mhurhangee/ep-ind-claims huggingface dataset:
A method of providing wireless power from a wireless power device comprising wireless communication means and a wireless power transmitter to an authorized electronic device while restricting access by unauthorized devices, the method comprising: transmitting, via the wireless communication means, an encrypted code identifying a time-dependent pattern for varying an impedance of a wireless power receiver of the authorized electronic device for wireless power transmission from the wireless power device to the authorized electronic device after a user of the authorized electronic device has subscribed or paid for wireless power service; and transmitting wireless power via the wireless power transmitter to the authorized electronic device while varying the impedance of the wireless power transmitter according to the time-dependent pattern. transmitting, via the wireless communication means, an encrypted code identifying a time-dependent pattern for varying an impedance of a wireless power receiver of the authorized electronic device for wireless power transmission from the wireless power device to the authorized electronic device after a user of the authorized electronic device has subscribed or paid for wireless power service; and transmitting wireless power via the wireless power transmitter to the authorized electronic device while varying the impedance of the wireless power transmitter according to the time-dependent pattern.
A differential pressure sensor for sensing a pressure of a process fluid: a sensor body formed from two sensor body halves which have recessed regions formed therein which form a cavity, the sensor body being formed of metal; a pressure connection extending through the cavity into the body; a deflectable diaphragm mounted in the cavity configured to deflect in response to a pressure applied to the cavity through the pressure connection; an electrode on the diaphragm configured to form a variable capacitor with the pessure sensor body having a capacitance which varies in response to the applied pressure; and an electrical connection to the electrode which extends to outside of the pressure sensor body. a sensor body formed from two sensor body halves which have recessed regions formed therein which form a cavity, the sensor body being formed of metal; a pressure connection extending through the cavity into the body; a deflectable diaphragm mounted in the cavity configured to deflect in response to a pressure applied to the cavity through the pressure connection; an electrode on the diaphragm configured to form a variable capacitor with the pessure sensor body having a capacitance which varies in response to the applied pressure; and an electrical connection to the electrode which extends to outside of the pressure sensor body.
A method of reducing power consumption of an Ethernet device coupled to a network, the Ethernet device having a Gigabit Media Independent Interface, GMII, coupled between a Media Access Control, MAC, layer and a physical, PHY, layer, the method comprising: entering a low power idle, LPI, mode upon receiving a regular LPI signal when the GMII is operating at a first transmission rate; and characterized by entering the LPI mode upon receiving a modified LPI signal when the GMII is operating at a second transmission rate, wherein the second transmission rate is lower than the first transmission rate. entering a low power idle, LPI, mode upon receiving a regular LPI signal when the GMII is operating at a first transmission rate; and characterized by entering the LPI mode upon receiving a modified LPI signal when the GMII is operating at a second transmission rate, wherein the second transmission rate is lower than the first transmission rate.
A method of computer-assisted analysis of perfusion imaging data, comprising: executing, via a data analyzer, computer executable instructions that select, without user interaction, a processing protocol from an electronic repository of protocols based on perfusion imaging data corresponding to a patient; processing, via the data analyzer, perfusion imaging data for the patient with the selected processing protocol under a first processing mode; and performing a plausibility check on the processed data, wherein the plausibility check includes evaluating the perfusion imaging data content or data derived from same; and based on the plausibility check, switching between at least two processing modes, the first processing mode and a second processing mode, wherein the first and second processing modes respectively include different degrees of user interaction, wherein the processing protocol includes a plurality of computer executable acts, and the data analyzer performs at least one of the plurality of acts with user interaction if the plausibility check is not satisfied, wherein the at least one of the plurality of acts was automatically performed prior to the plausibility check. executing, via a data analyzer, computer executable instructions that select, without user interaction, a processing protocol from an electronic repository of protocols based on perfusion imaging data corresponding to a patient; processing, via the data analyzer, perfusion imaging data for the patient with the selected processing protocol under a first processing mode; and performing a plausibility check on the processed data, wherein the plausibility check includes evaluating the perfusion imaging data content or data derived from same; and based on the plausibility check, switching between at least two processing modes, the first processing mode and a second processing mode, wherein the first and second processing modes respectively include different degrees of user interaction, wherein the processing protocol includes a plurality of computer executable acts, and the data analyzer performs at least one of the plurality of acts with user interaction if the plausibility check is not satisfied, wherein the at least one of the plurality of acts was automatically performed prior to the plausibility check.
Method of extracting a carbohydrate from a carbohydrate juice, said method comprising the steps of: a) providing an adsorbent having unsaturated hydrocarbon groups exposed on its (internal) surface wherein said groups are capable of adsorbing a carbohydrate to the surface of the adsorbent by CH/π interaction, and optionally in addition by hydrogen bonding; b) contacting said carbohydrate juice with said adsorbent under conditions by which said carbohydrate is adsorbed to said adsorbent by CH/π interaction, and optionally in addition by hydrogen bonding, and c) desorbing said carbohydrate from said adsorbent, wherein step b) is performed at a first, low, temperature, and step c) is performed at a second, higher temperature, wherein the difference between the first and second temperature is preferably between 10 and 100°C. a) providing an adsorbent having unsaturated hydrocarbon groups exposed on its (internal) surface wherein said groups are capable of adsorbing a carbohydrate to the surface of the adsorbent by CH/π interaction, and optionally in addition by hydrogen bonding; b) contacting said carbohydrate juice with said adsorbent under conditions by which said carbohydrate is adsorbed to said adsorbent by CH/π interaction, and optionally in addition by hydrogen bonding, and c) desorbing said carbohydrate from said adsorbent, wherein step b) is performed at a first, low, temperature, and step c) is performed at a second, higher temperature, wherein the difference between the first and second temperature is preferably between 10 and 100°C.
A radically polymerizable composition comprising: (a) at least one alkaline developable resin; (b) at least one acrylate monomer; (c) at least one photoinitiator; and (d) at least one hydroxylamine ester compound of formula I wherein R a represents an acyl radical; one of R b and R c represents hydrogen and the other one represents a substituent; or R b and R c both represent hydrogen or identical or different substituents; or R b and R c together represent oxygen; or R b and R c together form a ring; R 1 - R 4 each represent C 1 -C 6 alkyl; and R 5 and R 6 each represent independently of one another hydrogen, C 1 -C 6 alkyl or C 6 -C 10 aryl; or R 5 and R 6 together represent oxygen. (a) at least one alkaline developable resin; (b) at least one acrylate monomer; (c) at least one photoinitiator; and (d) at least one hydroxylamine ester compound of formula I wherein R a represents an acyl radical; one of R b and R c represents hydrogen and the other one represents a substituent; or R b and R c both represent hydrogen or identical or different substituents; or R b and R c together represent oxygen; or R b and R c together form a ring; R 1 - R 4 each represent C 1 -C 6 alkyl; and R 5 and R 6 each represent independently of one another hydrogen, C 1 -C 6 alkyl or C 6 -C 10 aryl; or R 5 and R 6 together represent oxygen.
Method for operating a washer-dryer, wherein the washer-dryer has an outer tub; a drum supported rotatably in the outer tub with a closable glass door, wherein the drum is used to receive and remove laundry items when the glass door is opened; a control device and a process air duct, in which a heater for heating air, a fan, and at least one temperature sensor (14, 15, 16) for measuring a temperature T pc are disposed, comprising the steps: (a) measuring a temperature T pc 1 in the process air duct with the at least one temperature sensor (14, 15, 16); (b) when the heater is switched on, carrying out a cooling program using the process air in the event that T pc 1 ≥ T pc lim, wherein T pc lim is an upper limit temperature of the process air, wherein the cooling program is carried out until a predetermined temperature T pc set ≤ T pc lim is reached, so that the cooling program achieves a cooling of the process air and as a result the glass door, wherein the cooling program comprises putting the warm process air in contact with water from a water supply system, wherein the temperature T pc lim is fixed as a function of a temperature T aq of the water from the water supply system so that a predetermined temperature shock resistance ΔT shock is not exceeded; and (c) carrying out a wash program. (a) measuring a temperature T pc 1 in the process air duct with the at least one temperature sensor (14, 15, 16); (b) when the heater is switched on, carrying out a cooling program using the process air in the event that T pc 1 ≥ T pc lim, wherein T pc lim is an upper limit temperature of the process air, wherein the cooling program is carried out until a predetermined temperature T pc set ≤ T pc lim is reached, so that the cooling program achieves a cooling of the process air and as a result the glass door, wherein the cooling program comprises putting the warm process air in contact with water from a water supply system, wherein the temperature T pc lim is fixed as a function of a temperature T aq of the water from the water supply system so that a predetermined temperature shock resistance ΔT shock is not exceeded; and (c) carrying out a wash program.
A stall divider for animal stalls, comprising: first and second pipes (28, 30) each having a head end adapted for mounting on a fixed head-end barrier, whereby in use said pipes extend from said head end to a free end, the pipes lying within and defining a substantially vertical plane which separates a pair of neighbouring stalls; characterized by a C-shaped connecting member comprising a curved length of flexible material having first and second ends, the first and second ends being adapted for mounting in the free ends of the first and second pipes, respectively. first and second pipes (28, 30) each having a head end adapted for mounting on a fixed head-end barrier, whereby in use said pipes extend from said head end to a free end, the pipes lying within and defining a substantially vertical plane which separates a pair of neighbouring stalls; characterized by a C-shaped connecting member comprising a curved length of flexible material having first and second ends, the first and second ends being adapted for mounting in the free ends of the first and second pipes, respectively.
A method for transmitting downlink control information, comprising: mapping, by a base station, a physical downlink control channel, PDCCH, of a user equipment device, UE, sequentially to resource elements, which are used for transmitting the PDCCH, in each orthogonal frequency division multiplexing, OFDM, symbol according to an order of the OFDM symbols used by the PDCCH of the UE, and according to an order of subcarriers in each OFDM symbol, wherein the PDCCH carries the downlink control information for the UE; and sending, by the base station, the PDCCH to the UE by using the resource elements; wherein the order of the OFDM symbols is an ascending order of the indexes of the OFDM symbols; wherein the step of mapping the PDCCH sequentially to the resource elements which are used for transmitting the PDCCH, comprises: mapping modulation symbols of the PDCCH with index numbers of j 0 + [0,..., N - 1] sequentially to a set R of resource elements in each OFDM symbol of the OFDM symbols, wherein j 0 is a start position of the modulation symbols of the PDCCH mapped in the OFDM symbol; the set R is a set of resource elements used for transmitting the PDCCH and occupied by L control channel elements, CCEs, allocated to the PDCCH in the OFDM symbol; N is the quantity of the resource elements in the set R; and L, N and j 0 are integers. mapping, by a base station, a physical downlink control channel, PDCCH, of a user equipment device, UE, sequentially to resource elements, which are used for transmitting the PDCCH, in each orthogonal frequency division multiplexing, OFDM, symbol according to an order of the OFDM symbols used by the PDCCH of the UE, and according to an order of subcarriers in each OFDM symbol, wherein the PDCCH carries the downlink control information for the UE; and sending, by the base station, the PDCCH to the UE by using the resource elements; wherein the order of the OFDM symbols is an ascending order of the indexes of the OFDM symbols; wherein the step of mapping the PDCCH sequentially to the resource elements which are used for transmitting the PDCCH, comprises: mapping modulation symbols of the PDCCH with index numbers of j 0 + [0,..., N - 1] sequentially to a set R of resource elements in each OFDM symbol of the OFDM symbols, wherein j 0 is a start position of the modulation symbols of the PDCCH mapped in the OFDM symbol; the set R is a set of resource elements used for transmitting the PDCCH and occupied by L control channel elements, CCEs, allocated to the PDCCH in the OFDM symbol; N is the quantity of the resource elements in the set R; and L, N and j 0 are integers.
A sensing device comprising: an output area having an output circuit comprising an integrator adapted to integrate a received current so as to generate an output voltage (Vout) corresponding to the received current; an electrode area for bio-sensing purposes comprising: an electrode comprising an exposed, electrically conductive, surface area and electrode circuitry connected to the exposed surface area, wherein the electrode circuitry comprises a voltage-to-current transducer adapted to produce a wire current (Iwire) corresponding to a voltage present at the exposed surface area; and a connecting wire electrically connecting the electrode circuitry to the output circuit, wherein the current received by the output circuit is the wire current. an output area having an output circuit comprising an integrator adapted to integrate a received current so as to generate an output voltage (Vout) corresponding to the received current; an electrode area for bio-sensing purposes comprising: an electrode comprising an exposed, electrically conductive, surface area and electrode circuitry connected to the exposed surface area, wherein the electrode circuitry comprises a voltage-to-current transducer adapted to produce a wire current (Iwire) corresponding to a voltage present at the exposed surface area; and a connecting wire electrically connecting the electrode circuitry to the output circuit, an electrode comprising an exposed, electrically conductive, surface area and electrode circuitry connected to the exposed surface area, wherein the electrode circuitry comprises a voltage-to-current transducer adapted to produce a wire current (Iwire) corresponding to a voltage present at the exposed surface area; and a connecting wire electrically connecting the electrode circuitry to the output circuit, wherein the current received by the output circuit is the wire current.
A high-speed resin coating 3D printing system, wherein that it includes an exposure optical system, a film, a laser displacement meter, a bubble scraper, a resin vat, and a sample stage; wherein the sample stage is connected with a lifting device and located in the resin vat, and the film covers on the resin in the resin vat; the resin vat is installed on a three-dimensional motion control axis; the exposure optical system is located above the resin vat, and comprises a projection lens which faces to the film; one side of the projection lens is equipped with a laser displacement meter; the bubble scraper is arranged below the film, characterized in that the projection lens has an electromagnetic coil, a roller is arranged above the film, the laser displacement meter being used to monitor the difference between the height of a point on the upper surface of the film in the working area of the roller and the height of the film in stationary state, and in that the roller includes a plurality of bearing coaxial cores, and each bearing rotates independently.
A header for a heat exchanger, comprising: a first cylindrical portion having a first diameter extending over a first length portion of the header; a plurality of tube receiving slots arranged along the first length portion; an end cap received into an opening at an end of the first cylindrical portion and joined thereto to seal a first end of the header; a second cylindrical portion, the second cylindrical portion extending over a second length portion of the header coaxial with the first cylindrical portion; an open end of the second cylindrical portion arranged at a second end of the header opposite the first end to allow for fluid flow into or out of the header; and a circumferential bead located between the first and second cylindrical portions (7,8) and extending radially outward of the first cylindrical portion characterized in that the second cylindrical portion has a second diameter that is smaller than the first diameter and in that at least one of the plurality of tube receiving slots is located a distance no greater than one and a half times the first diameter from the circumferential bead. a first cylindrical portion having a first diameter extending over a first length portion of the header; a plurality of tube receiving slots arranged along the first length portion; an end cap received into an opening at an end of the first cylindrical portion and joined thereto to seal a first end of the header; a second cylindrical portion, the second cylindrical portion extending over a second length portion of the header coaxial with the first cylindrical portion; an open end of the second cylindrical portion arranged at a second end of the header opposite the first end to allow for fluid flow into or out of the header; and a circumferential bead located between the first and second cylindrical portions (7,8) and extending radially outward of the first cylindrical portion characterized in that the second cylindrical portion has a second diameter that is smaller than the first diameter and in that at least one of the plurality of tube receiving slots is located a distance no greater than one and a half times the first diameter from the circumferential bead.
A catheter comprising: an elongated flexible tubular catheter body having proximal and distal ends; an intermediate section attached to the distal end of the catheter body, the distal end of the intermediate section having a preformed curve with a diameter between 0.5 and 6.0 cm and a curvature between 110° and 270° so as to conform to the overall shape and cavity of a pulmonary vein, or a pulmonary venous antrum; a tip assembly connected to the preformed curve at a preset off-axis angle (θ) from a distal end of the preformed curve; and a flexible section connecting the tip assembly to the preformed curve, wherein the flexible section is more flexible than the intermediate section to allow the tip assembly to be moved independently of the intermediate section, and wherein the flexible section has a flexural modulus less than that of the preformed curve, characterised in that the intermediate section is deflectable in a direction and the preformed curve has a curvature generally opposite to said direction. an elongated flexible tubular catheter body having proximal and distal ends; an intermediate section attached to the distal end of the catheter body, the distal end of the intermediate section having a preformed curve with a diameter between 0.5 and 6.0 cm and a curvature between 110° and 270° so as to conform to the overall shape and cavity of a pulmonary vein, or a pulmonary venous antrum; a tip assembly connected to the preformed curve at a preset off-axis angle (θ) from a distal end of the preformed curve; and a flexible section connecting the tip assembly to the preformed curve, wherein the flexible section is more flexible than the intermediate section to allow the tip assembly to be moved independently of the intermediate section, and wherein the flexible section has a flexural modulus less than that of the preformed curve,
A photodetector apparatus (100, 101), comprising: a semiconductor film; first and second electrical contacts configured to enable a flow of current through the semiconductor film between the first and second electrical contacts; and at least one semiconductor nanostructure comprising first and second semiconductor nanomaterials that form a type-II heterojunction configured to separate two different types of charge carriers (30, 31) generated by incident photons, the first and second semiconductor nanomaterials arranged relative to the semiconductor film such that one type of charge carrier is transferred from the second semiconductor nanomaterial to the semiconductor film leaving the other type of charge carrier on the first semiconductor nanomaterial which generates an electric field and thereby modulates the flow of current through the semiconductor film by modulating the conductivity of the semiconductor film, the modulation of current indicating one or more of the presence and flux of incident photons. a semiconductor film; first and second electrical contacts configured to enable a flow of current through the semiconductor film between the first and second electrical contacts; and at least one semiconductor nanostructure comprising first and second semiconductor nanomaterials that form a type-II heterojunction configured to separate two different types of charge carriers (30, 31) generated by incident photons, the first and second semiconductor nanomaterials arranged relative to the semiconductor film such that one type of charge carrier is transferred from the second semiconductor nanomaterial to the semiconductor film leaving the other type of charge carrier on the first semiconductor nanomaterial which generates an electric field and thereby modulates the flow of current through the semiconductor film by modulating the conductivity of the semiconductor film, the modulation of current indicating one or more of the presence and flux of incident photons.