mhurhangee/ep-ind-claims huggingface dataset:
A motor vehicle having a body, with a body opening formed in the body, in the rear of the vehicle, wherein a boot lid or a luggage compartment door is arranged swivelably on a roof portion of the body in the body opening, wherein the boot lid has a body portion and a rear window pane, with at least one seal which is arranged on the body opening to seal the boot lid or the luggage compartment door, wherein lateral profiles (11, 12) which are spaced apart laterally from one another are configured on the boot lid or on the luggage compartment door, characterised in that the lateral profiles (11, 12) have a respective cavity, in that a respective device (22; 23, 24, 25) is arranged in the cavity for raising and/or lowering the boot lid or the luggage compartment door, and in that the respective device (22; 23, 24, 25) is connected between the roof portion of the body and the boot lid or the luggage compartment door.
A method for producing a vinyl alcohol-vinyl acetate copolymer comprising a unit of vinyl alcohol and a unit of vinyl acetate, the vinyl alcohol-vinyl acetate copolymer having a randomness value R of 0.5 or higher, the randomness value R being obtained using the following equation: R = 1 L A + 1 L O where L O represents a mean chain length of the unit of vinyl alcohol and L A represents a mean chain length of the unit of vinyl acetate, the method comprising the step of: transesterification of polyvinyl acetate or a raw material vinyl alcohol-vinyl acetate copolymer using a dianionic zincate complex represented by the following formula: t − Bu n R 4 − n ZnM m where n represents an integer of 1 to 4, m represents 1 or 2, Rs may be the same as or different from one another when n represents 1 or 2 and each represent a C1-C8 alkyl, alkenyl, aryl, or arylalkyl group, and when M represents lithium, m represents 2 and when M represents magnesium, m represents 1.
A power source connector device, comprising: a first connector including a first housing and first terminals; and a second connector including a second housing and second terminals for contacting with the first terminals, wherein said second housing includes a space for accommodating the first housing when the first connector is connected to the second connector, said second terminals are situated in the space, said first housing includes an outer wall portion, said second housing includes an inner wall portion for abutting against the outer wall portion of said first housing when the first connector is connected to the second connector, said outer wall portion includes a first engaging portion, said inner wall portion includes a second engaging portion for engaging with the first engaging portion when the first connector is connected to the second connector, and said first engaging portion is extended from the first housing, wherein the power source connector device further comprises a member that is configured to support the first engaging portion, wherein the member that is configured to support the first engaging portion is disposed, when the first connector is connected to the second connector, in a space formed between the second terminals, characterized in that said first engaging portion is configured to be elastically displaceable by including an elastic engaging piece capable of deforming elastically and which is supported on the first housing accommodated in the space for accommodating the first housing, and wherein the first engaging portion is continuously joined to an operating portion for releasing an engaged state where the first connector is locked on the second connector through engagement of the second engaging portion with the first engaging portion by means of moving the operating portion. a first connector including a first housing and first terminals; and a second connector including a second housing and second terminals for contacting with the first terminals, wherein said second housing includes a space for accommodating the first housing when the first connector is connected to the second connector, said second terminals are situated in the space, said first housing includes an outer wall portion, said second housing includes an inner wall portion for abutting against the outer wall portion of said first housing when the first connector is connected to the second connector, said outer wall portion includes a first engaging portion, said inner wall portion includes a second engaging portion for engaging with the first engaging portion when the first connector is connected to the second connector, and said first engaging portion is extended from the first housing,
A method of providing spatial channel state information for multiple-input multiple-output technologies having transmitting equipment and receiving equipment, the method comprising: measuring spatial channel state information at the receiving equipment, resulting in a CSI; decomposing the CSI, resulting in at least a first component CSI and a second component CSI; quantizing the first component CSI and the second component CSI using one or more of a plurality of codebooks, resulting in at least a first index and a second index; and feeding back the first index and the second index to the transmitting equipment, characterized in that the quantizing comprises calculating a distance measured as MSE = 1 N 2 ‖ ∑ i = 1 N | λ i | 2 v ̃ i v ̃ i H − R ULA / Pol ‖ 2 Frobenius, where ṽ i is a i-th quantized eigenvector of a spatial channel H which corresponds to the i-th column of a codeword, | λ i | 2 is a i-th eigenvalue of one of a first component matrix R ULA and a second component matrix R Pol, and N is the number of transmitter antennas. measuring spatial channel state information at the receiving equipment, resulting in a CSI; decomposing the CSI, resulting in at least a first component CSI and a second component CSI; quantizing the first component CSI and the second component CSI using one or more of a plurality of codebooks, resulting in at least a first index and a second index; and feeding back the first index and the second index to the transmitting equipment, characterized in that the quantizing comprises calculating a distance measured as MSE = 1 N 2 ‖ ∑ i = 1 N | λ i | 2 v ̃ i v ̃ i H − R ULA / Pol ‖ 2 Frobenius, where ṽ i is a i-th quantized eigenvector of a spatial channel H which corresponds to the i-th column of a codeword, | λ i | 2 is a i-th eigenvalue of one of a first component matrix R ULA and a second component matrix R Pol, and N is the number of transmitter antennas.
A method of brake actuator operation sensor error compensation comprising: polling, by an aircraft electro-mechanical brake actuator controller, a plurality of inputs comprising at least one of: a plurality of load cell forces; a plurality of current sensor currents; and a plurality of position sensor positions; performing, by the controller, a conformance test in response to the polling; rejecting, by the controller, non-conforming inputs in response to the conformance test; and outputting, by the controller, a compensation signal to a command force controller; wherein the command force controller comprises the aircraft electro-mechanical brake actuator controller; and wherein the conformance test comprises: performing a least squares fit of the plurality of inputs whereby non-conforming inputs are identified for rejection. a plurality of load cell forces; a plurality of current sensor currents; and a plurality of position sensor positions; performing, by the controller, a conformance test in response to the polling; rejecting, by the controller, non-conforming inputs in response to the conformance test; and outputting, by the controller, a compensation signal to a command force controller; wherein the command force controller comprises the aircraft electro-mechanical brake actuator controller; and wherein the conformance test comprises: performing a least squares fit of the plurality of inputs whereby non-conforming inputs are identified for rejection.
Method for producing ground elements comprising the steps: positioning at least one jet grouting tool on a ground area, wherein the jet grouting tool has at least one nozzle directed downwards, moving the jet grouting tool along the ground area, while the jet is activated, wherein a suspension is injected downwards into the ground. positioning at least one jet grouting tool on a ground area, wherein the jet grouting tool has at least one nozzle directed downwards, moving the jet grouting tool along the ground area, while the jet is activated, wherein a suspension is injected downwards into the ground.
Smoke treatment module presented as a single enclosure comprising one inlet and one outlet, respectively comprising an inlet for the smoke to be treated, and a treated smoke outlet, the said enclosure comprising at least three elements including a cooling boiler connected to the smoke inlet, a reagent storage and dosing device, and a filter connected to the smoke outlet, the said boiler and the said filter being separated by an enclosure volume defined by the enclosure walls, the boiler outlet and the filter inlet, and the said reagent storage and dosing device, arranged for adding the reagents into the said volume.
A method to determine the ability of a piece of equipment to modulate its consumption and/or its production of a resource, the method comprising the steps: - transmitting on a communication network shared between a plurality of pieces of equipment a message requesting the provision of a resource consumption and/or production modulation offer; - determining for at least one piece of equipment an intrinsic modulation ability value, the value being representative of the innate ability of said at least one piece of equipment to modify, over a limited interval of time, its consumption and/or its production of said resource, said value being calculated according to static, dynamic and real time data of said at least one piece of equipment; and - receiving on the communication network a modulation message indicating, according to the calculated intrinsic ability value, a modulation offer for said at least one piece of equipment to increase or reduce its consumption or its production of said resource. - transmitting on a communication network shared between a plurality of pieces of equipment a message requesting the provision of a resource consumption and/or production modulation offer; - determining for at least one piece of equipment an intrinsic modulation ability value, the value being representative of the innate ability of said at least one piece of equipment to modify, over a limited interval of time, its consumption and/or its production of said resource, said value being calculated according to static, dynamic and real time data of said at least one piece of equipment; and - receiving on the communication network a modulation message indicating, according to the calculated intrinsic ability value, a modulation offer for said at least one piece of equipment to increase or reduce its consumption or its production of said resource.
A propeller arrangement comprising a propeller and a duct provided in front of the propeller, characterized in that a diameter (Ddout) of the rear end of the duct is set from 20% to 40% of a diameter (Dp) of the propeller, a propeller blade root is set from 20% to 40 % of the diameter (Dp) of the propeller, a propeller pitch is a decreasing pitch which reduces in a radial direction of the propeller, and which becomes a maximum value at the propeller blade root and becomes a minimum value at a blade tip and the maximum value (Hmax) of the propeller pitch is set from 120% to 160% of the minimum value (Hmin) of the propeller pitch.
An energy storage device managing apparatus that is configured to estimate a degradation amount of a full charge capacity of an energy storage device, the energy storage device managing apparatus comprising: a measurement unit that is configured to measure a temperature of the energy storage device in a power supply state in which power is supplied to the energy storage device managing apparatus; a timing unit that is configured to measure time in a power non-supply state in which the power is not supplied to the energy storage device managing apparatus; and a controller, wherein the controller is configured to perform interpolation based on a first temperature measured immediately before the energy storage device becomes the power non-supply state, and a second temperature initially measured after the energy storage device returns to the power supply state, wherein the controller is configured to divide a period from the measurement time of the first temperature to the measurement time of the second temperature into predetermined sampling times, wherein the controller is configured to estimate a temperature in each predetermined sampling time based on the interpolation, and to estimate the degradation amount of the full charge capacity by determining the degradation amount in each predetermined sampling time based on the temperature estimated in each predetermined sampling time. a measurement unit that is configured to measure a temperature of the energy storage device in a power supply state in which power is supplied to the energy storage device managing apparatus; a timing unit that is configured to measure time in a power non-supply state in which the power is not supplied to the energy storage device managing apparatus; and a controller, wherein the controller is configured to perform interpolation based on a first temperature measured immediately before the energy storage device becomes the power non-supply state, and a second temperature initially measured after the energy storage device returns to the power supply state, wherein the controller is configured to divide a period from the measurement time of the first temperature to the measurement time of the second temperature into predetermined sampling times, wherein the controller is configured to estimate a temperature in each predetermined sampling time based on the interpolation, and to estimate the degradation amount of the full charge capacity by determining the degradation amount in each predetermined sampling time based on the temperature estimated in each predetermined sampling time.
A check valve (1; 5) comprising: a housing member inside which a fluid passage is formed; and a valve member disposed inside the housing member, the housing member including a valve seat part provided on an inner circumference surface of the housing member, the valve member including a valve disk seated in a sealable manner on a seat surface of the valve seat part, a pressing member (22; 26) supported by the housing member and biasing the valve disk toward the seat surface of the valve seat part, and a valve driving member connected to the valve disk and driving the valve disk against pressing force of the pressing member (22; 26), and an operating member configured to be capable of operating the valve driving member such that the valve disk of the valve member moves apart from the seat surface of the valve seat part being provided, wherein the valve driving member includes a pressing piece, and a shaft extending from the pressing piece toward the valve disk to be connected to the valve disk, the operating member includes a pair of flap parts facing each other supported by the housing member through hinge parts, and the pair of flap parts include inclined parts sandwiching the pressing piece and allowing the pressing piece to slide, wherein ribs are provided on an inner surface of both flap parts, the ribs coming in contact with sides of the pressing piece and guide the movement of the pressing piece when the pair of flap parts sandwich the pressing piece.
A bi-stable solenoid electrical switch comprising: a solenoid bobbin forming a solenoid by being wound with coil windings, the solenoid bobbin having a central aperture defined therein, and the coil windings, which when engaged by a power source, generate a magnetic field; a magnetic coupling member mounted on the solenoid surrounding at least a portion of the central aperture; a plunger at least partially disposed in the central aperture for rotation and axial reciprocation between at least two positions into and out of the central aperture relative to the solenoid and the magnetic coupling member; and a conductive plate coupled to the plunger and provided with contacts on each end of the conductive plate, the conductive plate configured to electrically engage and disengage the solenoid upon respective application of power to the solenoid, the magnetic field latching and unlatching the plunger between the at least two positions; characterized in that the bi-stable solenoid electrical switch further comprises a first spring configured to receive the plunger and disposed between the magnetic coupling member and the conductive plate, the first spring configured to overcome the force of the magnetic coupling member needed to retain the solenoid in the closed position and displacing the plunger back to an alternative one of the at least two positions when the power source is disengaged from the solenoid; wherein the magnetic coupling member is configured to reduce a force needed by the magnetic field for allowing the solenoid to remain in a closed position when selectively energized for operating in a constant current mode for allowing a wide operating voltage and reduced operating power, the magnetic coupling member retaining the plunger in one of the at least two positions. a solenoid bobbin forming a solenoid by being wound with coil windings, the solenoid bobbin having a central aperture defined therein, and the coil windings, which when engaged by a power source, generate a magnetic field; a magnetic coupling member mounted on the solenoid surrounding at least a portion of the central aperture; a plunger at least partially disposed in the central aperture for rotation and axial reciprocation between at least two positions into and out of the central aperture relative to the solenoid and the magnetic coupling member; and a conductive plate coupled to the plunger and provided with contacts on each end of the conductive plate, the conductive plate configured to electrically engage and disengage the solenoid upon respective application of power to the solenoid, the magnetic field latching and unlatching the plunger between the at least two positions; characterized in that the bi-stable solenoid electrical switch further comprises a first spring configured to receive the plunger and disposed between the magnetic coupling member and the conductive plate, the first spring configured to overcome the force of the magnetic coupling member needed to retain the solenoid in the closed position and displacing the plunger back to an alternative one of the at least two positions when the power source is disengaged from the solenoid;
A method for high throughput glycan analysis, comprising: loading a plurality of glycoprotein samples in a plurality of loading wells; denaturing the glycoprotein samples in the loading wells using a denaturing solution; cleaving a glycan from each of the denatured glycoprotein samples in the loading wells using a glycan cleaving enzyme; labeling the cleaved glycans with a charged fluorescent label; applying an electric field configured to migrate the labeled glycans from the loading wells across an ion permeable membrane and into and along one of a plurality of capillaries arranged in correspondence with the loading wells, each of the capillaries including a first portion including a stacking gel, including between 4% to 8% acrylamide, and a second portion including a resolving gel, including between 25% and 35% acrylamide; exciting the labeled glycans migrating along the capillaries with a light source adapted to cause the labeled glycans to emit fluorescent radiation; detecting fluorescent radiation emitted by the labeled glycans; and analyzing the labeled glycans based on the detected fluorescent radiation. loading a plurality of glycoprotein samples in a plurality of loading wells; denaturing the glycoprotein samples in the loading wells using a denaturing solution; cleaving a glycan from each of the denatured glycoprotein samples in the loading wells using a glycan cleaving enzyme; labeling the cleaved glycans with a charged fluorescent label; applying an electric field configured to migrate the labeled glycans from the loading wells across an ion permeable membrane and into and along one of a plurality of capillaries arranged in correspondence with the loading wells, each of the capillaries including a first portion including a stacking gel, including between 4% to 8% acrylamide, and a second portion including a resolving gel, including between 25% and 35% acrylamide; exciting the labeled glycans migrating along the capillaries with a light source adapted to cause the labeled glycans to emit fluorescent radiation; detecting fluorescent radiation emitted by the labeled glycans; and analyzing the labeled glycans based on the detected fluorescent radiation.
Support stocking configured for therapeutic compression and for exerting a pressure of at least 10 mm Hg on the ankle of the user during use, wherein the support stocking is made of elastic material with an upper end comprising one or more hooking provisions for manual pulling on of the support stocking, wherein the hooking provision comprises an opening through the material of the upper end of the support stocking, wherein the opening takes the form of a slit (9,9') having a longitudinal direction extending in radial orientation on the support stocking and a reinforcing structure -arranged around a part of the slit (9,9'), wherein a slit has a form and dimensions such that two or more fingers at the same time, can be inserted therein.
A system for remotely controlling access to an interface for an industrial equipment with a dongle, the system comprising: an authorizing workstation; and a user workstation communicatively coupled to the authorizing workstation through a network; wherein the user workstation is configured to write to the dongle a program code that includes a received dongle ID, the received dongle ID being provided to the authorizing workstation by the user workstation; and wherein said program code is to be executed on said interface. an authorizing workstation; and a user workstation communicatively coupled to the authorizing workstation through a network; wherein the user workstation is configured to write to the dongle a program code that includes a received dongle ID, the received dongle ID being provided to the authorizing workstation by the user workstation; and
Electric plug connector, for use at higher temperatures, such as those required for use in fire protection applications, comprising an electrical connection part for the holding of electric conductors to be connected to one another by means of a connector terminal and a casing (2, 2.1) suitable for the temperature requirements, retaining the connection part, wherein the electrical connection part is configured as a spring-loaded terminal, characterised in that the electrical connection part is located in a plastic housing, said plastic housing being arranged in a positive fit in the casing (2, 2.1) and made of a temperature-resistant material, wherein the electrical connection part with its plastic housing is retained by the temperature-resistant casing (2, 2.1) in such a way that the electrical connection part is held in the casing (2, 2.1) in such a way that it cannot be lost, even if the plastic housing is destroyed or burnt due to the effect of temperature.
A broadband inspection device, comprising a deep ultraviolet light energy source and an optical fiber arrangement (102, 301) comprising a core surrounded by a plurality of optical fibers used to frequency broaden DUV energy received from the DUV light energy source into frequency broadened DUV radiation; wherein the frequency broadened radiation is employed as an illumination source for inspecting a semiconductor wafer.