mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal incorporating a battery pack utilized as power supply, the mobile terminal comprising: a positive terminal connected to a positive electrode of the battery pack; a negative terminal connected to a negative electrode of the battery pack; a data communication terminal configured to allow digital data communication with a circuit in the battery pack, the data communication terminal being separate to the positive and negative terminals; a charge control unit configured to control charging of the battery pack via the positive terminal; a reference voltage output unit configured to output reference voltage; a dividing resistor and a thermistor connected in series between the reference voltage output unit and the negative terminal; a temperature detector configured to detect temperature based on voltage at a predetermined portion of a series circuit formed of the dividing resistor and the thermistor, and to stop charging of the battery pack with the charge control unit based on the detected temperature; a switching device connected to a portion of the series circuit formed of the dividing resistor and the thermistor, and configured to control the voltage at the predetermined portion; and a control unit configured to communicate with the circuit in the battery pack via the data communication terminal, and to change the voltage at the predetermined portion to stop charging of the battery pack, when abnormality is notified from digital data received from the battery pack, by controlling the switching device. a positive terminal connected to a positive electrode of the battery pack; a negative terminal connected to a negative electrode of the battery pack; a data communication terminal configured to allow digital data communication with a circuit in the battery pack, the data communication terminal being separate to the positive and negative terminals; a charge control unit configured to control charging of the battery pack via the positive terminal; a reference voltage output unit configured to output reference voltage; a dividing resistor and a thermistor connected in series between the reference voltage output unit and the negative terminal; a temperature detector configured to detect temperature based on voltage at a predetermined portion of a series circuit formed of the dividing resistor and the thermistor, and to stop charging of the battery pack with the charge control unit based on the detected temperature; a switching device connected to a portion of the series circuit formed of the dividing resistor and the thermistor, and configured to control the voltage at the predetermined portion; and a control unit configured to communicate with the circuit in the battery pack via the data communication terminal, and to change the voltage at the predetermined portion to stop charging of the battery pack, when abnormality is notified from digital data received from the battery pack, by controlling the switching device.
A method for fabricating an object with a computer-controlled additive manufacturing apparatus, the method comprising the steps of: moving the apparatus and fabricating a plurality of first beads , each first bead defining a longitudinal axis, whereby at least a portion of some of the first beads extend longitudinally adjacently to each other, the first beads forming a first non-planar layer ; and moving the apparatus and fabricating a plurality of second beads , each second bead defining a longitudinal axis, whereby at least a portion of some of the second beads extend longitudinally adjacently to each other, the second beads forming a second non-planar layer at least partially enclosing the first non-planar layer , and wherein the at least a portion of some of the second beads abut the at least a portion of some of the first beads , and the longitudinal axes of the second beads are arranged transverse to the longitudinal axes of the first beads . moving the apparatus and fabricating a plurality of first beads , each first bead defining a longitudinal axis, whereby at least a portion of some of the first beads extend longitudinally adjacently to each other, the first beads forming a first non-planar layer ; and moving the apparatus and fabricating a plurality of second beads , each second bead defining a longitudinal axis, whereby at least a portion of some of the second beads extend longitudinally adjacently to each other, the second beads forming a second non-planar layer at least partially enclosing the first non-planar layer , and wherein the at least a portion of some of the second beads abut the at least a portion of some of the first beads , and the longitudinal axes of the second beads are arranged transverse to the longitudinal axes of the first beads .
Multi-layered wall comprising an already existing wall and a plurality of thermally insulating bricks , so that an additional brick wall layer is formed on the inner side and/or outer side of the already existing wall , wherein the plurality of thermally insulating bricks is adhesively bonded to the already existing wall, characterised in that no supporting element, in particular no bracket, no angle, no base plate, no false ceiling and no foundation is provided for the vertical support of the thermally insulating bricks , wherein the thermally insulating bricks have a coefficient of thermal conductivity of at most 0.065 W/mK.
A method of producing a Group III nitride crystal, the method comprising causing a Group III metal to react with an oxidizing agent and a nitrogen-containing gas, wherein the oxidizing agent is an oxygen-containing compound, thereby producing a Group III nitride crystal; wherein the step of producing a Group III nitride crystal comprises the steps of: causing the Group III metal to react with the oxidizing agent in a heated state, thereby generating Group III metal oxidation product gas; and causing the Group III metal oxidation product gas to react with the nitrogen-containing gas, thereby generating the Group III nitride crystal. causing a Group III metal to react with an oxidizing agent and a nitrogen-containing gas, wherein the oxidizing agent is an oxygen-containing compound, thereby producing a Group III nitride crystal; wherein the step of producing a Group III nitride crystal comprises the steps of: causing the Group III metal to react with the oxidizing agent in a heated state, thereby generating Group III metal oxidation product gas; and causing the Group III metal oxidation product gas to react with the nitrogen-containing gas, thereby generating the Group III nitride crystal. causing the Group III metal to react with the oxidizing agent in a heated state, thereby generating Group III metal oxidation product gas; and causing the Group III metal oxidation product gas to react with the nitrogen-containing gas, thereby generating the Group III nitride crystal.
A steel reinforced concrete column for a high rise building comprising: a plurality of hot-rolled steel sections (16 i ) extending longitudinally through the concrete column , each of these steel sections (16 i ) having an outward flange with an outer surface (24 i ) turned outwards in the concrete column , an opposite inward flange (18 i ) with an outer surface (20 i ) turned inwards in the concrete column , and a central web (26 i ) connecting the outward flange (22 i ) to the inward flange (18 i ); said steel reinforced concrete column having a longitudinal axis along which the steel sections (16,) extend, so that the longitudinal axis of each steel section is parallel to the longitudinal axis of the steel reinforced concrete column , said steel reinforced concrete column being characterised in that the steel sections (16 i ) are arranged in the concrete column so that the outer surfaces (20 i ) of their inward flanges (18 i ) delimit therein a central concrete core with n lateral sides and a transversal cross-section that forms an n-sided polygon, n being at least equal to three, each of the n lateral sides of the central concrete core being coplanar with the outer surface (20 i ) of the inward flange (18 i ) of at least one steel section. a plurality of hot-rolled steel sections (16 i ) extending longitudinally through the concrete column , each of these steel sections (16 i ) having an outward flange with an outer surface (24 i ) turned outwards in the concrete column , an opposite inward flange (18 i ) with an outer surface (20 i ) turned inwards in the concrete column , and a central web (26 i ) connecting the outward flange (22 i ) to the inward flange (18 i ); said steel reinforced concrete column having a longitudinal axis along which the steel sections (16,) extend, so that the longitudinal axis of each steel section is parallel to the longitudinal axis of the steel reinforced concrete column , said steel reinforced concrete column being characterised in that the steel sections (16 i ) are arranged in the concrete column so that the outer surfaces (20 i ) of their inward flanges (18 i ) delimit therein a central concrete core with n lateral sides and a transversal cross-section that forms an n-sided polygon, n being at least equal to three, each of the n lateral sides of the central concrete core being coplanar with the outer surface (20 i ) of the inward flange (18 i ) of at least one steel section.
A process for micronizing coffee particles, the process comprising: a) preparing an aqueous suspension of coffee particles comprising 1-20% coffee particles and 0.1-30% dissolved water soluble coffee solids and with a total solids content of 40% or less; and b) micronizing the aqueous suspension of coffee particles comprising 1-20% coffee particles and 0.1-30% dissolved water soluble coffee solids and with a total solids content of 40% or less to an average particle size, d 90,3 , of less than 50 micron to produce a suspension of micronized coffee particles; wherein coffee particles in step a) are mixed with soluble coffee solids obtained by a separate extraction of coffee beans with water, and wherein steps a) and b) are conducted at a temperature of 5-50°C. a) preparing an aqueous suspension of coffee particles comprising 1-20% coffee particles and 0.1-30% dissolved water soluble coffee solids and with a total solids content of 40% or less; and b) micronizing the aqueous suspension of coffee particles comprising 1-20% coffee particles and 0.1-30% dissolved water soluble coffee solids and with a total solids content of 40% or less to an average particle size, d 90,3 , of less than 50 micron to produce a suspension of micronized coffee particles;
Device for handling wax spider-like sprues comprising: - a first support forming a first plane, said first support comprising means of supporting a wax spider-like sprue ; - a second support forming a second plane, said first support and said second support forming a first determined angle α1; - first connection means between said first support and said second support ; - a third support forming a third plane, said second support , and said third support forming a second determined angle α2, and - second connection means between said second support and said third support wherein each of the three supports is configurated so that the device can be supported on one of the three supports and that the retaining means include an orifice into which the hinge pin of the wax spider-like sprue can fit. - a first support forming a first plane, said first support comprising means of supporting a wax spider-like sprue ; - a second support forming a second plane, said first support and said second support forming a first determined angle α1; - first connection means between said first support and said second support ; - a third support forming a third plane, said second support , and said third support forming a second determined angle α2, and - second connection means between said second support and said third support
An all-vanadium sulfate acid redox flow battery system comprising: an anolyte comprising V 2+ and V 3+ in an aqueous supporting solution; and a catholyte comprising V 4+ and V 5+ in an aqueous supporting solution; the aqueous supporting solution for each of the anolyte and the catholyte comprising sulfate ions, wherein the sulfate concentration is 4.5-6 M, protons, chloride ions,, and phosphate ions wherein the aqueous supporting solution comprises: 0.05-0.5 M chloride ions; and 0.05-0.5 M phosphate ions. an anolyte comprising V 2+ and V 3+ in an aqueous supporting solution; and a catholyte comprising V 4+ and V 5+ in an aqueous supporting solution; the aqueous supporting solution for each of the anolyte and the catholyte comprising sulfate ions, wherein the sulfate concentration is 4.5-6 M, protons, chloride ions,, and phosphate ions sulfate ions, wherein the sulfate concentration is 4.5-6 M, protons, chloride ions,, and phosphate ions wherein the aqueous supporting solution comprises: 0.05-0.5 M chloride ions; and 0.05-0.5 M phosphate ions. 0.05-0.5 M chloride ions; and 0.05-0.5 M phosphate ions.
A delaminatable container , comprising: a container body ; and a tubular outer case being a resin molded body formed by injection molding and being installed on the container body and containing the container body therein; wherein: the container body comprises an outer shell and an inner bag , and the inner bag shrinks as contents decrease, the container body comprises a body portion and a flanged portion which protrudes from the body portion in a radially outward direction, the outer case comprises a body portion and a supporting portion provided at the inner surface side near the upper end of the body portion of the outer case , the supporting portion being formed by an enlarged diameter of the inner diameter of the body portion at the vicinity of the upper end thereof, the flanged portion of the container body is supported by the supporting portion of the outer case , and a bottom surface of the flanged portion comes into contact with the supporting portion . a container body ; and a tubular outer case being a resin molded body formed by injection molding and being installed on the container body and containing the container body therein; wherein: the container body comprises an outer shell and an inner bag , and the inner bag shrinks as contents decrease, the container body comprises a body portion and a flanged portion which protrudes from the body portion in a radially outward direction, the outer case comprises a body portion and a supporting portion provided at the inner surface side near the upper end of the body portion of the outer case , the supporting portion being formed by an enlarged diameter of the inner diameter of the body portion at the vicinity of the upper end thereof, the flanged portion of the container body is supported by the supporting portion of the outer case , and a bottom surface of the flanged portion comes into contact with the supporting portion . the container body comprises an outer shell and an inner bag , and the inner bag shrinks as contents decrease, the container body comprises a body portion and a flanged portion which protrudes from the body portion in a radially outward direction, the outer case comprises a body portion and a supporting portion provided at the inner surface side near the upper end of the body portion of the outer case , the supporting portion being formed by an enlarged diameter of the inner diameter of the body portion at the vicinity of the upper end thereof, the flanged portion of the container body is supported by the supporting portion of the outer case , and a bottom surface of the flanged portion comes into contact with the supporting portion .
A dispenser for an aerosol container , the dispenser comprising: a fixed platen ; a coupling member provided with two coupling holes through which contents dispensed from two stems of a mounting cup of the aerosol container pass separately; a cover that includes an inner tubular portion configured to surround the two coupling holes and define passages for the contents and that also includes an outer tubular portion configured to cover the mounting cup ; and an application member including a dispensing port through which the contents are dispensed from the inner tubular portion to outside, wherein the cover includes at least one cut-out portion formed by cutting part of the outer tubular portion , and the coupling member includes at least one first tab portion configured to be accommodated in the at least one cut-out portion , characterized in that the fixed platen is configured to be fitted to the mounting cup of the aerosol container including said two stems ; and that the at least one cut-out portion comprises a pair of cut-out portions disposed to sandwich the mounting cup , and the at least one first tab portion comprises a pair of first tab portions disposed in correspondence with the pair of cut-out portions . a fixed platen ; a coupling member provided with two coupling holes through which contents dispensed from two stems of a mounting cup of the aerosol container pass separately; a cover that includes an inner tubular portion configured to surround the two coupling holes and define passages for the contents and that also includes an outer tubular portion configured to cover the mounting cup ; and an application member including a dispensing port through which the contents are dispensed from the inner tubular portion to outside, wherein the cover includes at least one cut-out portion formed by cutting part of the outer tubular portion , and the coupling member includes at least one first tab portion configured to be accommodated in the at least one cut-out portion , characterized in that the fixed platen is configured to be fitted to the mounting cup of the aerosol container including said two stems ; and that the at least one cut-out portion comprises a pair of cut-out portions disposed to sandwich the mounting cup , and the at least one first tab portion comprises a pair of first tab portions disposed in correspondence with the pair of cut-out portions .
A system comprising: a fingerprint sensor having one or more sensing electrodes; and a controller configured to switch the fingerprint sensor between a capacitive sensing mode and an ultrasonic sensing mode and to: provide one or more first drive signals to the one or more sensing electrodes when the fingerprint sensor is in the capacitive sensing mode, and provide one or more second drive signals to the one or more sensing electrodes when the fingerprint sensor is in the ultrasonic sensing mode, the one or more second drive signals different from the one or more first drive signals; wherein the same one or more sensing electrodes are used in both the capacitive sensing mode and the ultrasonic sensing mode. a fingerprint sensor having one or more sensing electrodes; and a controller configured to switch the fingerprint sensor between a capacitive sensing mode and an ultrasonic sensing mode and to: provide one or more first drive signals to the one or more sensing electrodes when the fingerprint sensor is in the capacitive sensing mode, and provide one or more second drive signals to the one or more sensing electrodes when the fingerprint sensor is in the ultrasonic sensing mode, the one or more second drive signals different from the one or more first drive signals; wherein the same one or more sensing electrodes are used in both the capacitive sensing mode and the ultrasonic sensing mode. provide one or more first drive signals to the one or more sensing electrodes when the fingerprint sensor is in the capacitive sensing mode, and provide one or more second drive signals to the one or more sensing electrodes when the fingerprint sensor is in the ultrasonic sensing mode, the one or more second drive signals different from the one or more first drive signals; wherein the same one or more sensing electrodes are used in both the capacitive sensing mode and the ultrasonic sensing mode.
Agricultural implement having a crop pick-up for picking up harvested crop from a surface, a processing unit for processing the harvested crop and a conveyor channel connecting the crop pick-up to the processing unit, characterised by a high-frequency sensor which is arranged to emit electromagnetic high-frequency waves into the conveyor channel and to detect an echo reflected by a foreign body in the conveyor channel .
An air-permeable sheet to be used in a state of being interposed between a flat suction stage and an air-impermeable substrate when printing is performed on the surface of the air-impermeable substrate fixed by suction onto the suction stage, the air-permeable sheet comprising: a non-woven fabric layer being in contact with the air-impermeable substrate; the air-permeable sheet being characterized in that it further comprises a support layer being in contact with the suction stage and formed from a woven fabric or knitted fabric. a non-woven fabric layer being in contact with the air-impermeable substrate; the air-permeable sheet being characterized in that it further comprises a support layer being in contact with the suction stage and formed from a woven fabric or knitted fabric.
A system comprising: a group of n actuators ; a system controller configured to transmit an m number of effect commands in order to produce m number of effect responses by the group of n actuators acting in combination; and an actuator controller configured to control the group of n actuators in order to produce at least one combined effect based on the m effect commands, wherein the n number of actuators is greater than or equal to the m number of effect commands, characterized in that the actuator controller is configured to achieve independent bandwidths for each of the effect responses of the m number of effect responses; wherein each of the effect responses of the m number of effect responses includes a different bandwidth; wherein the independent bandwidth for each of the effect responses of the m number of effect responses is supplied by the system controller , wherein the system controller is configured to modify the bandwidths in real time to achieve the different bandwidths at different times or phases of system operation; and the actuator controller is configured to use estimated reaction torque and rotational speeds of each actuator to maintain the bandwidths of each of the m effect responses in the presence of external actuator loads; wherein the m number of effect responses includes one or more of roll, pitch, or yaw. a group of n actuators ; a system controller configured to transmit an m number of effect commands in order to produce m number of effect responses by the group of n actuators acting in combination; and an actuator controller configured to control the group of n actuators in order to produce at least one combined effect based on the m effect commands, wherein the n number of actuators is greater than or equal to the m number of effect commands, characterized in that the actuator controller is configured to achieve independent bandwidths for each of the effect responses of the m number of effect responses; wherein each of the effect responses of the m number of effect responses includes a different bandwidth; wherein the independent bandwidth for each of the effect responses of the m number of effect responses is supplied by the system controller , wherein the system controller is configured to modify the bandwidths in real time to achieve the different bandwidths at different times or phases of system operation; and the actuator controller is configured to use estimated reaction torque and rotational speeds of each actuator to maintain the bandwidths of each of the m effect responses in the presence of external actuator loads; wherein the m number of effect responses includes one or more of roll, pitch, or yaw.