mhurhangee/patent-ind-claim-en huggingface dataset:
A brewed beverage-making machine comprising: - a supply line having a branch point ; - a pump configured to receive water at a first temperature from an external source and supply said water at the first temperature to the supply line ; - a flow meter arranged on the supply line between the pump and the branch point ; - a mixing unit configured to receive and mix the water at the first temperature with water at a second temperature higher than the first temperature, to thereby generate a mixture; - a first fluid path connecting the branch point of the supply line to the mixing unit and configured to supply the water at the first temperature to the mixing unit ; - a second fluid path connecting the branch point of the supply line to the mixing unit and configured to supply the water at the second temperature to the mixing unit , said second fluid path being in parallel with the first flow path ; - a heating element arranged along the second flow path , said heating element being configured to receive the water at the first temperature from the branch point and supply the water at the second temperature to the mixing unit ; characterized in that it comprises a first nozzle and a second nozzle arranged respectively along the first fluid path and the second fluid path , said first nozzle and second nozzle being able to set the flow rate of fluid along the first fluid path and the second fluid path , respectively. - a supply line having a branch point ; - a pump configured to receive water at a first temperature from an external source and supply said water at the first temperature to the supply line ; - a flow meter arranged on the supply line between the pump and the branch point ; - a mixing unit configured to receive and mix the water at the first temperature with water at a second temperature higher than the first temperature, to thereby generate a mixture; - a first fluid path connecting the branch point of the supply line to the mixing unit and configured to supply the water at the first temperature to the mixing unit ; - a second fluid path connecting the branch point of the supply line to the mixing unit and configured to supply the water at the second temperature to the mixing unit , said second fluid path being in parallel with the first flow path ; - a heating element arranged along the second flow path , said heating element being configured to receive the water at the first temperature from the branch point and supply the water at the second temperature to the mixing unit ;
A process to perform an in vitro diagnosis of the antiphospholipid antibody syndrome (APS) comprising the steps of: a) having available one or more isolated biological samples that have been obtained from the subject to be diagnosed; and b) identifying, within said one or more samples according to step a), the presence of antibodies directed towards the carbamylated β2-glycoprotein I. a) having available one or more isolated biological samples that have been obtained from the subject to be diagnosed; and b) identifying, within said one or more samples according to step a), the presence of antibodies directed towards the carbamylated β2-glycoprotein I.
A communications system , comprising: a master circuit comprising a master serial peripheral interface, SPI, device having an input MISC terminal; and a plurality of slave circuits coupled for communication with the master circuit, each comprising a slave SPI device , an activation terminal for activating the slave SPI device, and an output switch for connecting a MISO terminal of the slave SPI device to the input MISO terminal when activated, wherein the master circuit further comprises: a polling signal terminal for transmitting a polling signal to the activation terminals of at least a first group of the plurality of slave circuits for activating their respective slave SPI devices; and a plurality of output chip-select, CS, terminals (CS_0, CS_1, CS_2, CS_3), each independently activatable for transmitting a CS signal to both the activation terminal and the output switch of a respective one of the plurality of slave circuits for activating the respective slave SPI device and connecting its output MISO terminal for transmitting data to the input MISO terminal. a master circuit comprising a master serial peripheral interface, SPI, device having an input MISC terminal; and a plurality of slave circuits coupled for communication with the master circuit, each comprising a slave SPI device , an activation terminal for activating the slave SPI device, and an output switch for connecting a MISO terminal of the slave SPI device to the input MISO terminal when activated, wherein the master circuit further comprises: a polling signal terminal for transmitting a polling signal to the activation terminals of at least a first group of the plurality of slave circuits for activating their respective slave SPI devices; and a plurality of output chip-select, CS, terminals (CS_0, CS_1, CS_2, CS_3), each independently activatable for transmitting a CS signal to both the activation terminal and the output switch of a respective one of the plurality of slave circuits for activating the respective slave SPI device and connecting its output MISO terminal for transmitting data to the input MISO terminal. a polling signal terminal for transmitting a polling signal to the activation terminals of at least a first group of the plurality of slave circuits for activating their respective slave SPI devices; and a plurality of output chip-select, CS, terminals (CS_0, CS_1, CS_2, CS_3), each independently activatable for transmitting a CS signal to both the activation terminal and the output switch of a respective one of the plurality of slave circuits for activating the respective slave SPI device and connecting its output MISO terminal for transmitting data to the input MISO terminal.
An electrochemical cell comprising: - a housing ; - a lid coupled to the housing ; - a first member conductively coupled to the housing and configured to act as a first terminal for the electrochemical cell , wherein the first member is configured as a protrusion; and - a second member electrically insulated from the lid and configured to act as a second terminal for the electrochemical cell , wherein a first portion of the second member extends through the lid and a second portion of the second member extends in a direction perpendicular to the first portion , wherein the second member further includes a third portion extending at a right angle to the second portion of the second member in a direction parallel to a longitudinal axis of the electrochemical cell for coupling the electrochemical cell with another electrochemical cell . - a housing ; - a lid coupled to the housing ; - a first member conductively coupled to the housing and configured to act as a first terminal for the electrochemical cell , wherein the first member is configured as a protrusion; and - a second member electrically insulated from the lid and configured to act as a second terminal for the electrochemical cell , wherein a first portion of the second member extends through the lid and a second portion of the second member extends in a direction perpendicular to the first portion , wherein the second member further includes a third portion extending at a right angle to the second portion of the second member in a direction parallel to a longitudinal axis of the electrochemical cell for coupling the electrochemical cell with another electrochemical cell .
A ram air fan (RAF) assembly , comprising: a ram air inlet ; a heat exchanger disposed in the ram air inlet ; an RAF disposed in the ram air inlet to drive airflow through the heat exchanger ; a pressure sensor disposed in the ram air inlet proximate to the RAF ; and a controller operably coupled to the RAF and the pressure sensor , the controller being configured to drive rotations of the RAF to achieve a target RAF rotational speed in accordance with a determination that a pressure reading generated by the pressure sensor is indicative of a surge event; characterised in that the controller is configured to determine that the pressure reading generated by the sensor is indicative of the surge event in an event that the pressure reading comprises numbers of extra-parameter fluctuations in a predefined time; wherein the extra-parameter fluctuations are fluctuations in which the parameter fluctuates between the minimums below a predefined lower parameter range and maximums above a predefined upper parameter range. a ram air inlet ; a heat exchanger disposed in the ram air inlet ; an RAF disposed in the ram air inlet to drive airflow through the heat exchanger ; a pressure sensor disposed in the ram air inlet proximate to the RAF ; and a controller operably coupled to the RAF and the pressure sensor , the controller being configured to drive rotations of the RAF to achieve a target RAF rotational speed in accordance with a determination that a pressure reading generated by the pressure sensor is indicative of a surge event; characterised in that the controller is configured to determine that the pressure reading generated by the sensor is indicative of the surge event in an event that the pressure reading comprises numbers of extra-parameter fluctuations in a predefined time; wherein the extra-parameter fluctuations are fluctuations in which the parameter fluctuates between the minimums below a predefined lower parameter range and maximums above a predefined upper parameter range.
A component for a gas turbine engine, comprising: a wall ; and a vascular engineered lattice structure formed inside of the wall , the vascular engineered lattice structure including a plurality of nodes , a plurality of branches that extend between the plurality of nodes , and a plurality of open passages extending between the plurality of nodes and the plurality of branches , wherein at least one of the branches is non-circular in cross-section, and the vascular engineered lattice structure is configured such that airflow is circulated through the open passages and over the plurality of branches , characterised in that : the at least one of the branches includes an airfoil shape in cross-section. a wall ; and a vascular engineered lattice structure formed inside of the wall , the vascular engineered lattice structure including a plurality of nodes , a plurality of branches that extend between the plurality of nodes , and a plurality of open passages extending between the plurality of nodes and the plurality of branches , wherein at least one of the branches is non-circular in cross-section, and the vascular engineered lattice structure is configured such that airflow is circulated through the open passages and over the plurality of branches ,
Process for the production of a polymer comprising the steps of: a) polymerisation of an emulsion or suspension comprising a reaction mixture to obtain a polymeric latex; and b) coagulating the polymeric latex by exposing the polymeric latex to one or more coagulant, and isolating the coagulated product to obtain a polymer; wherein the polymeric latex obtained under a) is stored prior to coagulation step b) for at most such a time that the polymeric latex contains ≤ 500 CFU/ml of pigment-producing organisms as determined in accordance with ASTM D 5465-93 when subjecting the polymeric latex to coagulation step b); wherein the latex is subjected to the storage for a period of ≤ 20h. a) polymerisation of an emulsion or suspension comprising a reaction mixture to obtain a polymeric latex; and b) coagulating the polymeric latex by exposing the polymeric latex to one or more coagulant, and isolating the coagulated product to obtain a polymer;
A process for the preparation of a polyolefin, polyolefin copolymer or polyolefin block copolymer or a functionalized polyolefin, functionalized polyolefin copolymer or functionalized polyolefin block copolymer, wherein an N- oxyphthalimide-based polyolefin-precursor polymer, copolymer or block copolymer is decarboxylated in a radical reaction using a redox transition metal catalyst and a reducing agent and wherein the polymer backbone radicals formed in the decarboxylation reaction are trapped by a radical donor.
An adjustable anchoring device for the wall assembly (M) of coating panels (P), comprising an anchoring plaque to a panel (P) and a coupling for anchoring to a wall (M), wherein said device comprises a slide sliding linearly with respect to said plaque , in a first direction (F), said coupling being at least partially associated with said slide and movable with respect to the latter in at least a second direction (F1), substantially perpendicular with respect to said first direction, said device further comprising regulation means suitable for controlling the sliding of said slide with respect to said plaque , said regulation means comprising: - a threaded seat produced in said slide , - a corresponding fin integral with said plaque which extends perpendicularly to sliding rails in said plaque and - a regulation bolt cooperating with said corresponding fin and with said threaded seat to effect the sliding of said slide in said first direction, and it comprises actuation means suitable for controlling said movement of said coupling in said second direction, said actuation means comprising - an actuation bolt at least partly housed in said slide , said actuation bolt being arranged parallel to said regulation bolt , - the axis of said actuation bolt being directed parallel to said first direction and perpendicular to said corresponding fin ; - said regulation bolt and said actuation bolt being both accessible from said first direction without requiring holes passing through the front of the panel (P), characterized in that said actuation means comprise sloping planes with respect to said first sliding direction and cooperating with each other to determine the movement of said coupling in at least said second direction, wherein said coupling is a hook equipped with at least sloping seats and in which said actuation bolt cooperates with a stop integral with the slide and with a threaded seat situated in a framework housed in said slide , said framework comprising sloping guides cooperating with said sloping seats . - a threaded seat produced in said slide , - a corresponding fin integral with said plaque which extends perpendicularly to sliding rails in said plaque and - a regulation bolt cooperating with said corresponding fin and with said threaded seat to effect the sliding of said slide in said first direction, - an actuation bolt at least partly housed in said slide , said actuation bolt being arranged parallel to said regulation bolt , - the axis of said actuation bolt being directed parallel to said first direction and perpendicular to said corresponding fin ; - said regulation bolt and said actuation bolt being both accessible from said first direction without requiring holes passing through the front of the panel (P),
Guiding device for guiding an adjustment movement of a vehicle seat (S), comprising a guide rail device and a slide rail device arranged displaceably thereto in a longitudinal adjustment direction of the guiding device , the slide rail device having a first stop element and a second stop element , a one-piece component being arranged between the slide rail device and the guide rail device , and divided in the longitudinal direction of the guiding device into a first and a second section , the component being fixedly connected to the guide rail device by means of at least one connection element arranged in the first section , characterised in that the second section of the component at a first end forms a first stop element for one of the stop elements of the slide rail device and at a second end forms a second stop element for the other of the stop elements of the slide rail device .
A method for controlling lane changing, comprising: predicting (S410) a target pose of a vehicle changed to a second lane based on a current pose of the vehicle on a first lane in response to a trigger of changing the vehicle from the first lane to the second lane; and determining (S420) a lane changing preparation pose of the vehicle on the first lane based on the target pose, a minimum turning radius of the vehicle and at least one safe distance parameter of the vehicle. predicting (S410) a target pose of a vehicle changed to a second lane based on a current pose of the vehicle on a first lane in response to a trigger of changing the vehicle from the first lane to the second lane; and determining (S420) a lane changing preparation pose of the vehicle on the first lane based on the target pose, a minimum turning radius of the vehicle and at least one safe distance parameter of the vehicle.
A biosensor device for sensing an analyte, the device comprising at least a sample inlet for receiving a sample, affinity probes selected so as to have a preferential binding to the analyte, a transducer sensitive to a characteristic of the analyte and/or a label attached to the analyte and adapted to convert an interaction of the analyte with the affinity probes into a readout signal, the transducer not being a Field Effect Transistor transducer, and a desalting unit for desalting the received sample so as to reduce the response time and/or increase the signal of the transducer .
A method for secure communication by an electronic device with at least one other electronic device, the method comprising: generating a signature using a private key, a nonce, and at least one of an identifier and a key component; transmitting the signature, the nonce, a security parameter, and the at least one of the identifier and the key component, wherein the security parameter associates a user identity with a public key, the public key being associated with the private key; receiving , based on the transmitting, session security data generated by the at least one other electronic device; and establishing a secure communication session with the at least one other electronic device based on at least the session security data. generating a signature using a private key, a nonce, and at least one of an identifier and a key component; transmitting the signature, the nonce, a security parameter, and the at least one of the identifier and the key component, wherein the security parameter associates a user identity with a public key, the public key being associated with the private key; receiving , based on the transmitting, session security data generated by the at least one other electronic device; and establishing a secure communication session with the at least one other electronic device based on at least the session security data.
A three-dimensional printer of a fused deposition modeling comprising: a nozzle part configured to heat a filament to a sufficient temperature to eject the filament onto a printing plate ; the printing plate on which the filament ejected from the nozzle part is stacked, and a cooling part provided on the nozzle part to cool the nozzle part ; wherein the printing plate includes a silicon thermal plate configured to apply heat to a printed object stacked on an upper side, and the silicon thermal plate locally applies heat from a lower side of the printed object to harden the filament ejected from the nozzle part and simultaneously prevent shrinkage of the filament ejected from the nozzle part , and characterized in that the cooling part includes a lower plate provided with a thermal plate configured to generate high-temperature heat at one side thereof and having an upper surface to which a ceramic paper is attached so that the heat generated from the thermal plate is radiated to a lower end, the thermal plate hardens the filament ejected from the nozzle part and simultaneously locally applies heat to an upper side of the printed object stacked on the printing plate , and the silicon thermal plate locally applies heat to the lower side of the printed object. a nozzle part configured to heat a filament to a sufficient temperature to eject the filament onto a printing plate ; the printing plate on which the filament ejected from the nozzle part is stacked, and a cooling part provided on the nozzle part to cool the nozzle part ; wherein the printing plate includes a silicon thermal plate configured to apply heat to a printed object stacked on an upper side, and the silicon thermal plate locally applies heat from a lower side of the printed object to harden the filament ejected from the nozzle part and simultaneously prevent shrinkage of the filament ejected from the nozzle part , and characterized in that the cooling part includes a lower plate provided with a thermal plate configured to generate high-temperature heat at one side thereof and having an upper surface to which a ceramic paper is attached so that the heat generated from the thermal plate is radiated to a lower end, the thermal plate hardens the filament ejected from the nozzle part and simultaneously locally applies heat to an upper side of the printed object stacked on the printing plate , and the silicon thermal plate locally applies heat to the lower side of the printed object.
A display device with a pixel matrix viewable by a user from a principal viewing point along a predetermined principal viewing direction , wherein the pixel matrix is transparently configured, and a control circuit is configured to display at least one graphic object by means of the pixel matrix , and wherein a shielding layer with individually switchable segments is arranged behind the pixel matrix viewed along the principal viewing direction and the segments are each configured switchable with respect to their transparency at least between a minimum value and a maximum value , characterized in that the control circuit is configured to select one from the at least one displayed graphic object depending on a user input of the user, and for signaling, which object is currently selected, viewed along the principal viewing direction , to operate - at least each segment arranged behind the selected object as a respective selection segment with the minimum value or with the maximum value of the transparency, and - at least one of the remaining segments as a background segment in complementary manner to each selection segment with the maximum value or with the minimum value of the transparency. - at least each segment arranged behind the selected object as a respective selection segment with the minimum value or with the maximum value of the transparency, and - at least one of the remaining segments as a background segment in complementary manner to each selection segment with the maximum value or with the minimum value of the transparency.
A method of fault prediction in a packaging machine comprising independently movable objects configured to manipulate packaging containers, the independently movable objects communicating with a control unit configured to control the positions of the independently movable objects along a track , the method comprising; registering data values associated with the motion of the movable objects along the track, determining a distribution of said data values, calculating a measure of central tendency of the data values in the distribution, calculating a quantified measure of a shape of the distribution, associating the measure of central tendency with said quantified measure of the shape as a coupled set of condition parameters, determining a degree of dispersion of a plurality of coupled sets of condition parameters associated with a plurality of motion cycles of the independently movable objects, and comparing the degree of dispersion with a dispersion threshold value, or determining a trend of the degree of dispersion over time, for said fault prediction.