mhurhangee/patent-ind-claim-en huggingface dataset:
A quadcopter drone , that enables modifying the pitch angle (α) of its rotors blades, wherein- the axis of movement of at least two pairs of the quadcopter drone's rotors are tilted in a symmetrical configuration in relation to the quadcopter drone's yaw plane, so that each pair converges towards another point on the same level along a longitudinal axis plane of the quadcopter drone while creating an angle (γ) between the rotation planes of the rotors of each pair, which is less than 180° and greater than 140°; wherein said drone enables maneuvering in its yaw plane, but by modifying the pitch angles (α) of its rotors blades, without changing the rotational speed of said blades; wherein the axis of movement of the rotors are distanced from each other such that there is no overlap of a rotor blade rotation circles of any of the four rotors; wherein each pair of rotors consists of one rotor rotating clockwise and one rotor rotating counter-clockwise and diagonally opposite rotors rotating in the same direction. wherein said drone enables maneuvering in its yaw plane, but by modifying the pitch angles (α) of its rotors blades, without changing the rotational speed of said blades; wherein the axis of movement of the rotors are distanced from each other such that there is no overlap of a rotor blade rotation circles of any of the four rotors; wherein each pair of rotors consists of one rotor rotating clockwise and one rotor rotating counter-clockwise and diagonally opposite rotors rotating in the same direction.
A base station adapted to perform Enhanced Interference Mitigation & Traffic Adaptation, eIMTA, the base station comprising one or more processors configured to: select a radio network temporary identifier, RNTI, used for eIMTA; select a periodicity for monitoring a physical downlink control channel, PDCCH, with the RNTI used for eIMTA; select a set of subframes to monitor the PDCCH with the RNTI used for eIMTA within the periodicity; encode for transmission to a user equipment, UE, the RNTI used for eIMTA, the set of subframes to monitor the PDCCH with the RNTI used for eIMTA; transmit a configuration comprising the RNTI and the set of subframes to the UE; and transmit a reconfiguration signal to the UE according to the periodicity, wherein the reconfiguration signal includes an indicator index. select a radio network temporary identifier, RNTI, used for eIMTA; select a periodicity for monitoring a physical downlink control channel, PDCCH, with the RNTI used for eIMTA; select a set of subframes to monitor the PDCCH with the RNTI used for eIMTA within the periodicity; encode for transmission to a user equipment, UE, the RNTI used for eIMTA, the set of subframes to monitor the PDCCH with the RNTI used for eIMTA; transmit a configuration comprising the RNTI and the set of subframes to the UE; and transmit a reconfiguration signal to the UE according to the periodicity, wherein the reconfiguration signal includes an indicator index.
A liquid immersion member for use in a liquid immersion exposure apparatus (EX) which exposes a substrate (P) via liquid (LQ) between an emitting surface of an optical member and the substrate by exposure light (EL) to form a liquid immersion space (LS) above an object (P) which is movable below the optical member, the liquid immersion member comprising: a first member that is disposed at at least a portion of surrounding of the optical member, and that comprises a first lower surface ; a liquid recovery part ; and a second member that is disposed at at least a portion of surrounding of an optical path (K) of the exposure light, and that is relatively movable with respect to the first member in a plane perpendicular to the optical path of the exposure light, wherein the second member comprises: a second upper surface that is opposite to the first lower surface of the first member via a gap; a second lower surface that is opposite to the object; and a fluid recovery part that is disposed at at least a portion of surrounding of the second lower surface, the liquid recovery part is capable of recovering a liquid from a first space (LS1) between the first lower surface and the second upper surface, and the fluid recovery part is capable of recovering fluid from a second space (LS2) between the second lower surface and the object, characterised in that : the fluid recovery part is disposed outward of the liquid recovery part with respect to the optical path of the exposure light. a first member that is disposed at at least a portion of surrounding of the optical member, and that comprises a first lower surface ; a liquid recovery part ; and a second member that is disposed at at least a portion of surrounding of an optical path (K) of the exposure light, and that is relatively movable with respect to the first member in a plane perpendicular to the optical path of the exposure light, wherein the second member comprises: a second upper surface that is opposite to the first lower surface of the first member via a gap; a second lower surface that is opposite to the object; and a fluid recovery part that is disposed at at least a portion of surrounding of the second lower surface, a second upper surface that is opposite to the first lower surface of the first member via a gap; a second lower surface that is opposite to the object; and a fluid recovery part that is disposed at at least a portion of surrounding of the second lower surface, the liquid recovery part is capable of recovering a liquid from a first space (LS1) between the first lower surface and the second upper surface, and the fluid recovery part is capable of recovering fluid from a second space (LS2) between the second lower surface and the object, characterised in that : the fluid recovery part is disposed outward of the liquid recovery part with respect to the optical path of the exposure light.
Apparatus for visualizing an image object relating to an instrument in an extracorporeal image , wherein the apparatus is configured to: receive at least one extracorporeal image of a region of interest comprising a projection of the instrument onto an imaging plane with respect to an extracorporeal image frame from an extracorporeal image acquisition system ; determine a projection of a graphical model of the instrument onto the imaging plane, which matches the projection of the instrument , determine a position and/or orientation of the instrument in the extracorporeal image frame based on the determined projection of the graphical model; receive temporal information on positions and/or orientations of the instrument in the region of interest with respect to a tracking frame from a tracking arrangement ; register the position and/or orientation of the instrument in the extracorporeal image frame to the position and/or orientation of the instrument in the region of interest with respect to a tracking frame in an initial instance; transform the positions and/or orientations of the instrument from the tracking frame at any later instance into the extracorporeal image frame using a transform; output a visualization of the image object in the at least one extracorporeal image based on the transform, wherein the image object relates to a position and/or an orientation of the instrument at a later instance than when the at least one extracorporeal image is acquired. receive at least one extracorporeal image of a region of interest comprising a projection of the instrument onto an imaging plane with respect to an extracorporeal image frame from an extracorporeal image acquisition system ; determine a projection of a graphical model of the instrument onto the imaging plane, which matches the projection of the instrument , determine a position and/or orientation of the instrument in the extracorporeal image frame based on the determined projection of the graphical model; receive temporal information on positions and/or orientations of the instrument in the region of interest with respect to a tracking frame from a tracking arrangement ; register the position and/or orientation of the instrument in the extracorporeal image frame to the position and/or orientation of the instrument in the region of interest with respect to a tracking frame in an initial instance; transform the positions and/or orientations of the instrument from the tracking frame at any later instance into the extracorporeal image frame using a transform; output a visualization of the image object in the at least one extracorporeal image based on the transform, wherein the image object relates to a position and/or an orientation of the instrument at a later instance than when the at least one extracorporeal image is acquired.
A watch comprising: a timing circuit configured to provide information about a current time; a smart watch circuit configured to provide smart watch functionality; a first battery configured to provide energy to the timing circuit ; a second battery configured to provide energy to the smart watch circuit ; and a communication circuit configured to provide communication between the timing circuit and the smart watch circuit ; and wherein the communication circuit comprises a safety circuit configured to prevent leakage of current from the first battery to the second battery ; wherein the safety circuit comprises a plurality of first connections connected to the timing circuit , and comprises a plurality of second connections connected to the smart watch circuit ; wherein the first connections are configured to float; wherein the second connections are configured to pull low for output connections among the second connections; and wherein the second connections are configured to use a pullup resistor for input connections among the second connections. a timing circuit configured to provide information about a current time; a smart watch circuit configured to provide smart watch functionality; a first battery configured to provide energy to the timing circuit ; a second battery configured to provide energy to the smart watch circuit ; and a communication circuit configured to provide communication between the timing circuit and the smart watch circuit ; and wherein the communication circuit comprises a safety circuit configured to prevent leakage of current from the first battery to the second battery ; wherein the safety circuit comprises a plurality of first connections connected to the timing circuit , and comprises a plurality of second connections connected to the smart watch circuit ; wherein the first connections are configured to float; wherein the second connections are configured to pull low for output connections among the second connections; and wherein the second connections are configured to use a pullup resistor for input connections among the second connections.
Computer-implemented method for generating a digital representation of a body model, based on shape ( β ) and pose ( θ ) parameters of the body model, comprising the steps: - obtaining a template shape (T), the template shape comprising vertices; - applying, additively, a shape-dependent blend shape (B S ) to the vertices of the template shape (T), based on the shape ( β ) parameters of the body model, wherein the shape-dependent blend shape (B S ) sculpts a subject identity; - applying, additively, a pose-dependent blend shape (B p ) to the vertices of the template shape (T), based on the pose ( θ ) parameters of the body model, wherein the pose-dependent blend shape (B p ) accounts for effects of pose-dependent deformations and wherein the pose-dependent blend shape (B p ) was learned from a database of body scans; and - applying a blend skinning procedure (W) to the resulting template shape (T). - obtaining a template shape (T), the template shape comprising vertices; - applying, additively, a shape-dependent blend shape (B S ) to the vertices of the template shape (T), based on the shape ( β ) parameters of the body model, wherein the shape-dependent blend shape (B S ) sculpts a subject identity; - applying, additively, a pose-dependent blend shape (B p ) to the vertices of the template shape (T), based on the pose ( θ ) parameters of the body model, wherein the pose-dependent blend shape (B p ) accounts for effects of pose-dependent deformations and wherein the pose-dependent blend shape (B p ) was learned from a database of body scans; and - applying a blend skinning procedure (W) to the resulting template shape (T).
A method for providing access to computing resources, comprising: receiving, by a resource system, an access request from a first user, wherein the access request comprises resource data describing a computing resource, and function data describing a requested function to be performed on the computing resource, wherein the resource system comprises at least one processor and memory in communication with the at least one processor; determining, by the resource system, that credential data provided by the first user is valid; identifying, by the resource system, secondary data for the access request; generating, by the resource system, an access object based at least in part on access object fragment data and the secondary data, the access object comprising executable code; and executing the access object, by the resource system, to enable performance of the requested function on the computing resource, wherein executing the access object comprises executing at least a portion of the executable code. receiving, by a resource system, an access request from a first user, wherein the access request comprises resource data describing a computing resource, and function data describing a requested function to be performed on the computing resource, wherein the resource system comprises at least one processor and memory in communication with the at least one processor; determining, by the resource system, that credential data provided by the first user is valid; identifying, by the resource system, secondary data for the access request; generating, by the resource system, an access object based at least in part on access object fragment data and the secondary data, the access object comprising executable code; and executing the access object, by the resource system, to enable performance of the requested function on the computing resource, wherein executing the access object comprises executing at least a portion of the executable code.
Cooler for use in a compressor device, whereby it has a modular composition in such a way that it is configurable as a split cooler or as a non-split cooler , wherein said cooler is a tube cooler with a tube bundle with tubes to guide a coolant through it, whereby this tube bundle is affixed in a housing with a shell that is shut off at the ends of the tube bundle by endplates through which the tubes protrude, whereby this housing forms a channel to guide a gas to be cooled over and around the tubes , whereby the tube bundle is covered at its ends by a cover with partitions that divide the cover into compartments that cover over one or more ends of the tubes for channelling coolant through these tubes , whereby these partitions are provided with a seal between the partition and an aforementioned endplate to separate the channelling of the flow in the mutual compartments, characterised in that at least two partitions can be provided with such a seal that is removable and which in its presence splits the tube bundle into two channels for a coolant to form a split cooler , and in its absence forms an interconnection between these two channels to form one continuous channel to form a single non-split cooler .
A medical device comprising: a gantry ; a guide rail which can be selectively installed on the floor configured to guide a movement of the gantry when the gantry is moved; a belt disposed in the gantry , and configured to be pulled out of the gantry to guide the movement of the gantry together with the guide rail ; a moving member disposed in the gantry to allow the gantry to move, and configured to be movable along the guide rail ; and characterized by a belt holder coupled to one end of the belt and configured to facilitate withdrawal of the belt , the belt holder detachably mounted to the gantry ; wherein the belt holder comprises a guide rail mounting portion to which the guide rail is detachably coupled. a gantry ; a guide rail which can be selectively installed on the floor configured to guide a movement of the gantry when the gantry is moved; a belt disposed in the gantry , and configured to be pulled out of the gantry to guide the movement of the gantry together with the guide rail ; a moving member disposed in the gantry to allow the gantry to move, and configured to be movable along the guide rail ; and characterized by a belt holder coupled to one end of the belt and configured to facilitate withdrawal of the belt , the belt holder detachably mounted to the gantry ; wherein the belt holder comprises a guide rail mounting portion to which the guide rail is detachably coupled.
A gas turbine combustion chamber comprising: a liner forming a combustion room; a transition piece connected to a downstream side of the liner ; and a flow sleeve including a plurality of segments, housing the transition piece , and being configured to be integrated by welding a tie piece along joint portions of the segments, wherein the tie piece includes a first member having a width W1 and a second member , the first member continuously extending along a longitudinal direction of the joint portions of the segments and being arranged to cover the joint portions, and the second member being formed at an end portion of the first member , having a width W2 wider than the width W1 of the first member , and including a recess with an opening width W3, characterized by : a relationship between W1, W2 and W3 being W1 < W3 < W2. a liner forming a combustion room; a transition piece connected to a downstream side of the liner ; and a flow sleeve including a plurality of segments, housing the transition piece , and being configured to be integrated by welding a tie piece along joint portions of the segments, wherein the tie piece includes a first member having a width W1 and a second member , the first member continuously extending along a longitudinal direction of the joint portions of the segments and being arranged to cover the joint portions, and the second member being formed at an end portion of the first member , having a width W2 wider than the width W1 of the first member , and including a recess with an opening width W3, characterized by : a relationship between W1, W2 and W3 being W1 < W3 < W2.
A method of manufacturing a glass sheet from a glass composition processed in a fusion down draw machine using pulling rollers, the method comprising: determining (i) a liquidus viscosity of the glass composition, and (ii) a root viscosity of the glass composition at a root viscosity temperature for the glass composition at a root formed during a fusion down draw process; selecting one or more target downstream viscosities downstream from the root for the glass composition, said target downstream viscosities being higher in magnitude than said root viscosity, and lower in magnitude than said liquidus viscosity; determining a temperature gradient to achieve the one or more target downstream viscosities in the glass composition, as compared to the root viscosity temperature for the glass composition; comparing said temperature gradient to achieve any one of the one or more target downstream viscosities to a reference temperature gradient to achieve the target downstream viscosity in a second, reference glass composition at the root viscosity temperature in the fusion down draw machine, the second, reference glass composition known to avoid baggy warp defect; and if any of said temperature gradients for any of said target viscosities is lower in magniude than said reference temperature gradient to achieve the target viscosity in the second, reference glass composition, flowing the glass composition in a molten state over converging forming surfaces to form a glass ribbon, and rotating the pulling rollers to draw the glass ribbon to manufacture the glass sheet. determining (i) a liquidus viscosity of the glass composition, and (ii) a root viscosity of the glass composition at a root viscosity temperature for the glass composition at a root formed during a fusion down draw process; selecting one or more target downstream viscosities downstream from the root for the glass composition, said target downstream viscosities being higher in magnitude than said root viscosity, and lower in magnitude than said liquidus viscosity; determining a temperature gradient to achieve the one or more target downstream viscosities in the glass composition, as compared to the root viscosity temperature for the glass composition; comparing said temperature gradient to achieve any one of the one or more target downstream viscosities to a reference temperature gradient to achieve the target downstream viscosity in a second, reference glass composition at the root viscosity temperature in the fusion down draw machine, the second, reference glass composition known to avoid baggy warp defect; and if any of said temperature gradients for any of said target viscosities is lower in magniude than said reference temperature gradient to achieve the target viscosity in the second, reference glass composition, flowing the glass composition in a molten state over converging forming surfaces to form a glass ribbon, and rotating the pulling rollers to draw the glass ribbon to manufacture the glass sheet.
A pressure wave device for treating a human or animal body, comprising a pneumatic drive for generating a pressure wave for coupling into the human or animal body, comprising at least one compressor for generating source gas, and a handpiece into which the source gas can be introduced and by means of which a pressure wave is generated, and a pressure regulation device for setting a pressure wave generation pressure (PD) for generating the pressure wave , wherein said at least one compressor is stepwise adjustable to at least two performance levels (L i ) for generating source gas, and the pressure regulation device regulates the pressure wave generation pressure (P D_i ) by adjusting the source gas pressure (P s_i ) at each performance level L i , characterized in that the pressure regulation device comprises at least one pressure sensor for determining a pressure wave generation pressure P D_i . at least one compressor for generating source gas, and a handpiece into which the source gas can be introduced and by means of which a pressure wave is generated, and a pressure regulation device for setting a pressure wave generation pressure (PD) for generating the pressure wave , wherein said at least one compressor is stepwise adjustable to at least two performance levels (L i ) for generating source gas, and the pressure regulation device regulates the pressure wave generation pressure (P D_i ) by adjusting the source gas pressure (P s_i ) at each performance level L i , characterized in that the pressure regulation device comprises at least one pressure sensor for determining a pressure wave generation pressure P D_i .