mhurhangee/patent-ind-claim-en huggingface dataset:
A position indicator for indicating a position on a tablet through capacitive coupling between the position indicator and the tablet , the position indicator comprising: a power source; an electrode configured to transmit, through the capacitive coupling, at least a position-indicating signal to a sensor of the tablet , to receive, through the capacitive coupling, a first control signal transmitted from the sensor of the tablet , and to receive, through the capacitive coupling, a second control signal, which is different from the first control signal and which is transmitted from the sensor of the tablet ; a controller (60, 70; a first control signal receiver that is configured to receive the first control signal; characterized in that the position indicator further comprises a second control signal receiver which is initially in an operation-suspended state; wherein the controller is configured to perform a first control operation including changing, in response to the first control signal receiver receiving the first control signal, the state of the second control signal receiver from the operation-suspended state to a state in which the second control signal receiver becomes operable to receive the second control signal, wherein receipt of the second control signal causes the position indicator to perform a second control operation different from the first control operation. a power source; an electrode configured to transmit, through the capacitive coupling, at least a position-indicating signal to a sensor of the tablet , to receive, through the capacitive coupling, a first control signal transmitted from the sensor of the tablet , and to receive, through the capacitive coupling, a second control signal, which is different from the first control signal and which is transmitted from the sensor of the tablet ; a controller (60, 70; a first control signal receiver that is configured to receive the first control signal; characterized in that the position indicator further comprises a second control signal receiver which is initially in an operation-suspended state; wherein the controller is configured to perform a first control operation including changing, in response to the first control signal receiver receiving the first control signal, the state of the second control signal receiver from the operation-suspended state to a state in which the second control signal receiver becomes operable to receive the second control signal, wherein receipt of the second control signal causes the position indicator to perform a second control operation different from the first control operation.
A method of attaching a regulating blade made of resin to an attaching portion of a development frame member made of resin, the attaching portion being used to attach the regulating blade , the regulating blade being (i) arranged in non-contact with a developer bearing member that is arranged to carry a developer for developing an electrostatic latent image formed on an image bearing member , (ii) arranged to face the developer bearing member , and (iii) configured to regulate an amount of the developer to be carried on the developer bearing member , characterized in that the method of attaching the regulating blade comprising: a warping step comprising imparting, to the regulating blade , a force for warping the regulating blade in such a manner that a gap (G) between the developer bearing member supported by the development frame member and the regulating blade attached to the attaching portion is adjusted to within a predetermined range along a longitudinal direction of the developer bearing member ; and an attaching step comprising attaching, with an adhesive (A), the regulating blade to the attaching portion in a state in which the regulating blade is kept warped by the force imparted to the regulating blade in the warping step and the gap (G) is within the predetermined range along the longitudinal direction of the developer bearing member . a warping step comprising imparting, to the regulating blade , a force for warping the regulating blade in such a manner that a gap (G) between the developer bearing member supported by the development frame member and the regulating blade attached to the attaching portion is adjusted to within a predetermined range along a longitudinal direction of the developer bearing member ; and an attaching step comprising attaching, with an adhesive (A), the regulating blade to the attaching portion in a state in which the regulating blade is kept warped by the force imparted to the regulating blade in the warping step and the gap (G) is within the predetermined range along the longitudinal direction of the developer bearing member .
Method for manufacturing a coated aggregate comprising solid fragments coated with a binder, wherein the manufacturing of the coated aggregate comprises: a) a step of elevating to a temperature greater than 100°C of a portion at least of the solid fragments, in the presence of water; b) a step of capturing off-gases resulting from step a), and c) a step of separating said off-gases into a suspended substance fraction and into a gaseous fraction, step b) comprising: b1) a step of sucking off-gases by means of a suction member ; and step c) comprising: c1) a step of putting the off-gases into contact with a scrubbing liquid by means of a scrubbing member ; characterised in that : the suction member is made in the form of a liquid jet ejector comprising a gas inlet connected to a nozzle of the converging type , the ejector being provided in the vicinity of the gas inlet with a scrubbing liquid inlet arranged in such a way as to substantially spray the entire nozzle , so that the suction member and the scrubbing member are made in the form of the same entity, called a gas scrubber. a) a step of elevating to a temperature greater than 100°C of a portion at least of the solid fragments, in the presence of water; b) a step of capturing off-gases resulting from step a), and c) a step of separating said off-gases into a suspended substance fraction and into a gaseous fraction,
A method for forming a semiconductor device , the method comprising: forming a device structure on a substrate , the device structure comprising a fin structure comprising a pair of source/drain bodies and a channel region between the pair of source/drain bodies, the channel region comprising at least one channel layer, and the device structure further comprising a gate structure extending across the channel region of the fin structure, wherein the device structure further comprises a buried wiring line formed in a trench extending alongside the fin structure and capped by an insulating wiring capping layer ; forming a metal layer over the source/drain bodies; etching the metal layer to define respective source/drain contacts on the source/drain bodies; and depositing an interlayer dielectric layer over the gate structure and the source/drain contacts, wherein the method further comprises forming a via hole in the wiring capping layer to expose an upper surface of the buried wiring line, and subsequently forming the metal layer, wherein the metal layer fills the via hole and wherein the metal layer is etched such that a first one of the source/drain contacts is formed in contact with the buried wiring line and one of the source/drain bodies. forming a device structure on a substrate , the device structure comprising a fin structure comprising a pair of source/drain bodies and a channel region between the pair of source/drain bodies, the channel region comprising at least one channel layer, and the device structure further comprising a gate structure extending across the channel region of the fin structure, wherein the device structure further comprises a buried wiring line formed in a trench extending alongside the fin structure and capped by an insulating wiring capping layer ; forming a metal layer over the source/drain bodies; etching the metal layer to define respective source/drain contacts on the source/drain bodies; and depositing an interlayer dielectric layer over the gate structure and the source/drain contacts, wherein the method further comprises forming a via hole in the wiring capping layer to expose an upper surface of the buried wiring line, and subsequently forming the metal layer, wherein the metal layer fills the via hole and wherein the metal layer is etched such that a first one of the source/drain contacts is formed in contact with the buried wiring line and one of the source/drain bodies.
A system comprising: memory to store data and executable instructions, the data including electrical data representing electrical activity measured from a plurality of locations distributed on a body surface, the data further including geometry data representing body surface geometry of the locations distributed on the body surface where the electrical activity is measured and geometry of a cardiac envelope; and at least one processor to access the memory and execute the instructions to at least: reconstruct electrical activity on to the cardiac envelope based on the geometry data and the electrical data, the reconstructed electrical activity being computed using an n-dimensional method of fundamental solution , where n is a positive integer greater than three. memory to store data and executable instructions, the data including electrical data representing electrical activity measured from a plurality of locations distributed on a body surface, the data further including geometry data representing body surface geometry of the locations distributed on the body surface where the electrical activity is measured and geometry of a cardiac envelope; and at least one processor to access the memory and execute the instructions to at least: reconstruct electrical activity on to the cardiac envelope based on the geometry data and the electrical data, the reconstructed electrical activity being computed using an n-dimensional method of fundamental solution , where n is a positive integer greater than three.
Method for production of an aluminium strip for lithographic printing plate supports from an aluminium alloy, wherein the aluminium alloy of the aluminium strip for lithographic printing plate supports comprises the following alloy constituents in % by weight: 0.05% ≤ Si ≤ 0.25%, 0.2% ≤ Fe ≤ 1%, Cu max. 400 ppm, Mn ≤ 0.30%, 0.10% ≤ Mg ≤ 0.50%, Cr ≤ 100 ppm, Zn ≤ 500 ppm, Ti < 0.030%, the remainder aluminium and unavoidable impurities individually at most 0.03%, in total at most 0.15%, with at least the following steps: - casting of a rolling ingot from an aluminium alloy, - homogenising of the rolling ingot, - hot rolling of the rolling ingot to a hot strip thickness, and - cold rolling of the hot strip to final thickness, wherein the final thickness of the aluminium strip after cold rolling is between 0.1 mm and 0.5 mm, characterised in that on cold rolling, the product (P) of the relative final thicknesses (b 1 , b 2 ) of the aluminium strip from the first and second cold rolling pass is 17% to 22%. 0.05% ≤ Si ≤ 0.25%, 0.2% ≤ Fe ≤ 1%, Cu max. 400 ppm, Mn ≤ 0.30%, 0.10% ≤ Mg ≤ 0.50%, Cr ≤ 100 ppm, Zn ≤ 500 ppm, Ti < 0.030%, the remainder aluminium and unavoidable impurities individually at most 0.03%, in total at most 0.15%, with at least the following steps: - casting of a rolling ingot from an aluminium alloy, - homogenising of the rolling ingot, - hot rolling of the rolling ingot to a hot strip thickness, and - cold rolling of the hot strip to final thickness, - casting of a rolling ingot from an aluminium alloy, - homogenising of the rolling ingot, - hot rolling of the rolling ingot to a hot strip thickness, and - cold rolling of the hot strip to final thickness, wherein the final thickness of the aluminium strip after cold rolling is between 0.1 mm and 0.5 mm, characterised in that on cold rolling, the product (P) of the relative final thicknesses (b 1 , b 2 ) of the aluminium strip from the first and second cold rolling pass is 17% to 22%.
A method for the catalytic synthesis of lactide from lactic acid, characterized in that the synthesis of lactide from lactic acid is under the catalysis of a zinc oxide aqueous nanoparticle dispersion as a sole catalyst; wherein the zinc oxide nanoparticle aqueous dispersion is a dispersion of zinc oxide nanoparticles in water; wherein the particle size of the zinc oxide nanoparticles is about 30-40 nm, and the mass percentage of the zinc oxide nanoparticles is about 20%; wherein the method further comprises: mixing the lactic acid and the sole zinc oxide catalyst together at a temperature of between about 60-80°C and a pressure of about 60 kPa to form a mixture, wherein the amount of zinc oxide catalyst is about 0.3-0.6% by weight of said lactic acid; dehydrating the mixture for about 2 hours to remove free water from the lactic acid and to obtain a dehydration product; polymerising said dehydration product for about 3 hours at a temperature of about 120-150°C and a pressure of about 10 kPa to obtain an oligomer; and depolymerising said oligomer for about 3-5 hours at a temperature of about 170-220°C and a pressure of between about 1-3 kPa. mixing the lactic acid and the sole zinc oxide catalyst together at a temperature of between about 60-80°C and a pressure of about 60 kPa to form a mixture, wherein the amount of zinc oxide catalyst is about 0.3-0.6% by weight of said lactic acid; dehydrating the mixture for about 2 hours to remove free water from the lactic acid and to obtain a dehydration product; polymerising said dehydration product for about 3 hours at a temperature of about 120-150°C and a pressure of about 10 kPa to obtain an oligomer; and depolymerising said oligomer for about 3-5 hours at a temperature of about 170-220°C and a pressure of between about 1-3 kPa.
A method for generating at least one of an absorption image, a phase image and a dark field image of a sample comprising: a) applying a beam of radiation emitted by an x-ray source to a beam splitter grating in order to split the beam; b) introducing the sample into the splitted beams between the beam splitter grating and an x-ray detector; c) measuring the light intensity distribution modulated by said sample by means of the x-ray detector; d) computing at least one of an absorption image, a phase image and a dark field image from different sets of the total number of pixels detected by said x-ray detector, characterised by said sets being obtained by virtually overlaying the pixel matrix read out of the exposed detector by a virtual mask having on/off locations and by using pixels covered by 'on' locations of the virtual mask to populate a first set and shifting said virtual mask relative to the pixel matrix to obtain further sets. a) applying a beam of radiation emitted by an x-ray source to a beam splitter grating in order to split the beam; b) introducing the sample into the splitted beams between the beam splitter grating and an x-ray detector; c) measuring the light intensity distribution modulated by said sample by means of the x-ray detector; d) computing at least one of an absorption image, a phase image and a dark field image from different sets of the total number of pixels detected by said x-ray detector, characterised by said sets being obtained by virtually overlaying the pixel matrix read out of the exposed detector by a virtual mask having on/off locations and by using pixels covered by 'on' locations of the virtual mask to populate a first set and shifting said virtual mask relative to the pixel matrix to obtain further sets.
Mechatronic assembly for driving a member, comprising a control unit and an actuator , the control unit comprising a servo-control algorithm and a power bridge, said algorithm controlling said power bridge, the power bridge providing a bifilar electrical signal consisting of a power signal and a direction signal, the actuator comprising a polyphase, brushless electric motor having N phases, binary sensors for detecting the position of the rotor of said motor , power switches suitable for powering the N phases of the motor from the bifilar electrical signal , characterized in that the bifilar electrical signal connects the actuator to the control unit via a two-point connector, and in that an electronic self-switching circuit manages the self-switching of the N phases of the motor by means of the binary detection sensors which provide information on the position of the rotor of the motor, and the state of the power switches is controlled directly by the signals from the binary detection sensors .
Method for producing helically toothed gear wheels , comprising the steps: - producing a round full or hollow profile of metal which is designed with a helical toothing on the outer circumference, wherein the profile is produced by means of sweeping through a die formed with a toothing contour , to which end the toothing contour has a twist and the matrix or the profile , by means of rotatable mounting of the die or by means of rotatable mounting of the drawing rod used for sweeping, carries out a free rotational movement (D); - providing the profile ; - dividing the profile into individual discs which are then further processed to form the helically toothed gear wheels . - producing a round full or hollow profile of metal which is designed with a helical toothing on the outer circumference, wherein the profile is produced by means of sweeping through a die formed with a toothing contour , to which end the toothing contour has a twist and the matrix or the profile , by means of rotatable mounting of the die or by means of rotatable mounting of the drawing rod used for sweeping, carries out a free rotational movement (D); - providing the profile ; - dividing the profile into individual discs which are then further processed to form the helically toothed gear wheels .
A dual mode chemical rocket engine having a primary reaction chamber for hydrogen peroxide comprising a catalyst bed for hydrogen peroxide, which primary reaction chamber is connected to a secondary reaction chamber having means for injection therein of a fuel-rich monopropellant, characterized in that the fuel-rich monopropellant is a liquid ADN based, or HAN based monopropellant.
Communication apparatus for a cellular communication system , the communication apparatus comprising: a controller and a transceiver ; wherein said controller is configured to control the transceiver to: transmit an interface setup request message to said communication apparatus of a wireless local area network, WLAN, in an interface setup procedure; and receive, responsive to said interface setup request message, an interface setup response message from the communication apparatus of the WLAN in the interface setup procedure, wherein said interface setup response message comprises information on whether at least one associated access point, AP, of said WLAN operates in an open mode, a closed mode, or a hybrid mode; wherein said controller is configured to setup an interface at said communication apparatus for the cellular communication system with the communication apparatus of the WLAN, based on the information, and wherein the open mode is a mode in which access is allowed for all communication devices, the closed mode is a mode in which access is restricted to communication devices that are members of a particular group, and the hybrid mode is a mode in which access is allowed for all communication devices but in which members of the particular group are given preferential access. a controller and a transceiver ; wherein said controller is configured to control the transceiver to: transmit an interface setup request message to said communication apparatus of a wireless local area network, WLAN, in an interface setup procedure; and receive, responsive to said interface setup request message, an interface setup response message from the communication apparatus of the WLAN in the interface setup procedure, wherein said interface setup response message comprises information on whether at least one associated access point, AP, of said WLAN operates in an open mode, a closed mode, or a hybrid mode; transmit an interface setup request message to said communication apparatus of a wireless local area network, WLAN, in an interface setup procedure; and receive, responsive to said interface setup request message, an interface setup response message from the communication apparatus of the WLAN in the interface setup procedure, wherein said interface setup response message comprises information on whether at least one associated access point, AP, of said WLAN operates in an open mode, a closed mode, or a hybrid mode; wherein said controller is configured to setup an interface at said communication apparatus for the cellular communication system with the communication apparatus of the WLAN, based on the information, and wherein the open mode is a mode in which access is allowed for all communication devices, the closed mode is a mode in which access is restricted to communication devices that are members of a particular group, and the hybrid mode is a mode in which access is allowed for all communication devices but in which members of the particular group are given preferential access.
A pharmaceutical combination comprising (i) a MET tyrosine kinase inhibitor, which is the compound of formula (I) or a pharmaceutically acceptable salt thereof, and (ii) an EGFR tyrosine kinase inhibitor, which is gefitinib or a pharmaceutically acceptable salt thereof, and at least one pharmaceutically acceptable carrier, for use in treating an EGFR tyrosine kinase activity and MET tyrosine kinase activity mediated disease, wherein said disease is a cancer.
Electronic device (600; 700) comprising: - a modulator-demodulator circuit (601; 701); - a first integrated circuit (603; 703) implementing a first subscriber identification module; and - at least one second integrated circuit (207; 207-1, 207-2, 207-N) intended to implement a second subscriber identification module, wherein a data transmit-receive terminal of the first circuit and a data transmit-receive terminal of the second circuit are connected to a same data transmit-receive terminal of the modulator-demodulator circuit, characterized in that a first terminal (609; 709-1, 709-2, 709-N) of the first circuit, connected to a reset terminal of the second circuit, is adapted to applying, to said terminal, a signal for deactivating the second circuit. - a modulator-demodulator circuit (601; 701); - a first integrated circuit (603; 703) implementing a first subscriber identification module; and - at least one second integrated circuit (207; 207-1, 207-2, 207-N) intended to implement a second subscriber identification module, wherein a data transmit-receive terminal of the first circuit and a data transmit-receive terminal of the second circuit are connected to a same data transmit-receive terminal of the modulator-demodulator circuit, characterized in that a first terminal (609; 709-1, 709-2, 709-N) of the first circuit, connected to a reset terminal of the second circuit, is adapted to applying, to said terminal, a signal for deactivating the second circuit.