group 2 among the two beam groups, V 1 represents a direction vector of a spatial direction of the beam group 1, and V 2 represents a direction vector of a spatial direction of the beam group 2; • sending information about the at least one correlation between the beam groups to the base station (step 303).
A modular fan unit , adapted to be mounted under a radiator having one or more panels, said fan unit comprising: - a housing , adapted to be located under said radiator; - an electric fan provided within the housing and arranged to drive air upwards over said one or more panels; - a low temperature cut-out (LTC) sensor having attachment means adapted to be attached to one of said panels, and adapted to activate the fan only upon water temperature in said panel reaching a pre-determined value; and - control means arranged to operate the fan, the modular fan unit being characterized in that the LTC sensor is provided externally of the housing and communicates via a wire with said control means, the attachment means are magnetic attachment means, and the control means comprises a LTC over-ride switch provided on the housing and adapted to enable operation of the fan when water temperature in said panel is below said pre-determined value. - a housing , adapted to be located under said radiator; - an electric fan provided within the housing and arranged to drive air upwards over said one or more panels; - a low temperature cut-out (LTC) sensor having attachment means adapted to be attached to one of said panels, and adapted to activate the fan only upon water temperature in said panel reaching a pre-determined value; and - control means arranged to operate the fan,