mhurhangee/ep-ind-claims huggingface dataset:
Fitting device for a vehicle interior, comprising a base and a pivotable part pivotable relative to the base about a pivot axis (a) between a roughly vertical first position and a roughly horizontal second position, wherein the fitting device comprises a device, with a first sliding structure assigned to the base having at least one first sliding surface and a second sliding structure assigned to the pivotable part having at least one second sliding surface, in that the second sliding surface is connected in its movement to the pivotable part and wherein the first sliding surface and/or the second sliding surface is formed at least partially as a ramp, in that at least one sliding surface (21, 22) comprises a projection which is in contact with a sliding surface (21, 22) of the other sliding structure (23, 25) and in that the first sliding surface and/or the second sliding surface forms a sliding track, wherein the device comprises a spring device which loads the first sliding surface and the second sliding surface against one another, characterised in that during the movement of the pivotable part between the first position and the second position the sliding track is travelled by the projection of the respectively other sliding structure (23, 25), in that the device is formed as a brake device, wherein in a region of the movement of the pivotable part, the projection of at least one sliding surface of a sliding structure contacts a ramp of at least one sliding surface of the other sliding structure as a brake.
A method comprising: flowing seawater into a bipolar membrane electrodialysis apparatus; flowing an electrode solution into the bipolar membrane electrodialysis apparatus; applying a voltage to the bipolar membrane electrodialysis apparatus such that the seawater is acidified and basified, and dissolved CO 2 is generated in the acidified process solution; flowing the acidified and basified seawater out of the bipolar membrane electrodialysis apparatus; desorbing the CO 2 out of the acidified seawater; recombining the acidified and basified seawater after desorbing the CO 2 such that the seawater is approximately neutral pH; and returning the neutralized seawater to the ocean. flowing seawater into a bipolar membrane electrodialysis apparatus; flowing an electrode solution into the bipolar membrane electrodialysis apparatus; applying a voltage to the bipolar membrane electrodialysis apparatus such that the seawater is acidified and basified, and dissolved CO 2 is generated in the acidified process solution; flowing the acidified and basified seawater out of the bipolar membrane electrodialysis apparatus; desorbing the CO 2 out of the acidified seawater; recombining the acidified and basified seawater after desorbing the CO 2 such that the seawater is approximately neutral pH; and returning the neutralized seawater to the ocean.
A control method for an inverter air conditioner, comprising: Step 1: operating an inverter compressor at a first frequency for a first duration; Step 2: determining whether a first temperature, which is a temperature of an intelligent power module, IPM, exceeds a first threshold and, if the first temperature does not exceed the first threshold, proceeding to Step 3; otherwise, proceeding to Step 8; Step 3: determining a temperature interval into which a second temperature of the outdoor coil falls, and determining whether the first frequency needs to be adjusted according to the temperature interval and, if the first frequency needs to be adjusted, proceeding to Step 4; otherwise, proceeding to Step 5; Step 4: increasing the first frequency, and operating the inverter compressor at an increased frequency for a first preset duration, and returning to Step 2; Step 5: determining whether an exhaust pressure is below a preset threshold and, if the exhaust pressure is below the preset threshold, proceeding to Step 6; otherwise, proceeding to Step 7; Step 6: reducing the first frequency, and operating the inverter compressor at a reduced frequency for a second preset duration, and then returning to Step 2; Step 7: disabling the inverter compressor; and Step 8: decreasing the first frequency, and operating the inverter compressor at a decreased frequency for a third preset duration, and then returning to Step 2. Step 1: operating an inverter compressor at a first frequency for a first duration; Step 2: determining whether a first temperature, which is a temperature of an intelligent power module, IPM, exceeds a first threshold and, if the first temperature does not exceed the first threshold, proceeding to Step 3; otherwise, proceeding to Step 8; Step 3: determining a temperature interval into which a second temperature of the outdoor coil falls, and determining whether the first frequency needs to be adjusted according to the temperature interval and, if the first frequency needs to be adjusted, proceeding to Step 4; otherwise, proceeding to Step 5; Step 4: increasing the first frequency, and operating the inverter compressor at an increased frequency for a first preset duration, and returning to Step 2; Step 5: determining whether an exhaust pressure is below a preset threshold and, if the exhaust pressure is below the preset threshold, proceeding to Step 6; otherwise, proceeding to Step 7; Step 6: reducing the first frequency, and operating the inverter compressor at a reduced frequency for a second preset duration, and then returning to Step 2; Step 7: disabling the inverter compressor; and Step 8: decreasing the first frequency, and operating the inverter compressor at a decreased frequency for a third preset duration, and then returning to Step 2.
A torque detecting device comprising: magnetic flux concentrating rings (5, 5) which locate outside of a circumference of a magnetic circuit forming member provided in a rotating body (2, 3) to which a torque is exerted, the rings (5, 5) concentrating a magnetic flux generated by the magnetic circuit forming member; a detecting part which detects the torque exerted to the rotating body (2, 3) based on a density of the magnetic flux concentrated by the rings (5, 5); and a holding ring which holds the magnetic flux concentrating rings (5, 5) and the detecting part and includes an attachment portion, which attaches to a stationary substance, on an outer circumference of the holding ring, wherein both end faces (7a, 7b) of the holding ring in an axial direction of the holding ring are parallel to each other, and the attachment portion is provided with a flange between both end faces (7a, 7b), and characterized in that the attachment portion includes a fitting groove in which a sealing ring, which seals the attachment portion and the stationary substance, fits, and wherein the fitting groove is annular along a whole circumference around the attachment portion. magnetic flux concentrating rings (5, 5) which locate outside of a circumference of a magnetic circuit forming member provided in a rotating body (2, 3) to which a torque is exerted, the rings (5, 5) concentrating a magnetic flux generated by the magnetic circuit forming member; a detecting part which detects the torque exerted to the rotating body (2, 3) based on a density of the magnetic flux concentrated by the rings (5, 5); and a holding ring which holds the magnetic flux concentrating rings (5, 5) and the detecting part and includes an attachment portion, which attaches to a stationary substance, on an outer circumference of the holding ring, wherein both end faces (7a, 7b) of the holding ring in an axial direction of the holding ring are parallel to each other, and the attachment portion is provided with a flange between both end faces (7a, 7b), and
Method for dissolving cationic starch, which method comprises - obtaining an aqueous polyelectrolyte solution comprising a synthetic cationic polymer, which has a charge density value of at least 0.1 meq/g, determined at pH 3, the concentration of the synthetic cationic polymer in the polyelectrolyte solution being > 2.5 weight-%, - bringing the aqueous polyelectrolyte solution together with cationic starch having a degree of substitution, DS, > 0.1, and - dissolving the cationic starch to the polyelectrolyte solution by heating and/or mixing. - obtaining an aqueous polyelectrolyte solution comprising a synthetic cationic polymer, which has a charge density value of at least 0.1 meq/g, determined at pH 3, the concentration of the synthetic cationic polymer in the polyelectrolyte solution being > 2.5 weight-%, - bringing the aqueous polyelectrolyte solution together with cationic starch having a degree of substitution, DS, > 0.1, and - dissolving the cationic starch to the polyelectrolyte solution by heating and/or mixing.
A window-conveyor system for manually picking of goods by a picker in accordance with a picking order, wherein the picking order is a customer's order constituted by several order lines including a respective quantity of a linespecific type of article, wherein the system comprises: a conveying device for transporting the goods along a conveying path, wherein the conveying device is movable, preferably continuously and discontinuously, and wherein the conveying device has a conveying area onto which the goods can be deposited; a lighting device configured to indicate order-specifically portion of the conveying area as an order-specific window, by means of light, visually distinguishable from remainder of the conveying area, characterized in that the order-specific window has a variable adjustable order-specific spatial size determined in advance by an order-processing system, wherein the window has a pre-defined length required on the conveying device for collecting, within the order-specific window, the order-specific goods belonging to the picking order assigned to the window; and a controlling device configured to divide the conveying area into the order-specific window and the remainder, and further configured to generate controlling signals for the lighting device, and outputting the same which cause the lighting device to indicate the order-specific window visually distinguishable on the conveying device. a conveying device for transporting the goods along a conveying path, wherein the conveying device is movable, preferably continuously and discontinuously, and wherein the conveying device has a conveying area onto which the goods can be deposited; a lighting device configured to indicate order-specifically portion of the conveying area as an order-specific window, by means of light, visually distinguishable from remainder of the conveying area, characterized in that the order-specific window has a variable adjustable order-specific spatial size determined in advance by an order-processing system, wherein the window has a pre-defined length required on the conveying device for collecting, within the order-specific window, the order-specific goods belonging to the picking order assigned to the window; and a controlling device configured to divide the conveying area into the order-specific window and the remainder, and further configured to generate controlling signals for the lighting device, and outputting the same which cause the lighting device to indicate the order-specific window visually distinguishable on the conveying device.
An ophthalmic apparatus comprising: an ophthalmic device configured for use in at least one of in or on the eye; an electronic system incorporated into the ophthalmic device, the electronic system comprising a control system (104, 106), at least one lens actuator which comprises at least one high-voltage generator (108, 110), and a power system (100, 102) including one or more power sources, the electronic system being configured for low power consumption; and an optic element incorporated into the ophthalmic device, the optic element having an electronically controlled focal length configurable for at least one of vision correction and vision enhancement, the optic element being operatively associated with the electronic system; wherein the at least one high-voltage generator is configured to provide a direct current bias to the optic element and to operate in an open-loop mode; and wherein the optic element is configured to operate in either one of two focal lengths and the lens actuator is configured to operate in corresponding off and on states. an ophthalmic device configured for use in at least one of in or on the eye; an electronic system incorporated into the ophthalmic device, the electronic system comprising a control system (104, 106), at least one lens actuator which comprises at least one high-voltage generator (108, 110), and a power system (100, 102) including one or more power sources, the electronic system being configured for low power consumption; and an optic element incorporated into the ophthalmic device, the optic element having an electronically controlled focal length configurable for at least one of vision correction and vision enhancement, the optic element being operatively associated with the electronic system; wherein the at least one high-voltage generator is configured to provide a direct current bias to the optic element and to operate in an open-loop mode; and wherein the optic element is configured to operate in either one of two focal lengths and the lens actuator is configured to operate in corresponding off and on states.
Novel food product in the form of a food preparation comprising food component and a sauce, intended to be blended for the consumption of the food preparation, in a closed packaging made up of a container wherein food component are placed and a lid wherein the sauce is placed, the sauce being selectively separated from the food component by a seal closing off the part of the lid facing the food component, characterized in that the container comprises mechanic means of tearing of the seal during a relative motion of the lid with respect to the container, between a waiting position of the opening of the seal and a tearing position of the seal, the container being closed in the waiting position of the opening of the seal.
Coupling device for coupling together first and second vehicles (100, 200), the coupling device comprising at least one coupling mechanism and at least one first coupling part external to the coupling mechanism, the coupling device being arranged to selectively adopt a coupled configuration and an uncoupled configuration, in the coupled configuration the coupling mechanism is mechanically connected to said first external coupling part and inhibits this first external coupling part to move away from the coupling mechanism, in the uncoupled configuration, the first external coupling part is distant from said coupling mechanism, the coupling device also comprising a first leg movable with respect to the coupling mechanism between a use position of the first leg and a storage position of the first leg, characterised in that the coupling device comprises a first movement control mechanism of the first leg arranged to control the movement of this first leg from its use position to its storage position when the coupling device passes from its uncoupled configuration to its coupled configuration.
Vehicle door with a cable bushing on a wall, wherein the vehicle door is divided by the wall into a wet chamber side and a dry chamber side, and wherein on the wet chamber side of the wall an electrical component located in a housing is arranged, which component comprises a first electrical connector and a second electrical connector which can be contacted from the wet chamber side, wherein the first and the second connector are connected to one another electrically, characterised in that only the first electrical connector penetrates an opening in the wall and can be contacted from the dry chamber side.
A method of performing a quantum calculation, comprising: applying a first random phase factor e 2 πiθ to an ancillary qubit with a phase gate in a first step; with a controlled unitary gate, applying a second random phase factor e 2 πiMφ to a calculational state comprised of multiple qubits in a subsequent second step; measuring a state of the ancillary qubit with a measurement device to obtain phase information related to the second random phase factor; and calculating an estimated phase α of a phase factor e 2 πiα of the calculational state based at least in part on the measured state of the ancillary qubit, by determining a value for the phase α that maximizes a conditional probability distribution function which is given by one plus the cosine of two π times φ k plus θ i, divided by two, where θ i is either zero or half π and where φ k is a real number modulo 1 represented as a unit-length circle: φ k = k t mod 1, φ k ∈ R / Z, 0 ≤ k < t < 2 m, where m represents the number of bits of accuracy for which φ k is determined, wherein the controlled unitary gate is controlled by the ancillary qubit and is based on an applied unitary operator Y that is equivalent to multiple M applications of a base unitary operator U, Y = U M, wherein M, the multiple applications of the base unitary operator U, has a value that is a positive integer. applying a first random phase factor e 2 πiθ to an ancillary qubit with a phase gate in a first step; with a controlled unitary gate, applying a second random phase factor e 2 πiMφ to a calculational state comprised of multiple qubits in a subsequent second step; measuring a state of the ancillary qubit with a measurement device to obtain phase information related to the second random phase factor; and calculating an estimated phase α of a phase factor e 2 πiα of the calculational state based at least in part on the measured state of the ancillary qubit, by determining a value for the phase α that maximizes a conditional probability distribution function which is given by one plus the cosine of two π times φ k plus θ i, divided by two, where θ i is either zero or half π and where φ k is a real number modulo 1 represented as a unit-length circle: φ k = k t mod 1, φ k ∈ R / Z, 0 ≤ k < t < 2 m, where m represents the number of bits of accuracy for which φ k is determined, wherein the controlled unitary gate is controlled by the ancillary qubit and is based on an applied unitary operator Y that is equivalent to multiple M applications of a base unitary operator U, Y = U M, wherein M, the multiple applications of the base unitary operator U, has a value that is a positive integer.
Use of a compound ("Activated Procaine"), or a solvate or a salt thereof, for labeling or analyzing, an N-glycan, amine-containing amino acid, amine-containing peptide, amine-containing protein, or other amine-containing compound in a sample:
A method for registering multi-channel images of a tissue micro array, said multichannel images including morphological and molecular functional images of the same tissue section of a biological material, wherein a microscope that can acquire both bright field and fluorescent images is used for acquisition of the morphological and molecular functional images, comprising the steps of, providing a biological material on a substrate; applying one or more molecular probes, adapted to provide fluorescent molecular markers, to said biological material; obtaining a first digital image of said biological material and the fluorescent molecular markers to provide the molecular functional image of the tissue section; applying a morphological stain to said biological material; obtaining a second digital image of said biological material to provide the morphological image of the tissue section, and co-registering said second image with said first image based on one or more registration metrics, wherein the first and second images are co-registered by maximizing mutual information of the first image and the second image. providing a biological material on a substrate; applying one or more molecular probes, adapted to provide fluorescent molecular markers, to said biological material; obtaining a first digital image of said biological material and the fluorescent molecular markers to provide the molecular functional image of the tissue section; applying a morphological stain to said biological material; obtaining a second digital image of said biological material to provide the morphological image of the tissue section, and co-registering said second image with said first image based on one or more registration metrics, wherein the first and second images are co-registered by maximizing mutual information of the first image and the second image.
A lubricant composition comprising: (a) at least one organic complex of molybdenum, obtained by reaction: (i) of a fat of the mono-, di- or tri- glyceride or fatty acid type, (ii) of an amine source of formula: wherein X 1 and X 2 are either O or else N, and n and m = 1 when X 1 or X 2 is O and n and m =2 when X 1 or X 2 is N, (iii) and of a source of molybdenum selected from molybdenum trioxide or molybdates, preferentially ammonium molybdate, in a sufficient amount in order to provide 0.1 to 20.0% of molybdenum based on the weight of the complex. (b) at least 0.35% by weight of at least one dimercaptothiadiazole as anti-wear and extreme pressure additives, (c) one or more phosphorus-containing and/or phosphor-sulfur anti-wear and extreme pressure additives selected from phosphites, phosphates, phosphonates, thiophosphates or thiophosphites; said lubricant composition having a molybdenum mass content comprised between 90 and 180 ppm, and a phosphorus mass content comprised between 500 and 700 ppm. (a) at least one organic complex of molybdenum, obtained by reaction: (i) of a fat of the mono-, di- or tri- glyceride or fatty acid type, (ii) of an amine source of formula: wherein X 1 and X 2 are either O or else N, and n and m = 1 when X 1 or X 2 is O and n and m =2 when X 1 or X 2 is N, (iii) and of a source of molybdenum selected from molybdenum trioxide or molybdates, preferentially ammonium molybdate, in a sufficient amount in order to provide 0.1 to 20.0% of molybdenum based on the weight of the complex. (i) of a fat of the mono-, di- or tri- glyceride or fatty acid type, (ii) of an amine source of formula: wherein X 1 and X 2 are either O or else N, and n and m = 1 when X 1 or X 2 is O and n and m =2 when X 1 or X 2 is N, (iii) and of a source of molybdenum selected from molybdenum trioxide or molybdates, preferentially ammonium molybdate, in a sufficient amount in order to provide 0.1 to 20.0% of molybdenum based on the weight of the complex. (b) at least 0.35% by weight of at least one dimercaptothiadiazole as anti-wear and extreme pressure additives, (c) one or more phosphorus-containing and/or phosphor-sulfur anti-wear and extreme pressure additives selected from phosphites, phosphates, phosphonates, thiophosphates or thiophosphites;