mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument, comprising: a housing; an elongated shaft extending distally from the housing and defining a first longitudinal axis; a firing rod disposed within the elongated shaft; a drive mechanism disposed at least partially within the housing, the drive mechanism in mechanical cooperation with the firing rod; a sensor comprising a light emitter and detector unit; and a measurement unit that determines a parameter of the motion of the firing rod; characterized in that the sensor generates and emits visible light on the surface of the firing rod and senses a parameter of light reflected from the surface of the firing rod, the surface of the firing rod includes a plurality of markings that vary the reflective properties of the surface of the firing rod, the measurement unit determines the parameter of the motion of the firing rod based on the sensed parameter of the light reflected from the surface of the firing rod. a housing; an elongated shaft extending distally from the housing and defining a first longitudinal axis; a firing rod disposed within the elongated shaft; a drive mechanism disposed at least partially within the housing, the drive mechanism in mechanical cooperation with the firing rod; a sensor comprising a light emitter and detector unit; and a measurement unit that determines a parameter of the motion of the firing rod; characterized in that the sensor generates and emits visible light on the surface of the firing rod and senses a parameter of light reflected from the surface of the firing rod, the surface of the firing rod includes a plurality of markings that vary the reflective properties of the surface of the firing rod, the measurement unit determines the parameter of the motion of the firing rod based on the sensed parameter of the light reflected from the surface of the firing rod.
A cooling arrangement for air conditioning an IT environment and in particular for data center air conditioning, with a cooling device housing, which is set up in an IT environment and in particular in a data center, and in which a first heat exchanger package and at least one first fan are accommodated, wherein the first fan is set up to suck air from the building or the data center via a first of two opposite housing sides (6, 7), through the housing and the first heat exchanger package and out of the housing via a second housing side opposite the first housing side, and wherein a second heat exchanger package is arranged outside the building or data center and has air flowing through it from at least one second fan, wherein a first and a second refrigerant circuit (9, 10) are fluidically separated from one another and guided between the first heat exchanger package and the second heat exchanger package, the first refrigerant circuit being a free-cooling circuit and the second refrigerant circuit being a compressor circuit, wherein the second heat exchanger package comprises a third air-refrigerant heat exchanger, which is a condenser of the compressor circuit, and a fourth air-refrigerant heat exchanger, through which the liquid refrigerant of the free cooling circuit is passed, characterized in that the third and the fourth heat exchanger (13, 14) of the second heat exchanger package are accommodated vertically stacked one above the other in a recooling housing, the condenser of the compressor circuit being arranged above the fourth air-refrigerant heat exchanger of the free-cooling circuit, and the condenser and the fourth air-refrigerant heat exchanger of the free-cooling circuit having the air flowing through them successively in the vertical direction.
An apparatus for use during a medical procedure, comprising: a processor which is configured to: determine, from tracking of a catheter within a heart of a patient, locations of a plurality of points on a three-dimensional heart chamber, determine, based on the output of at least one sensor located at a distal end of the catheter, a characteristic of the 3D heart chamber at the locations, generate, from the plurality of points, a 3D mesh of line segments and junctions having a connectivity, generate a 3D map from the 3D mesh, the 3D map illustrating the characteristic of the 3D heart chamber, wherein the 3D mesh includes an opening bounded by a perimeter, the opening in the 3D mesh corresponding to an opening in the 3D heart chamber, map each point on the perimeter of the opening in the 3D mesh to a corresponding point on the boundary of a closed two-dimensional figure having an interior, the closed 2D boundary being larger than the opening in the 3D mesh; project the plurality of points illustrating the characteristic onto the interior of the 2D figure so as to generate a 2D map of the characteristic of the 3D heart chamber, wherein projecting the plurality of points comprises projecting the 3D mesh to a 2D mesh while maintaining the connectivity of the 3D mesh in the 2D mesh, and generating the 2D map from the 2D mesh; and incorporate an indication of respective tissue thicknesses of elements of the heart chamber into the 2D map; and a screen, upon which the processor is configured to display the 2D map and the indication of respective tissue thicknesses. determine, from tracking of a catheter within a heart of a patient, locations of a plurality of points on a three-dimensional heart chamber, determine, based on the output of at least one sensor located at a distal end of the catheter, a characteristic of the 3D heart chamber at the locations, generate, from the plurality of points, a 3D mesh of line segments and junctions having a connectivity, generate a 3D map from the 3D mesh, the 3D map illustrating the characteristic of the 3D heart chamber, wherein the 3D mesh includes an opening bounded by a perimeter, the opening in the 3D mesh corresponding to an opening in the 3D heart chamber, map each point on the perimeter of the opening in the 3D mesh to a corresponding point on the boundary of a closed two-dimensional figure having an interior, the closed 2D boundary being larger than the opening in the 3D mesh; project the plurality of points illustrating the characteristic onto the interior of the 2D figure so as to generate a 2D map of the characteristic of the 3D heart chamber, wherein projecting the plurality of points comprises projecting the 3D mesh to a 2D mesh while maintaining the connectivity of the 3D mesh in the 2D mesh, and generating the 2D map from the 2D mesh; and incorporate an indication of respective tissue thicknesses of elements of the heart chamber into the 2D map; and a screen, upon which the processor is configured to display the 2D map and the indication of respective tissue thicknesses.
A method for determining market statistics for a first and second service provider (WSP-A; WSP-B), comprising: testing (1010, 1020) a plurality of telephone numbers with a computer configured to send a Query with Permission message to a home location register; and automatically interpreting responses to said testing from the network (SS7 Network) to determine whether at least one of the plurality of telephone numbers is assigned. testing (1010, 1020) a plurality of telephone numbers with a computer configured to send a Query with Permission message to a home location register; and automatically interpreting responses to said testing from the network (SS7 Network) to determine whether at least one of the plurality of telephone numbers is assigned.
Method for the injection molding of internally hollow parts by means of an apparatus comprising a mold consisting of a matrix and a cooperating punch, both of which delimiting an inner space communicating, on one side, with a nozzle for the injection of melt of thermoplastic material and with a pressurized gas supplying pipe, controlled by a first valve for supplying nitrogen, and on the other side with a connecting duct that places said inner space in communication with a secondary compartment, a second valve acting on the connecting duct for the closure and opening thereof and a perforating element that perforates a part in the connecting duct, the method comprising the steps of: a) injecting melt of thermoplastic material in said inner space between the punch and matrix, b) opening the second valve in order to place said inner space in communication with the secondary compartment, c) stopping the injection of the melt and opening the first valve for supplying nitrogen in said inner space in order to create a cavity, until the passage of the nitrogen in the secondary compartment, d) stopping the supply of nitrogen and perforating the part being molded in the section of the connecting duct by means of the perforating element for the outflow of nitrogen from the mold, e) supplying pressurized air into said gas pipe for washing towards the atmosphere after stopping the supply of nitrogen and the perforation of the part being molded in the section of the connecting duct, characterised in that f) in step (d) the nitrogen flowing out of the mold is collected, and in that in the same step (d), perforating the part being molded by means of the perforating element occurs simultaneously to stopping the supply of nitrogen. a) injecting melt of thermoplastic material in said inner space between the punch and matrix, b) opening the second valve in order to place said inner space in communication with the secondary compartment, c) stopping the injection of the melt and opening the first valve for supplying nitrogen in said inner space in order to create a cavity, until the passage of the nitrogen in the secondary compartment, d) stopping the supply of nitrogen and perforating the part being molded in the section of the connecting duct by means of the perforating element for the outflow of nitrogen from the mold, e) supplying pressurized air into said gas pipe for washing towards the atmosphere after stopping the supply of nitrogen and the perforation of the part being molded in the section of the connecting duct, characterised in that f) in step (d) the nitrogen flowing out of the mold is collected, and in that in the same step (d), perforating the part being molded by means of the perforating element occurs simultaneously to stopping the supply of nitrogen.
A cement-based photocatalytic composition, which comprises: (a) from 15 to 60% by weight of at least one cement binder; (b) from 0.5 to 12% by weight of at least one photocatalyst; (c) from 0.02 to 3% by weight of at least one cellulose ether; (d) from 0.05 to 5% by weight of at least one fluidizing agent; (e) from 10 to 50% by weight of at least one first calcareous filler in the form of particles of which at least 95% by weight has a dimension not greater than 100 μm; (f) from 10 to 50% by weight of at least one second calcareous filler in the form of particles of which at least 95% by weight has a dimension not greater than 30 μm; (g) from 0.05 to 5% by weight of at least one silane supported on an inorganic support in the form of powder. (a) from 15 to 60% by weight of at least one cement binder; (b) from 0.5 to 12% by weight of at least one photocatalyst; (c) from 0.02 to 3% by weight of at least one cellulose ether; (d) from 0.05 to 5% by weight of at least one fluidizing agent; (e) from 10 to 50% by weight of at least one first calcareous filler in the form of particles of which at least 95% by weight has a dimension not greater than 100 μm; (f) from 10 to 50% by weight of at least one second calcareous filler in the form of particles of which at least 95% by weight has a dimension not greater than 30 μm; (g) from 0.05 to 5% by weight of at least one silane supported on an inorganic support in the form of powder.
A screen control method, wherein an electronic device comprises a first screen and a second screen, the first screen is a foldable screen, the second screen is an external screen, the electronic device can fold or unfold the electronic device by using the first screen, and the method comprises: detecting, by the electronic device, an operation on a function button, wherein the function button is a mechanical button arranged on a lateral side of the electronic device; determining, by the electronic device, a physical form of the electronic device in response to the detection of the operation; and controlling, by the electronic device, the first screen or the second screen based on the operation and the physical form of the electronic device; wherein the controlling, by the electronic device, the first screen or the second screen based on the operation and the physical form of the electronic device comprises: if the physical form of the electronic device is a first physical form, controlling the second screen of the electronic device based on the operation, wherein the first physical form is folded; if the physical form of the electronic device is a second physical form, controlling the first screen of the electronic device based on the operation, wherein the second physical form is unfolded. detecting, by the electronic device, an operation on a function button, wherein the function button is a mechanical button arranged on a lateral side of the electronic device; determining, by the electronic device, a physical form of the electronic device in response to the detection of the operation; and controlling, by the electronic device, the first screen or the second screen based on the operation and the physical form of the electronic device; wherein the controlling, by the electronic device, the first screen or the second screen based on the operation and the physical form of the electronic device comprises: if the physical form of the electronic device is a first physical form, controlling the second screen of the electronic device based on the operation, wherein the first physical form is folded; if the physical form of the electronic device is a second physical form, controlling the first screen of the electronic device based on the operation, wherein the second physical form is unfolded. if the physical form of the electronic device is a first physical form, controlling the second screen of the electronic device based on the operation, wherein the first physical form is folded; if the physical form of the electronic device is a second physical form, controlling the first screen of the electronic device based on the operation, wherein the second physical form is unfolded.
A thickness measurement method for measuring a thickness of a measurement object, comprising the steps of: heating a surface of the measurement object by a heating device; generating (S12, S22, S33), during the heating, thermal image data corresponding to a temperature of the surface of the measurement object by photographing the heated surface of the measurement object at a predetermined time interval by a photographing device; obtaining (S150, S260) a temperature curve (200, 210, 220, 230, 240) showing a temporal change in temperature of the surface of the measurement object based on the thermal image data generated, during the heating, by the photographing device; fitting (S151, S261) a theoretical equation derived from a heat conduction equation and including parameters which are unknown quantities to the temperature curve (200, 210, 220, 230, 240) to obtain a theoretical curve (201, 211, 221, 231, 241) showing a temporal change in temperature of the surface of the measurement object; and obtaining (S152, S262) the thickness of the measurement object from the values of the parameters included in the fitted theoretical equation, wherein the parameters are ones related to the thickness of the measurement object. heating a surface of the measurement object by a heating device; generating (S12, S22, S33), during the heating, thermal image data corresponding to a temperature of the surface of the measurement object by photographing the heated surface of the measurement object at a predetermined time interval by a photographing device; obtaining (S150, S260) a temperature curve (200, 210, 220, 230, 240) showing a temporal change in temperature of the surface of the measurement object based on the thermal image data generated, during the heating, by the photographing device; fitting (S151, S261) a theoretical equation derived from a heat conduction equation and including parameters which are unknown quantities to the temperature curve (200, 210, 220, 230, 240) to obtain a theoretical curve (201, 211, 221, 231, 241) showing a temporal change in temperature of the surface of the measurement object; and obtaining (S152, S262) the thickness of the measurement object from the values of the parameters included in the fitted theoretical equation, wherein the parameters are ones related to the thickness of the measurement object.
A method of wireless communications, comprising: monitoring, at a user equipment, UE, downlink control information, DCI, from a first carrier received by the UE, the monitoring being based on at least one first DCI format; receiving, at the UE, a reconfiguration message indicating a transition between downlink control signaling without cross-carrier signaling and downlink control signaling with cross-carrier signaling; characterized by monitoring, at the UE, following receiving the reconfiguration message, DCI from the first carrier based on the at least one first DCI format and at least one second DCI format, the monitoring including monitoring a first set of received downlink channel elements of the first carrier based on the at least one first DCI format and monitoring a second set of received downlink channel elements of the first carrier based on the at least one first DCI format and the at least one second DCI format, wherein the first set of received downlink channel elements corresponds to a common search space on the first carrier, and wherein the second set of received downlink channel elements corresponds to a UE-specific search space on the first carrier. monitoring, at a user equipment, UE, downlink control information, DCI, from a first carrier received by the UE, the monitoring being based on at least one first DCI format; receiving, at the UE, a reconfiguration message indicating a transition between downlink control signaling without cross-carrier signaling and downlink control signaling with cross-carrier signaling; characterized by monitoring, at the UE, following receiving the reconfiguration message, DCI from the first carrier based on the at least one first DCI format and at least one second DCI format, the monitoring including monitoring a first set of received downlink channel elements of the first carrier based on the at least one first DCI format and monitoring a second set of received downlink channel elements of the first carrier based on the at least one first DCI format and the at least one second DCI format, wherein the first set of received downlink channel elements corresponds to a common search space on the first carrier, and wherein the second set of received downlink channel elements corresponds to a UE-specific search space on the first carrier.
A system for transmitting a logical Digital Addressable Lighting Interface (DALI) signal wirelessly, comprising a transmitter and a receiver, characterised by the transmitter comprising a first coil inductively coupled to a second coil; and a first conversion module arranged to receive a logical DALI signal, said first conversion module comprising a first amplifier arranged to amplify the logical DALI signal so as to generate a drive current for the first coil to generate an induction signal in the second coil; the receiver comprising the second coil inductively coupled to the first coil arranged to receive the induction signal; a second conversion module coupled to the second coil arranged to convert the received induction signal into a reconstructed logical DALI signal, which second conversion module comprises a bit reconstruction module arranged to convert the induction signal into the reconstructed logical DALI signal.
A fluidic device for processing a biological sample in order to extract nucleic acids contained in said sample and for subsequently amplifying said extracted nucleic acids, said device including a processed sample storage archive the device being characterised in that said archive comprises an absorbent solid fibrous storage medium substrate treated with at least one nucleic acid stabilising reagent or reagent mix, said substrate allowing the generally dry and stabilised storage of said extracted and/or amplified nucleic acids, wherein the archive is adapted for removable mounting to the fluidic device and further comprises a plastics frame and an elastomeric seal mounted generally peripherally on the frame for sealing the frame to the fluidic device and for providing said removable mounting.
A method comprising: transmitting from a client device, a request to access a plurality of resources hosted by a distribution service; receiving, in response to the request, resources from the distribution service, characterized in that the request is transmitted from a containerized client side application being executed by a client device and the received resources are configured to be exclusively accessible via the containerized client side application, and in that the method comprises: receiving, from the distribution service, one or more distribution rules associated with the resources, wherein the one or more distribution rules identify a plurality of authorized locations associated with the requested resources; determining, by the containerized client side application whether the client device is located within one of the received plurality of authorized locations associated with the requested resources; responsive to a determination that the client device is located at an authorized location, providing access to the resources to the client device; and, responsive to a determination that the client device is not located at an authorized location removing the resources from the client device. transmitting from a client device, a request to access a plurality of resources hosted by a distribution service; receiving, in response to the request, resources from the distribution service, characterized in that the request is transmitted from a containerized client side application being executed by a client device and the received resources are configured to be exclusively accessible via the containerized client side application, and in that the method comprises: receiving, from the distribution service, one or more distribution rules associated with the resources, wherein the one or more distribution rules identify a plurality of authorized locations associated with the requested resources; determining, by the containerized client side application whether the client device is located within one of the received plurality of authorized locations associated with the requested resources; responsive to a determination that the client device is located at an authorized location, providing access to the resources to the client device; and, responsive to a determination that the client device is not located at an authorized location removing the resources from the client device. receiving, from the distribution service, one or more distribution rules associated with the resources, wherein the one or more distribution rules identify a plurality of authorized locations associated with the requested resources; determining, by the containerized client side application whether the client device is located within one of the received plurality of authorized locations associated with the requested resources; responsive to a determination that the client device is located at an authorized location, providing access to the resources to the client device; and, responsive to a determination that the client device is not located at an authorized location removing the resources from the client device.