mhurhangee/patent-ind-claim-en huggingface dataset:
An endoscopy system ; capable of measuring and regulating the temperature of its distal tip (208; 230; 300; 650) comprising: a viewing element (236; 256; 276) located in the endoscope tip (208; 230; 300; 650), wherein said viewing element (236; 256; 276) comprises an image sensor (302; 312) and a lens assembly (304; 314) and is associated with one or more light emitting diode (LED) illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); characterised in that the endoscopy system further comprises a circuit board (306; 316) comprising a circuit for measuring a forward voltage across each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); and a controller programmed to compute a temperature of each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601) by using said measured forward voltage and a function representing a relationship between the forward voltage and LED junction temperature for a given current; and take one or more corrective actions if the junction temperature is outside of a range of temperature values a viewing element (236; 256; 276) located in the endoscope tip (208; 230; 300; 650), wherein said viewing element (236; 256; 276) comprises an image sensor (302; 312) and a lens assembly (304; 314) and is associated with one or more light emitting diode (LED) illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); characterised in that the endoscopy system further comprises a circuit board (306; 316) comprising a circuit for measuring a forward voltage across each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); and a controller programmed to compute a temperature of each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601) by using said measured forward voltage and a function representing a relationship between the forward voltage and LED junction temperature for a given current; and take one or more corrective actions if the junction temperature is outside of a range of temperature values compute a temperature of each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601) by using said measured forward voltage and a function representing a relationship between the forward voltage and LED junction temperature for a given current; and take one or more corrective actions if the junction temperature is outside of a range of temperature values
Method for carrying out post-processing on a first set Z of samples Z(Δω) of an experimental signal resulting from a WASAB1 acquisition sequence by a medical magnetic resonance imaging device , linked with an elementary volume of an organ, the respective values of the samples Z(Δω) of said first set Z describing the magnitude of a theoretical experimental signal according to frequency offsets Δω with respect to the resonant frequency of water, said method being implemented by a processing unit of an imaging analysis system, characterized in that it includes: - a step of detecting the samples Z(Δω) of the first set Z for which the polarities of the values of the theoretical experimental signal are considered to be certain and of constructing a second set Y of samples Y(Δω) such that: a. Y(Δω)=Z(Δω) if the polarity of the theoretical experimental signal is considered to be certain and positive; b. Y(Δω)=-Z(Δω) if the polarity of said theoretical experimental signal is considered to be certain and negative; - a step of adjusting a determined model to the second set Y, the two parameters of said determined model describing respectively the static B0 and excitation B1 magnetic fields of the medical magnetic resonance imaging device , and of producing a first estimation of said parameters B0 and B1 of said model. - a step of detecting the samples Z(Δω) of the first set Z for which the polarities of the values of the theoretical experimental signal are considered to be certain and of constructing a second set Y of samples Y(Δω) such that: a. Y(Δω)=Z(Δω) if the polarity of the theoretical experimental signal is considered to be certain and positive; b. Y(Δω)=-Z(Δω) if the polarity of said theoretical experimental signal is considered to be certain and negative; a. Y(Δω)=Z(Δω) if the polarity of the theoretical experimental signal is considered to be certain and positive; b. Y(Δω)=-Z(Δω) if the polarity of said theoretical experimental signal is considered to be certain and negative; - a step of adjusting a determined model to the second set Y, the two parameters of said determined model describing respectively the static B0 and excitation B1 magnetic fields of the medical magnetic resonance imaging device , and of producing a first estimation of said parameters B0 and B1 of said model.
Method of washing an inking unit in a printing press wherein a washing agent is introduced into the inking unit and a roller of the inking unit is driven exclusively by roller friction, characterized in that the rotary speed of the roller is monitored by a sensor of a control and in that the control reduces or stops the introduction of the washing agent when the control realizes that the rotary speed drops below a rotary speed threshold.
A naval ship comprising: a deck , a radiating element formed by a structural element arranged on the deck , an exciting element in electrical connection with the radiating element and the deck of the ship , wherein when fed with current the exciting element is configured to excite the radiating element to transmit and/or receive radio-frequency waves from the ship, wherein the exciting element is formed by : a first linear element connected to the radiating element and the deck, a second linear element connected to the first linear element and to the deck, and a third linear element connected to the first linear element and to the radiating element. a deck , a radiating element formed by a structural element arranged on the deck , an exciting element in electrical connection with the radiating element and the deck of the ship , wherein when fed with current the exciting element is configured to excite the radiating element to transmit and/or receive radio-frequency waves from the ship, wherein the exciting element is formed by : a first linear element connected to the radiating element and the deck, a second linear element connected to the first linear element and to the deck, and a third linear element connected to the first linear element and to the radiating element. a first linear element connected to the radiating element and the deck, a second linear element connected to the first linear element and to the deck, and a third linear element connected to the first linear element and to the radiating element.
A method performed at a network controller, the method comprising: discovering a topology and link capacities for a network, the network controller in communication with a plurality of spine nodes and leaf nodes, said link capacities comprising capacities for links between the spine nodes and the leaf nodes; identifying a flow received from a source at one of the leaf nodes; upon identifying the flow, selecting one of the spine nodes to receive the flow from the leaf node based, at least in part, on said link capacities, the method being characterised in transmitting the flow from the leaf node receiving the flow from the source to the selected one of the spine nodes before requests are received for the flow from receivers and dropping the flow at the spine node when no receivers are requesting the flow; selecting an uplink for transmitting the flow from the leaf node to the spine node; programming the leaf node receiving the flow from the source to transmit the flow to the selected spine node and programming the selected spine node to transmit the flow to one of the leaf nodes in communication with a receiver requesting the flow. discovering a topology and link capacities for a network, the network controller in communication with a plurality of spine nodes and leaf nodes, said link capacities comprising capacities for links between the spine nodes and the leaf nodes; identifying a flow received from a source at one of the leaf nodes; upon identifying the flow, selecting one of the spine nodes to receive the flow from the leaf node based, at least in part, on said link capacities, the method being characterised in transmitting the flow from the leaf node receiving the flow from the source to the selected one of the spine nodes before requests are received for the flow from receivers and dropping the flow at the spine node when no receivers are requesting the flow; selecting an uplink for transmitting the flow from the leaf node to the spine node; programming the leaf node receiving the flow from the source to transmit the flow to the selected spine node and programming the selected spine node to transmit the flow to one of the leaf nodes in communication with a receiver requesting the flow.
Cornea, ex vivo, for use in transplantation to a recipient that is immunologically non-compatible to an initial live isolated cornea, characterized in that the initial live cornea is ex vivo genetically manipulated to contain an expression cassette expressing at least one inhibitory RNA specific for the alpha-chain and/or for the beta-chain of the MHC II gene for all of HLA-DR, DQ and DP molecules.
A medical system for predicting a disease pathology in a subject having an uncertain cognitive status, the system comprising: a computer system arranged to receive first medical data for the subject and configured at least in part as a trained learning machine trained on second medical data, the computer system being adapted to use the trained learning machine to provide a prediction of the disease pathology, wherein the second medical data used to train the trained learning machine comprises an amyloid positron emission tomography, PET, scan for each of a plurality of subjects, wherein a subset of the plurality of subjects are amyloid beta, Aβ, positive; and a display for displaying an indication of the prediction, wherein the first medical data does not comprise data obtained from a molecular imaging procedure on the subject; wherein the disease pathology is Aβ positivity in the subject's brain. a computer system arranged to receive first medical data for the subject and configured at least in part as a trained learning machine trained on second medical data, the computer system being adapted to use the trained learning machine to provide a prediction of the disease pathology, wherein the second medical data used to train the trained learning machine comprises an amyloid positron emission tomography, PET, scan for each of a plurality of subjects, wherein a subset of the plurality of subjects are amyloid beta, Aβ, positive; and a display for displaying an indication of the prediction, wherein the first medical data does not comprise data obtained from a molecular imaging procedure on the subject; wherein the disease pathology is Aβ positivity in the subject's brain.
Device for producing concrete elements by means of a filling mould , comprising: a reservoir , which contains a liquid or pasty basic building material , a pump unit , which is connected to the reservoir via at least one first tubular connection (3 1 ), at least one dosator (5 1 , 5 2 , ..., 5 N ), which is connected to the pump unit via a second tubular connection (3 2 ), wherein the pump unit supplies the liquid or pasty basic building material to the at least one dosator (5 1 , 5 2 , ..., 5 N ) via the second tubular connection (3 2 ), and a mechanical device which at least positions and holds an opening of the at least one dosator (5 1 , 5 2 , ..., 5 N ) opposite the filling mould , characterised by at least one piston pump (11 1 , 11 2 , ... , 11 N ), which defines the pump unit ; a control device , which is communicatively connected at least with the at least one piston pump (11 1 , 11 2 , ... , 11 N ) and an operating device ; and an actuatable slide mechanism , which is assigned to the first tubular connection (3 1 ) and the second tubular connection (3 2 ) in such a way that, under the control of the control device , either a connection from the reservoir to the first tubular connection (3 1 ) or a connection from the pump unit via the second tubular connection (3 2 ) to at least one dosator (5 1 , 5 2 , ..., 5 N ) can be opened or closed. a reservoir , which contains a liquid or pasty basic building material , a pump unit , which is connected to the reservoir via at least one first tubular connection (3 1 ), at least one dosator (5 1 , 5 2 , ..., 5 N ), which is connected to the pump unit via a second tubular connection (3 2 ), wherein the pump unit supplies the liquid or pasty basic building material to the at least one dosator (5 1 , 5 2 , ..., 5 N ) via the second tubular connection (3 2 ), and a mechanical device which at least positions and holds an opening of the at least one dosator (5 1 , 5 2 , ..., 5 N ) opposite the filling mould , characterised by at least one piston pump (11 1 , 11 2 , ... , 11 N ), which defines the pump unit ; a control device , which is communicatively connected at least with the at least one piston pump (11 1 , 11 2 , ... , 11 N ) and an operating device ; and an actuatable slide mechanism , which is assigned to the first tubular connection (3 1 ) and the second tubular connection (3 2 ) in such a way that, under the control of the control device , either a connection from the reservoir to the first tubular connection (3 1 ) or a connection from the pump unit via the second tubular connection (3 2 ) to at least one dosator (5 1 , 5 2 , ..., 5 N ) can be opened or closed.
Device for switching in a DC voltage grid comprising - two hybrid switches connected in series in opposite directions, said hybrid switches each having a parallel circuit comprising an uncontrolled current-direction-dependent switch and a controllable switch , wherein the internal junction point between the hybrid switches forms a third connection and the two hybrid switches connected in series in opposite directions can be inserted by a first and a second connection into a first line of the DC voltage grid; characterized by - two polarized damping elements , which are designed to absorb energy in only one polarity of the terminal voltage present, wherein the first polarized damping element is connected to the first connection of the series-connected hybrid switches and can be connected to a second line of the DC voltage grid and/or a ground potential and the second polarized damping element is connected to the second connection of the series-connected hybrid switches and can be connected to the second line of the DC voltage grid and/or the ground potential; and - a current pulse generator , which - in response to a control command - is designed to generate a unipolar current pulse passing via the third connection and the polarized damping elements , such that the current direction in one of the hybrid switches can be momentarily reversed. - two hybrid switches connected in series in opposite directions, said hybrid switches each having a parallel circuit comprising an uncontrolled current-direction-dependent switch and a controllable switch , wherein the internal junction point between the hybrid switches forms a third connection and the two hybrid switches connected in series in opposite directions can be inserted by a first and a second connection into a first line of the DC voltage grid; characterized by - two polarized damping elements , which are designed to absorb energy in only one polarity of the terminal voltage present, wherein the first polarized damping element is connected to the first connection of the series-connected hybrid switches and can be connected to a second line of the DC voltage grid and/or a ground potential and the second polarized damping element is connected to the second connection of the series-connected hybrid switches and can be connected to the second line of the DC voltage grid and/or the ground potential; and - a current pulse generator , which - in response to a control command - is designed to generate a unipolar current pulse passing via the third connection and the polarized damping elements , such that the current direction in one of the hybrid switches can be momentarily reversed.
A method for manufacturing a package consisting of two cardboard bottoms and a window that extends on the lateral faces between said cardboard bottoms, wherein: - cardboard cutouts are prepared by cutting, from a sheet, two parts that correspond respectively to the shape of the first and second cardboard bottom joined by separable connecting zones , - the cutout is carried along on a conveyor belt with the aid of a pair of motorized rollers that are supported on the upper surface of the cutout, - one of the rollers that is in contact with one of the parts is decelerated in a controlled manner relative to the roller that is in contact with the other part in order to cause said separable zones to tear, and - the window is put in place in order to glue the edges onto the corresponding edges of the parts that have been repositioned in this manner. - cardboard cutouts are prepared by cutting, from a sheet, two parts that correspond respectively to the shape of the first and second cardboard bottom joined by separable connecting zones , - the cutout is carried along on a conveyor belt with the aid of a pair of motorized rollers that are supported on the upper surface of the cutout, - one of the rollers that is in contact with one of the parts is decelerated in a controlled manner relative to the roller that is in contact with the other part in order to cause said separable zones to tear, and - the window is put in place in order to glue the edges onto the corresponding edges of the parts that have been repositioned in this manner.
A procatalyst for polymerization of olefins, which procatalyst is based on a magnesium compound of the formula MgR'R", wherein R' is an alkoxide or aryloxide group and wherein R" is an alkoxide or aryloxide group or halogen, preferably a magnesium dialkoxide compound, that has been reacted with a tetravalent titanium halide, an activator being a monoester and an internal donor represented by a compound according to formula A: wherein each R 8 group is independently a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 30 carbon atoms; R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are each independently selected from hydrogen or a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; R 7 is a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; N is nitrogen atom; O is oxygen atom; and C is carbon atom.
A method in a base station of a wireless communication network, the method comprising: scheduling a transmission to or from a mobile terminal by transmitting a scheduling grant to the mobile terminal over a downlink control channel; detecting an erasure event corresponding to the transmitted scheduling grant, wherein detecting the erasure event comprises: when the scheduled transmission is a downlink transmission to the mobile terminal, determining that an expected acknowledgment information signal corresponding to the scheduled transmission was not received from the mobile terminal; and when the scheduled transmission is an uplink transmission from the mobile terminal, determining that an expected demodulation reference signal corresponding to the scheduled transmission was not received from the mobile terminal. determining whether or not the scheduling grant was lost, based on the detected erasure event; and controlling at least one of link adaption of the downlink control channel, and HARQ redundancy for the scheduled transmission, responsive to determining that the scheduling grant was lost. scheduling a transmission to or from a mobile terminal by transmitting a scheduling grant to the mobile terminal over a downlink control channel; detecting an erasure event corresponding to the transmitted scheduling grant, wherein detecting the erasure event comprises: when the scheduled transmission is a downlink transmission to the mobile terminal, determining that an expected acknowledgment information signal corresponding to the scheduled transmission was not received from the mobile terminal; and when the scheduled transmission is an uplink transmission from the mobile terminal, determining that an expected demodulation reference signal corresponding to the scheduled transmission was not received from the mobile terminal. when the scheduled transmission is a downlink transmission to the mobile terminal, determining that an expected acknowledgment information signal corresponding to the scheduled transmission was not received from the mobile terminal; and when the scheduled transmission is an uplink transmission from the mobile terminal, determining that an expected demodulation reference signal corresponding to the scheduled transmission was not received from the mobile terminal. determining whether or not the scheduling grant was lost, based on the detected erasure event; and controlling at least one of link adaption of the downlink control channel, and HARQ redundancy for the scheduled transmission, responsive to determining that the scheduling grant was lost.
An epoxy resin composition comprising: an [A] epoxy resin at least comprising an [A1] isocyanurate epoxy resin and an [A2] glycidyl amine epoxy resin; [B] dicyandiamide; and [C] diaminodiphenyl sulfone, wherein an average epoxy equivalent of the [A] epoxy resin is 115 g/eq to 150 g/eq, and an amount of the component [C] added is an amount of 0.05 equivalent to 0.3 equivalent relative to epoxy groups in the [A] epoxy resin in terms of active hydrogen groups. [B] dicyandiamide; and [C] diaminodiphenyl sulfone, wherein an average epoxy equivalent of the [A] epoxy resin is 115 g/eq to 150 g/eq, and an amount of the component [C] added is an amount of 0.05 equivalent to 0.3 equivalent relative to epoxy groups in the [A] epoxy resin in terms of active hydrogen groups. an average epoxy equivalent of the [A] epoxy resin is 115 g/eq to 150 g/eq, and an amount of the component [C] added is an amount of 0.05 equivalent to 0.3 equivalent relative to epoxy groups in the [A] epoxy resin in terms of active hydrogen groups.
A method for detecting a replacement of a differential pressure sensor arranged for measuring a differential pressure across a filter of an aftertreatment system of a vehicle , the method comprising: determining (S102) a sensor offset value being an offset from a sensor value measured with a differential pressure sensor ; adding (S104) an adaption value to the measured sensor value adapted to compensate for the offset value to centre the sensor value around a predetermined level; if a sum of a subsequently measured sensor value and the adaption value exceeds a limit value, concluding (S106) that the differential pressure sensor has been replaced. determining (S102) a sensor offset value being an offset from a sensor value measured with a differential pressure sensor ; adding (S104) an adaption value to the measured sensor value adapted to compensate for the offset value to centre the sensor value around a predetermined level; if a sum of a subsequently measured sensor value and the adaption value exceeds a limit value, concluding (S106) that the differential pressure sensor has been replaced.