mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an electronic device, performed by an execution device, comprising: detecting a first strength of a wireless signal transmitted from a control device; receiving second strengths of the wireless signal, the second strengths being sent from each of other execution devices receiving the wireless signal transmitted from the control device; comparing the first strength and the second strengths in response to a first determination that the first strength is higher than a preset strength; acquiring a control instruction in the wireless signal in response to a second determination that the first strength is higher than each of the second strengths; and performing processing according to the control instruction after the control instruction is acquired, wherein whether to process the control instruction is determined according to whether a time length for which said wireless signal is continuously received exceeds a preset time length. detecting a first strength of a wireless signal transmitted from a control device; receiving second strengths of the wireless signal, the second strengths being sent from each of other execution devices receiving the wireless signal transmitted from the control device; comparing the first strength and the second strengths in response to a first determination that the first strength is higher than a preset strength; acquiring a control instruction in the wireless signal in response to a second determination that the first strength is higher than each of the second strengths; and performing processing according to the control instruction after the control instruction is acquired, wherein whether to process the control instruction is determined according to whether a time length for which said wireless signal is continuously received exceeds a preset time length.
A system for facilitating fluid connection between a blood pump and a circulatory system of a patient, comprising: a cannula having proximal and distal ends, the distal end of the cannula adapted to be in fluid communication with the circulatory system, the proximal end of the cannula configured to couple to an inlet of the blood pump; and a tunneling device configured to be inserted into a body of a patient to direct the proximal end of the cannula adjacent to the inlet for connection thereto; wherein the cannula further comprises a first connecting structure; and the tunneling device further comprises a second connecting structure, the first and second connecting structures being selectively engageable to allow in situ connection and disconnection between the cannula and tunneling device. a cannula having proximal and distal ends, the distal end of the cannula adapted to be in fluid communication with the circulatory system, the proximal end of the cannula configured to couple to an inlet of the blood pump; and a tunneling device configured to be inserted into a body of a patient to direct the proximal end of the cannula adjacent to the inlet for connection thereto; wherein the cannula further comprises a first connecting structure; and the tunneling device further comprises a second connecting structure, the first and second connecting structures being selectively engageable to allow in situ connection and disconnection between the cannula and tunneling device.
A memory disk drive device comprising a motor for causing a memory disk to rotate, an insulating bushing for protecting a lead of the motor when the lead is connected to a circuit board; a carriage being molded integrally with a coil for driving a swing arm provided with a pickup head for reading or writing information on the memory disk on a distal end thereof, and the carriage adapted for balancing the weight of the swing arm; a ramp for retracting the pickup head when the memory disk stops; and a housing for housing the motor, the insulating bushing, the carriage, and the ramp; the memory disk drive device characterized in that: the insulating bushing is a molded resin article made from an amorphous resin, a crystalline resin, or a liquid crystal polymer resin, wherein the amorphous resin is a polycarbonate resin, the crystalline resin is at least one resin selected from among polyphenylene sulfide resins, polyamide resins, polyether ether ketone resins, and polyimide resins, and the liquid crystal polymer resin is an aromatic polyester resin; each of the lead and a winding wound around a stator core of the motor is a urethane wire; and the molded resin article has 30 ppm or less of outgas as measured using headspace gas chromatography upon sealing 5 g of the molded resin article in air in a tightly sealed 20-mL container and leaving the article to stand at a temperature of 120°C for 20 hours. the insulating bushing is a molded resin article made from an amorphous resin, a crystalline resin, or a liquid crystal polymer resin, wherein the amorphous resin is a polycarbonate resin, the crystalline resin is at least one resin selected from among polyphenylene sulfide resins, polyamide resins, polyether ether ketone resins, and polyimide resins, and the liquid crystal polymer resin is an aromatic polyester resin; each of the lead and a winding wound around a stator core of the motor is a urethane wire; and the molded resin article has 30 ppm or less of outgas as measured using headspace gas chromatography upon sealing 5 g of the molded resin article in air in a tightly sealed 20-mL container and leaving the article to stand at a temperature of 120°C for 20 hours.
An apparatus comprising: a power connector configured to be disposed along an outer surface of a fuselage of an aircraft that is configured to electrically couple electrical power received from a ground system to an onboard power bus of the aircraft characterized by: a power sensor electrically coupled to the power connector that is configured to measure electrical characteristics of the electrical power received from the ground system, the electrical characteristics comprising a frequency, a phase, and a voltage; and a controller that is configured to receive measurements of the electrical characteristics from the power sensor, and to prevent the ground system from electrically coupling with the onboard power bus in response to any of of the measured electrical characteristics being different than a corresponding electrical target value by a first threshold amount; wherein the electrical target value comprises: 400 Hertz in response to the electrical characteristics comprising a frequency; 3-phase in response to the electrical characteristics comprising a phase; and 115 Volts Root Mean Square in response to the electrical characteristics comprising a voltage. a power connector configured to be disposed along an outer surface of a fuselage of an aircraft that is configured to electrically couple electrical power received from a ground system to an onboard power bus of the aircraft characterized by: a power sensor electrically coupled to the power connector that is configured to measure electrical characteristics of the electrical power received from the ground system, the electrical characteristics comprising a frequency, a phase, and a voltage; and a controller that is configured to receive measurements of the electrical characteristics from the power sensor, and to prevent the ground system from electrically coupling with the onboard power bus in response to any of of the measured electrical characteristics being different than a corresponding electrical target value by a first threshold amount; a power sensor electrically coupled to the power connector that is configured to measure electrical characteristics of the electrical power received from the ground system, the electrical characteristics comprising a frequency, a phase, and a voltage; and a controller that is configured to receive measurements of the electrical characteristics from the power sensor, and to prevent the ground system from electrically coupling with the onboard power bus in response to any of of the measured electrical characteristics being different than a corresponding electrical target value by a first threshold amount; wherein the electrical target value comprises: 400 Hertz in response to the electrical characteristics comprising a frequency; 3-phase in response to the electrical characteristics comprising a phase; and 115 Volts Root Mean Square in response to the electrical characteristics comprising a voltage. 400 Hertz in response to the electrical characteristics comprising a frequency; 3-phase in response to the electrical characteristics comprising a phase; and 115 Volts Root Mean Square in response to the electrical characteristics comprising a voltage.
Machine comprising: - conveying means, to convey a substrate along a conveying direction, - a device for discharging particle material, such as powder material, granules or capsules, or in general a free-flowing material, such as, for example, adhesive material, onto said substrate moving along said conveying direction, - said device comprising at least one drum rotor having a plurality of cavities (E1, E2,...) suitable for carrying the material to be deposited, said drum rotor being placed adjacent to the substrate, with the axis of the drum rotor substantially parallel to said conveying direction, - means of controlling a rotation of the drum rotor around the axis thereof, said machine being characterized in that the aforesaid cavities are arranged on the drum rotor, whereby, in operation, the rotary motion of the drum rotor, in combination with the motion of the substrate along said conveying direction, causes each cavity, when it is closest to the substrate, to follow a helical path relative to a reference point that moves with the substrate. - conveying means, to convey a substrate along a conveying direction, - a device for discharging particle material, such as powder material, granules or capsules, or in general a free-flowing material, such as, for example, adhesive material, onto said substrate moving along said conveying direction, - said device comprising at least one drum rotor having a plurality of cavities (E1, E2,...) suitable for carrying the material to be deposited, said drum rotor being placed adjacent to the substrate, with the axis of the drum rotor substantially parallel to said conveying direction, - means of controlling a rotation of the drum rotor around the axis thereof,
Device for capturing operating data of a motor-driven tool, wherein the device is designed for arrangement on the tool, wherein the device has: - a capture and/or evaluation device (3, 4), wherein the capture and/or evaluation device (3, 4) is designed to capture at least one quantity, wherein the quantity is dependent on an operating state of the tool, and to evaluate the captured quantity for the purpose of ascertaining the operating data, and/or to capture operating data, - an operating data memory, wherein the operating data memory is designed to store the ascertained and/or captured operating data, and/or a communication interface, wherein the communication interface is designed to transmit the operating data wirelessly to a terminal, - wherein the capture and/or evaluation device (3, 4), the operating data memory and/or the communication interface is/are designed to draw electric power from an electrochemical energy store during operation, characterised in that - the device has an operating mode control device, wherein the operating mode control device is designed to operate the capture and/or evaluation device (3, 4), the operating data memory and/or the communication interface at a temperature above a temperature limit value (Tlimit) in a normal temperature operating mode and at a temperature equal to or below the temperature limit value (Tlimit) in a low temperature operating mode, which is different from the normal temperature operating mode, such that less electric power is drawn from the electrochemical energy store in the low temperature operating mode than in the normal temperature operating mode. - a capture and/or evaluation device (3, 4), wherein the capture and/or evaluation device (3, 4) is designed to capture at least one quantity, wherein the quantity is dependent on an operating state of the tool, and to evaluate the captured quantity for the purpose of ascertaining the operating data, and/or to capture operating data, - an operating data memory, wherein the operating data memory is designed to store the ascertained and/or captured operating data, and/or a communication interface, wherein the communication interface is designed to transmit the operating data wirelessly to a terminal, - wherein the capture and/or evaluation device (3, 4), the operating data memory and/or the communication interface is/are designed to draw electric power from an electrochemical energy store during operation, - the device has an operating mode control device, wherein the operating mode control device is designed to operate the capture and/or evaluation device (3, 4), the operating data memory and/or the communication interface at a temperature above a temperature limit value (Tlimit) in a normal temperature operating mode and at a temperature equal to or below the temperature limit value (Tlimit) in a low temperature operating mode, which is different from the normal temperature operating mode, such that less electric power is drawn from the electrochemical energy store in the low temperature operating mode than in the normal temperature operating mode.
Method for producing a monolithic diode laser arrangement comprising a multiplicity of individual emitters which are arranged next to one another on a common carrier substrate and which each have contact windows (19, 20) for electrical contacting, which contact windows are arranged on the respective individual emitters on a front side opposite the carrier substrate, each individual emitter comprising a multilayer epistructure which is applied to an episubstrate in such a manner that the episubstrate is not completely covered by the epistructure and the epistructure comprises at least one p-doped cladding layer and at least one n-doped cladding layer, wherein a p-contact window for making electrical contact with the p-doped cladding layer is arranged on the front side of the epistructure and an n-contact window for making electrical contact with the n-doped cladding layer is arranged on the front side of the episubstrate in the region in which the episubstrate is not covered by the epistructure, wherein the formation of the spatially coherent structure determining the arrangement of the individual emitters on the carrier substrate takes place in a structuring step in which the individual structures associated with the individual emitters are formed from a multilayer base support comprising a carrier substrate without the individual structures being detached from the carrier substrate, and the front sides of the individual structures opposite the carrier substrate are provided for forming contact windows (19, 20), characterized in that the base support is formed from at least two layer structures (1, 2) which are bonded to one another in a bonding step by means of bonding, and the monolithic diode laser arrangement is formed by means of singling by scribing and cleaving the spatially coherent structure in a direction perpendicular to trenches separating the individual structures.
A screen device for a laptop computer, comprising: a back cover; a fixing body mounted on the back cover; a liquid crystal screen received on the fixing body; and a cover plate mounted on the fixing body; and characterised in that the cover plate entirely covers the liquid crystal screen and the fixing body, and the area of the cover plate corresponding to the liquid crystal screen is transparent, and the cover plate covers the front of the back cover to entirely cover components in the back cover. a back cover; a fixing body mounted on the back cover; a liquid crystal screen received on the fixing body; and a cover plate mounted on the fixing body;
A method for producing anhydrosugar alcohol comprising the step of converting hydrogenated sugar to anhydrosugar alcohol by dehydration reaction, wherein 50 % by weight or more of the hydrogenated sugar is derived from a product of hydrogenation reaction of hydrol, and wherein the hydrol is the mother liquor remaining after glucose production by crystallizing crude glucose liquid to form glucose crystals and filtering the resulting product to obtain glucose crystals, and the product of hydrogenation reaction of hydrol has a sorbitol content of 80 to 88 % by weight.
Electrical switch comprising contacts which are mobile through actuation of a first rotation shaft and comprising a control mechanism for the mobile contacts which is situated in a housing and which can be rearmed via a second rotation shaft, characterized in that: - the first rotation shaft passes through a first wall (2, 3) of the housing and the switch comprises a first rotation sensor which is coupled with the first rotation shaft outside of the housing, so as to measure the angular displacement of the first rotation shaft, - the second rotation shaft passes through a second wall (2, 3) of the housing and the switch comprises a rearming module (25, 26) which is removably fixed outside of the housing against the second wall (2, 3), so as to be coupled with the second rotation shaft to be able to rearm the control mechanism. - the first rotation shaft passes through a first wall (2, 3) of the housing and the switch comprises a first rotation sensor which is coupled with the first rotation shaft outside of the housing, so as to measure the angular displacement of the first rotation shaft, - the second rotation shaft passes through a second wall (2, 3) of the housing and the switch comprises a rearming module (25, 26) which is removably fixed outside of the housing against the second wall (2, 3), so as to be coupled with the second rotation shaft to be able to rearm the control mechanism.
An electro-optic element, comprising a first waveguide which is a plasmonic waveguide comprising - a first core comprising a ferroelectric material (101, 201, 301, 401, 1001); and - a cladding comprising a first cladding portion comprising, at a first interface with the ferroelectric material, a first cladding material (102, 202, 202', 203, 302, 402, 402', 870, 1002) having a permittivity having a negative real part; the element comprising a first and a second electrode (102, 202, 202', 203, 302, 402, 402', 1002) for producing an electric field (110, 210, 310, 410, 1010) in the ferroelectric material when a voltage is applied between the first and second electrodes, for modulating at least a real part of a refractive index of the ferroelectric material, the element comprising, in addition, a crystalline substrate (105, 205, 306, 406, 1006) on which the ferroelectric material is grown with zero or one or more intermediate layers (107-109, 203, 207-209, 309, 409) present between the substrate and the ferroelectric material, wherein the one or more intermediate layers, if present, are grown on the substrate, the substrate and the first core being stacked in a direction referred to as vertical direction, and directions perpendicular to the vertical direction are referred to as lateral directions, characterized in that the element comprises, in addition, a second waveguide (104, 107, 108; 204, 207, 208; 530, 830) which is a photonic waveguide for coupling light guided in the second waveguide into the first waveguide, so as to excite in the first waveguide modes which can be guided in the first waveguide, wherein the second waveguide is arranged on the substrate. - a first core comprising a ferroelectric material (101, 201, 301, 401, 1001); and - a cladding comprising a first cladding portion comprising, at a first interface with the ferroelectric material, a first cladding material (102, 202, 202', 203, 302, 402, 402', 870, 1002) having a permittivity having a negative real part;
Three-point mounted machine with a set-down device, in particular spreader, wherein the set-down device has support legs which are each arranged in the lateral region of the machine, on the frame thereof, by means of a joint arrangement and are pivotable about a joint axis, which runs in the direction of travel, between a set-down position and at least one non-set-down position, wherein holders with running wheels arranged rotatably thereon are arranged at least at some of the lower ends of the support legs, characterized in that a cover plate is arranged on the holder at least on the one side of the respective running wheel, in that the respective cover plate is arranged on that side of the running wheels which faces upwards in the non-set-down position and covers the inner and outer region of said running wheels, in that the respective cover plate at least in the contact region of the respective running wheel does not protrude over the outer circumference of the running wheel in the contact region of the running wheel in the set-down position of the support leg.
A Non-Linear Voltammetry, NLV, -based method for charging a battery system, said method comprising steps for charging said battery system, every of said charging step including steps of: - setting said battery system to a certain charging-voltage value which is non-linearly changing and gradually increasing at every step, during a variable step duration, - measuring the current being drawn by said battery system, to determine a time-derivative ∂ I ∂ t of charge current and monitor a drop-rate of said drawn current, - measuring temperature within said battery system, - applying a relaxation with charging kept on hold and zero current to said battery system to stabilize with its new charge, whenever said measured temperature rises above a safety limit, for a time duration until resume when an expected temperature range is secured, - determining a next charging-voltage value for new charging step, by applying for the previous step duration a time-derivative of voltage ∂ v ∂ t that is a calculated from the following equation: Kn = ∂ v ∂ t ∂ I ∂ t α where: - Kn is changed at every step, based on a set of parameters including a State of Charge, SOC, and a State of Health, SOH, of said battery system; - α is an adjustable constant, to match non- linear relations between current and voltage based on different types of battery, - ∂ I ∂ t is an average value of the time derivative of the drawn current during said previous charging step. - setting said battery system to a certain charging-voltage value which is non-linearly changing and gradually increasing at every step, during a variable step duration, - measuring the current being drawn by said battery system, to determine a time-derivative ∂ I ∂ t of charge current and monitor a drop-rate of said drawn current, - measuring temperature within said battery system, - applying a relaxation with charging kept on hold and zero current to said battery system to stabilize with its new charge, whenever said measured temperature rises above a safety limit, for a time duration until resume when an expected temperature range is secured, - determining a next charging-voltage value for new charging step, by applying for the previous step duration a time-derivative of voltage ∂ v ∂ t that is a calculated from the following equation: Kn = ∂ v ∂ t ∂ I ∂ t α - Kn is changed at every step, based on a set of parameters including a State of Charge, SOC, and a State of Health, SOH, of said battery system; - α is an adjustable constant, to match non- linear relations between current and voltage based on different types of battery, - ∂ I ∂ t is an average value of the time derivative of the drawn current during said previous charging step.