mhurhangee/ep-ind-claims huggingface dataset:
Capacitive sensing arrangement having - a capacitive sensor (CapS) for providing a sensor signal (Sin), and - a charge amplifier circuit comprising - an input (In) which is connected to the capacitive sensor (CapS), - a single-input amplifier with an amplifier input (Ina) and an output (Out) to provide an output voltage (Vout) as a function of the sensor signal (Sin), the single-input amplifier comprising a common-source transistor amplifier, - means for providing a bias voltage (Vref) coupled between the input (In) and the amplifier input (Ina) such that the bias voltage (Vref) is subtracted from the sensor signal (Sin), and - a feedback capacitor coupled between the output (Out) and the input (In), the arrangement further comprising switching means (S1, S2, S3, S4, S5) which are adapted to operate the capacitive sensing arrangement in one of two phases, wherein in a reset phase the feedback capacitor is discharged and the bias voltage (Vref) is refreshed, and wherein in a sensing phase a differential sensing reference voltage (Vsense) is supplied to the capacitive sensor (CapS), and the output voltage (Vout) is provided as a function of an amplification of the sensor signal (Sin). - a capacitive sensor (CapS) for providing a sensor signal (Sin), and - a charge amplifier circuit comprising - an input (In) which is connected to the capacitive sensor (CapS), - a single-input amplifier with an amplifier input (Ina) and an output (Out) to provide an output voltage (Vout) as a function of the sensor signal (Sin), the single-input amplifier comprising a common-source transistor amplifier, - means for providing a bias voltage (Vref) coupled between the input (In) and the amplifier input (Ina) such that the bias voltage (Vref) is subtracted from the sensor signal (Sin), and - a feedback capacitor coupled between the output (Out) and the input (In), - an input (In) which is connected to the capacitive sensor (CapS), - a single-input amplifier with an amplifier input (Ina) and an output (Out) to provide an output voltage (Vout) as a function of the sensor signal (Sin), the single-input amplifier comprising a common-source transistor amplifier, - means for providing a bias voltage (Vref) coupled between the input (In) and the amplifier input (Ina) such that the bias voltage (Vref) is subtracted from the sensor signal (Sin), and - a feedback capacitor coupled between the output (Out) and the input (In),
A fuel cell system having at least one fuel cell including an oxidant electrode, a fuel electrode, and an electrolyte membrane interposed between the oxidant electrode and the fuel electrode, the fuel cell system comprising: a temperature detector which detects a temperature of the fuel cell; and a controller which operates the fuel cell, controls a potential of the oxidant electrode, and determines whether to perform a performance recovery operation in which an impurity on the oxidant electrode is oxidized; wherein, when the performance recovery operation is to be performed, the controller operates the fuel cell while controlling the potential of the oxidant electrode to be a desired potential based on the temperature detected by the temperature detector, wherein a relationship between the temperature, the potential, and an operation time is stored data, stored in advance.
A method for optimizing operation of a wind farm, comprising: receiving new values corresponding to at least some wake parameters for wind turbines in the wind farm; identifying new sets of interacting wind turbines from the wind turbines based on the new values; developing a farm-level predictive wake model for the new sets of interacting wind turbines based on the new values and historical wake models determined using historical values of the wake parameters corresponding to reference sets of interacting wind turbines in the wind farm; and adjusting one or more control settings for at least the new sets of interacting wind turbines based on the farm-level predictive wake model; wherein the method further comprises: continually monitoring the wake parameters for the wind turbines; and repeating the receiving, the identifying, the developing, and the adjusting when a change in a monitored value of one or more of the wake parameters is outside a corresponding threshold. receiving new values corresponding to at least some wake parameters for wind turbines in the wind farm; identifying new sets of interacting wind turbines from the wind turbines based on the new values; developing a farm-level predictive wake model for the new sets of interacting wind turbines based on the new values and historical wake models determined using historical values of the wake parameters corresponding to reference sets of interacting wind turbines in the wind farm; and adjusting one or more control settings for at least the new sets of interacting wind turbines based on the farm-level predictive wake model; wherein the method further comprises: continually monitoring the wake parameters for the wind turbines; and repeating the receiving, the identifying, the developing, and the adjusting when a change in a monitored value of one or more of the wake parameters is outside a corresponding threshold. continually monitoring the wake parameters for the wind turbines; and repeating the receiving, the identifying, the developing, and the adjusting when a change in a monitored value of one or more of the wake parameters is outside a corresponding threshold.
Adjustable lighting apparatus for illuminating a room, which lighting apparatus has a) at least one flat light element which contains at least one lighting means, and b) a fastening means to which the at least one flat light element (1, 2) is attached, wherein c) the at least one flat light element can be magnetically attached in at least two positions to the fastening means and/or orientations relative to the fastening means, characterized in that d) the at least one lighting means can be adjusted, in particular can be rotated, in the at least one flat light element with respect to its position and/or orientation in relation to the flat light element, and e) the fastening means has a metal frame which is formed from bars which are arranged in a grid-like manner and by means of which the at least one lighting means can be operated from a power supply which is arranged behind the fastening means. a) at least one flat light element which contains at least one lighting means, and b) a fastening means to which the at least one flat light element (1, 2) is attached, wherein c) the at least one flat light element can be magnetically attached in at least two positions to the fastening means and/or orientations relative to the fastening means, d) the at least one lighting means can be adjusted, in particular can be rotated, in the at least one flat light element with respect to its position and/or orientation in relation to the flat light element, and e) the fastening means has a metal frame which is formed from bars which are arranged in a grid-like manner and by means of which the at least one lighting means can be operated from a power supply which is arranged behind the fastening means.
A method for generating a recommendation on a mobile device, the method comprising the steps of: providing a database of a plurality of scheduled events wherein each of the plurality of scheduled events is associated with event details which comprise the time, date and location of the scheduled event; determining a location of the mobile device; determining a time and a date; comparing the location of the mobile device, the time and the date to the event details of the plurality of scheduled events; determining a matching event from the plurality of scheduled events if, based on the comparison, the event details of the matching event correspond to the location of the mobile device, the time and the date, wherein the recommendation is based on the matching event; associating a default event with the mobile device if, based on the comparison, the event details of the plurality of scheduled events do not correspond to the location of the mobile device, the time and the date, wherein a first venue where the mobile device is located is determined using the location of the mobile device and further wherein the default event is based on a second venue which is a similar venue to the first venue, wherein the recommendation is based on the default event; and transmitting the recommendation to the mobile device. providing a database of a plurality of scheduled events wherein each of the plurality of scheduled events is associated with event details which comprise the time, date and location of the scheduled event; determining a location of the mobile device; determining a time and a date; comparing the location of the mobile device, the time and the date to the event details of the plurality of scheduled events; determining a matching event from the plurality of scheduled events if, based on the comparison, the event details of the matching event correspond to the location of the mobile device, the time and the date, wherein the recommendation is based on the matching event; associating a default event with the mobile device if, based on the comparison, the event details of the plurality of scheduled events do not correspond to the location of the mobile device, the time and the date, wherein a first venue where the mobile device is located is determined using the location of the mobile device and further wherein the default event is based on a second venue which is a similar venue to the first venue, wherein the recommendation is based on the default event; and transmitting the recommendation to the mobile device.
A motor including a housing, a cover, a rotating shaft, and a cooling fan, wherein the housing has a surrounding wall defining therein an inner space with a front opening and has a rear closure wall opposite to the front opening, the rear closure wall defining a central hole and a plurality of outlet holes; the cover, which closes the front opening of the housing, has a central hub defining a central hole and has a peripheral portion integrally formed around the central hub; the rotating shaft is mounted across the inner space of the housing, the rotating shaft having a first end which is inserted through the central hole of the rear closure wall and having a second end which is inserted through the central hole of the central hub of the cover; the cooling fan is fixed to the second end of the rotating shaft, so that the cooling fan is rotated together with the rotating shaft; wherein the peripheral portion of the cover is provided with an air collecting ring around the central hub and defines a plurality of first inlet holes between the air collecting ring and the central hub, whereby a central portion of a whirling, ongoing air current generated by the cooling fan can flow through the space between the air collecting ring and the central hub of the cover and then flow through the first inlet holes of the cover to enter the inner space of the housing and finally flow out of the housing via the outlet holes for dissipating the heat generated in the housing, characterized in that the surrounding wall of the housing defines a plurality of second inlet holes; the cover is provided at an outer rim of its peripheral portion with a plurality of wind-catching projections, each of which is formed as a bulging layer having a roof and two slant walls (252, 253) at two opposite sides of the roof, the two slant walls (252, 253) formed integrally with the peripheral portion of the cover, thus defining an air guiding channel between the roof, the two slant walls (252, 253), and the peripheral portion of the cover, the cover being installed to the housing such that each of the wind-catching projections is located above one of the second inlet holes and each of the air guiding channels faces towards the cooling fan; whereby an outer portion of the air current generated by the cooling fan can flow through the air guiding channels and the second inlet holes to enter the inner space of the housing for dissipating the heat generated in the housing.
A method for producing a surface-modified metal electrode, comprising the steps of: bringing a surface modifier for a metal electrode comprising a reactive silyl compound represented by General Formula into contact with a surface of the metal electrode, and thereby obtaining a surface-modified metal electrode, Rf-X-A-SiR 1 3-n (OR 2) n wherein, Rf is an aryl group having 6 to 10 carbon atoms that may have an alkyl substituent having 1 to 5 carbon atoms, wherein at least one hydrogen atom is replaced with a fluorine atom, X represents a divalent group selected from -O-, -NH-, -C(=O)O-, -C(=O)NH-, - OC(=O)NH-, and -NHC(=O)NH-, or a single bond, A represents a straight chain, branched chain or cyclic aliphatic divalent hydrocarbon group having 1 to 10 carbon atoms or an aromatic divalent hydrocarbon group having 6 to 10 carbon atoms, R 1 is a monovalent hydrocarbon group having 1 to 3 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 3 carbon atoms, an acetyl group, a propanoyl group, or a hydrogen atom, and n is an integer of 1 to 3. Rf is an aryl group having 6 to 10 carbon atoms that may have an alkyl substituent having 1 to 5 carbon atoms, wherein at least one hydrogen atom is replaced with a fluorine atom, X represents a divalent group selected from -O-, -NH-, -C(=O)O-, -C(=O)NH-, - OC(=O)NH-, and -NHC(=O)NH-, or a single bond, A represents a straight chain, branched chain or cyclic aliphatic divalent hydrocarbon group having 1 to 10 carbon atoms or an aromatic divalent hydrocarbon group having 6 to 10 carbon atoms, R 1 is a monovalent hydrocarbon group having 1 to 3 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 3 carbon atoms, an acetyl group, a propanoyl group, or a hydrogen atom, and n is an integer of 1 to 3.
An in-wheel motor drive unit being adapted to be placed in an inner space region of a road wheel, characterized by comprising: a motor portion that is placed on one side in a direction of an axis of said in-wheel motor drive unit; a wheel hub portion that is placed on the other side in said direction of said axis of said in-wheel motor drive unit; a speed reduction portion that is placed between said motor portion and said wheel hub portion and that reduces a speed of output rotation of said motor portion to transmit the resultant output rotation to said wheel hub portion; and a first arm portion that is formed integrally with a speed reduction portion casing forming an outer shape of said speed reduction portion, that projects in a direction perpendicular to said axis from said speed reduction portion casing, and that has its tip end pivotally couplable to a vehicle body-side member via a ball joint, wherein said first arm portion projects in a direction perpendicular to said axis so that said first arm portion is adapted to be extended to a position outside the road wheel, and wherein said first arm portion is adapted to project in an upward direction of the vehicle from said speed reduction portion casing, and wherein said first arm portion is separated from the motor portion. a motor portion that is placed on one side in a direction of an axis of said in-wheel motor drive unit; a wheel hub portion that is placed on the other side in said direction of said axis of said in-wheel motor drive unit; a speed reduction portion that is placed between said motor portion and said wheel hub portion and that reduces a speed of output rotation of said motor portion to transmit the resultant output rotation to said wheel hub portion; and a first arm portion that is formed integrally with a speed reduction portion casing forming an outer shape of said speed reduction portion, that projects in a direction perpendicular to said axis from said speed reduction portion casing, and that has its tip end pivotally couplable to a vehicle body-side member via a ball joint, wherein said first arm portion projects in a direction perpendicular to said axis so that said first arm portion is adapted to be extended to a position outside the road wheel, and wherein said first arm portion is adapted to project in an upward direction of the vehicle from said speed reduction portion casing, and wherein said first arm portion is separated from the motor portion.
A method for labeling an immune cell, comprising: bringing a measurement target immune cell into contact with an immunostimulator; forming a contact surface with a substance different from the measurement target immune cell on the measurement target immune cell; eliminating the contact surface; and labeling the measurement target immune cell by bringing the measurement target immune cell into contact with a capturing body that binds to a surface antigen on the contact surface and is capable of generating an optical signal. bringing a measurement target immune cell into contact with an immunostimulator; forming a contact surface with a substance different from the measurement target immune cell on the measurement target immune cell; eliminating the contact surface; and labeling the measurement target immune cell by bringing the measurement target immune cell into contact with a capturing body that binds to a surface antigen on the contact surface and is capable of generating an optical signal.
A storage system, comprising at least two devices (210,220, 230, 240, 250, 260, 270), wherein the at least two devices are connected together in series, the at least two devices comprise a first device (210, 220) and a second device (220, 230), each of the first device and the second device comprises a programmable chip (212, 222) and an expander chip (211, 221), the programmable chip is configured to perform baseboard management for the first device and the second device, and the expander chip (211, 221) is configured to process a storage service, a first programmable chip of the first device and a second programmable chip of the second device are connected together in series by a communication cable (130, 140), the second device is configured to be in a sleep state, and the sleep state means that only the second programmable chip is in a power-on state; the first programmable chip is configured to send a wakeup instruction to the second programmable chip; and the second programmable chip is configured to: receive the wakeup instruction sent by the first programmable chip, and control, based on the wakeup instruction, the second device to enter a working state, wherein the working state means that all elements of the second device are in the power-on state.
A method for determining the positions of a plurality of fans (V n,m) for generating an air flow in a preferably closed room, which have a speed sensor for determining their position, wherein the fans (V n,m) are arranged in rows (R 1, R 2,..., R n) and columns (S 1, S 2,..., S m), wherein at least the position (i, j) of one fan (V i,j) is known, the method comprising the following steps: a) Driving the at least one fan (V i,j) the position of which is known in order to initiate a rotation of at least those fans (V n,m) which are arranged in an adjacent row or column position; b) Detecting the speed of the fans (V n,m) driven by the air flow generated in this manner using a detector and controller and determining the potential neighborhood positions of these fans based on an iterative exclusion algorithm, c) Wherein the steps a) and b) are repeated for the fans (V n,m) respectively determined after step b) until all positions (n,m) of the fans have been determined. a) Driving the at least one fan (V i,j) the position of which is known in order to initiate a rotation of at least those fans (V n,m) which are arranged in an adjacent row or column position; b) Detecting the speed of the fans (V n,m) driven by the air flow generated in this manner using a detector and controller and determining the potential neighborhood positions of these fans based on an iterative exclusion algorithm, c) Wherein the steps a) and b) are repeated for the fans (V n,m) respectively determined after step b) until all positions (n,m) of the fans have been determined.
A method for conveying cores automatically to a slitter-winder (11, 12) comprising a driving side from which the cores are conveyed to the slitter-winder; an inner side and an outer side where a web which has been slit is wound on the cores as customer rolls; on the inner side a vertically moveable safety gate (15', 15", 21', 21") having a lower position which forms a safety position and an upper position which allows movement in the area; and a core magazine (14', 14", 20', 20") supported on the safety gate; and in which slitter-winder each core is kept in place at both ends by their own core spindles against one winding roll, wherein the cores are conveyed in a direction along the core axis, outside the safety gate, from the driving side of the slitter-winder in a horizontal plane above the safety gate (15', 15", 21', 21") which is located in the safety position to the point of, i.e. to the front of, the safety gate, and the cores are conveyed further to the core magazines (14', 14", 20', 20") by a motion performed in a substantially transverse direction in relation to the core axis.
A refrigerator, comprising: a body having a storage compartment (21, 22); a door (30, 40, 41) to open/close the storage compartment (21, 22); an ice making device disposed at a ceiling of the storage compartment (21, 22) to generate ice; an ice storage compartment provided at the door (30, 40, 41); an ice bucket mounted at the ice storage compartment to store the ice generated at the ice making device; and an ice detecting sensor, including an emitter to radiate optical signals and a receiver to receive optical signals, and configured to detect an ice level status at the ice bucket, the ice detecting sensor provided at the ice storage compartment and positioned at an outside of the ice bucket, wherein the ice storage compartment comprises an ice storage compartment body and an ice bucket mounting space formed inside the ice storage compartment body, and characterized in that one of the emitter and the receiver is installed at a left side wall or a right side wall of the ice storage compartment body, and the remaining one of the emitter and the receiver is installed at a rear wall of the ice storage compartment body, so that an optical path in between the emitter and the receiver is diagonally formed. a body having a storage compartment (21, 22); a door (30, 40, 41) to open/close the storage compartment (21, 22); an ice making device disposed at a ceiling of the storage compartment (21, 22) to generate ice; an ice storage compartment provided at the door (30, 40, 41); an ice bucket mounted at the ice storage compartment to store the ice generated at the ice making device; and an ice detecting sensor, including an emitter to radiate optical signals and a receiver to receive optical signals, and configured to detect an ice level status at the ice bucket, the ice detecting sensor provided at the ice storage compartment and positioned at an outside of the ice bucket, wherein the ice storage compartment comprises an ice storage compartment body and an ice bucket mounting space formed inside the ice storage compartment body, and characterized in that one of the emitter and the receiver is installed at a left side wall or a right side wall of the ice storage compartment body, and the remaining one of the emitter and the receiver is installed at a rear wall of the ice storage compartment body, so that an optical path in between the emitter and the receiver is diagonally formed.