mhurhangee/ep-ind-claims huggingface dataset:
A cab for a utility vehicle, preferably a truck, comprising: a cab support structure which at least partially forms a body shell of the cab; and at least one towing device which is integrated into the cab support structure, preferably on a front side of the cab support structure, characterized in that the at least one towing device is integrated in a cab floor structure of the cab support structure. a cab support structure which at least partially forms a body shell of the cab; and at least one towing device which is integrated into the cab support structure, preferably on a front side of the cab support structure, characterized in that the at least one towing device is integrated in a cab floor structure of the cab support structure.
A cartilage conduction audio system comprising: a transducer assembly (120, 220, 260, 310) configured to be coupled to a first portion of a back of an auricle of an ear of a user, the transducer assembly (120, 220, 260, 310) including at least one transducer that is configured to vibrate the auricle over a frequency range to cause the auricle to create an airborne acoustic pressure wave in accordance with vibration instructions, wherein the airborne acoustic pressure wave corresponds to, and is for, presentation of audio content to the user; an acoustic sensor (125, 225, 275, 320) configured to detect the airborne acoustic pressure wave at an entrance of the ear of the user; and a controller (130, 330) configured to: dynamically adjust a frequency response model based in part on the detected airborne acoustic pressure wave; update the vibration instructions using the adjusted frequency response model; and provide the updated vibration instructions to the transducer assembly (120, 220, 260, 310). a transducer assembly (120, 220, 260, 310) configured to be coupled to a first portion of a back of an auricle of an ear of a user, the transducer assembly (120, 220, 260, 310) including at least one transducer that is configured to vibrate the auricle over a frequency range to cause the auricle to create an airborne acoustic pressure wave in accordance with vibration instructions, wherein the airborne acoustic pressure wave corresponds to, and is for, presentation of audio content to the user; an acoustic sensor (125, 225, 275, 320) configured to detect the airborne acoustic pressure wave at an entrance of the ear of the user; and a controller (130, 330) configured to: dynamically adjust a frequency response model based in part on the detected airborne acoustic pressure wave; update the vibration instructions using the adjusted frequency response model; and provide the updated vibration instructions to the transducer assembly (120, 220, 260, 310). dynamically adjust a frequency response model based in part on the detected airborne acoustic pressure wave; update the vibration instructions using the adjusted frequency response model; and provide the updated vibration instructions to the transducer assembly (120, 220, 260, 310).
Threaded disc as an abutment disc for a biasing element, preferably a spring, in a valve, preferably a load-holding valve or shock valve, wherein the threaded disc has an external thread which is formed in the circumferential surface of the threaded disc and a plurality of threads, wherein the threaded disc has a central passage opening, which passes centrally through the threaded disc along a passage direction and is coaxial with an axis of symmetry of the threaded disc perpendicular to an end face of the threaded disc, at least one further passage opening which passes completely through the threaded disc along the passage direction, and a further opening in addition to the at least one passage opening and the central passage opening, and wherein the threaded disc comprises an adjustment lock with an expanding element for expanding the threaded disc, characterised in that the adjustment lock further comprises a groove formed in the circumferential surface along the passage direction, which is oriented transversely to the external thread and is in contact with the opening which completely passes through the threaded disc along the passage direction, wherein the expanding element is arranged in the opening and generates a specific expansion of the threaded disc perpendicular to the passage direction as a function of its penetration depth in the opening.
A medical device, comprising: a vascular access device further comprising a rotationally activated flow control valve, said flow control valve comprising, a body including a distal adapter and a proximal adapter defining a lumen extending therethrough; a septum interposedly positioned between said distal adapter and said proximal adapter, said septum having a slit extending through said septum, said slit having two opposing slit surfaces, a contact portion of each of said two opposing slit surfaces being in contact when the septum is in a closed position, wherein said septum at least substantially seals said lumen said septum further comprising at least two holes (31, 32), characterized by at least two posts (50, 51) coupled to at least one of said proximal adapter and said distal adapter, wherein said posts are mated with said holes when said valve is in the closed position, wherein rotation of one of said proximal adapter or said distal adapter in relation to the other repositions said posts (50, 51) within said opening which results in the activation of said valve. a vascular access device further comprising a rotationally activated flow control valve, said flow control valve comprising, a body including a distal adapter and a proximal adapter defining a lumen extending therethrough; a septum interposedly positioned between said distal adapter and said proximal adapter, said septum having a slit extending through said septum, said slit having two opposing slit surfaces, a contact portion of each of said two opposing slit surfaces being in contact when the septum is in a closed position, wherein said septum at least substantially seals said lumen said septum further comprising at least two holes (31, 32), characterized by at least two posts (50, 51) coupled to at least one of said proximal adapter and said distal adapter, wherein said posts are mated with said holes when said valve is in the closed position, wherein rotation of one of said proximal adapter or said distal adapter in relation to the other repositions said posts (50, 51) within said opening which results in the activation of said valve.
Linear drive, comprising - at least one gear rack, which is arranged along a longitudinal axis and comprises numerous teeth, - a drive shaft, which is arranged transversally to the longitudinal axis in a transverse axis, and - at least two propulsion elements, each of which having at least one propulsion tooth, - wherein the at least two propulsion elements are drivingly coupled to the drive shaft such that the at least two propulsion elements carry out at least one cyclical stroke movement in the course of a rotation (φ) of the drive shaft and are driven into and out of the at least one gear rack in order to generate a propulsion force in the longitudinal axis, and - wherein the driving into and out of at least one gear rack of the at least two propulsion elements takes place with a phase shift (Δφ), characterized in that the at least two propulsion elements are linearly moveable in a stroke axis which is oriented transversally to the longitudinal axis and transversally to the drive shaft. - at least one gear rack, which is arranged along a longitudinal axis and comprises numerous teeth, - a drive shaft, which is arranged transversally to the longitudinal axis in a transverse axis, and - at least two propulsion elements, each of which having at least one propulsion tooth, - wherein the at least two propulsion elements are drivingly coupled to the drive shaft such that the at least two propulsion elements carry out at least one cyclical stroke movement in the course of a rotation (φ) of the drive shaft and are driven into and out of the at least one gear rack in order to generate a propulsion force in the longitudinal axis, and - wherein the driving into and out of at least one gear rack of the at least two propulsion elements takes place with a phase shift (Δφ),
An evaporator for an ice maker, comprising: an evaporator body having a refrigerant flow path formed therein; a dipping member connected to the evaporator body, for a refrigerant having a temperature lower than a freezing point of water to flow in the refrigerant flow path to generate ice in a state in which at least a portion of the dipping member is submerged in water; a heater having at least a portion inserted into the refrigerant flow path, and directly or indirectly heating at least one of the refrigerant in the refrigerant flow path, the evaporator body, and the dipping member to separate the ice generated on the dipping member from the dipping member; and a connection member connecting the evaporator body and the refrigerant flow path to be connected to a refrigeration cycle, and inserting the at least a portion of the heater into the refrigerant flow path, characterized in that, a connection space connected to the refrigerant flow path is formed in the dipping member, the dipping member comprises a partition member partitioning the connection space into a refrigerant inflow path into which the refrigerant flows from the refrigerant flow path and a refrigerant outflow path from which the refrigerant flows into the refrigerant flow path, the partition member at least partially passes through the refrigerant flow path to extend to the evaporator body, the partition member is at least partially in contact with the dipping member and the evaporator body and a portion of the partition member extending to the evaporator body is at least partially in contact with the heater. an evaporator body having a refrigerant flow path formed therein; a dipping member connected to the evaporator body, for a refrigerant having a temperature lower than a freezing point of water to flow in the refrigerant flow path to generate ice in a state in which at least a portion of the dipping member is submerged in water; a heater having at least a portion inserted into the refrigerant flow path, and directly or indirectly heating at least one of the refrigerant in the refrigerant flow path, the evaporator body, and the dipping member to separate the ice generated on the dipping member from the dipping member; and a connection member connecting the evaporator body and the refrigerant flow path to be connected to a refrigeration cycle, and inserting the at least a portion of the heater into the refrigerant flow path, characterized in that, a connection space connected to the refrigerant flow path is formed in the dipping member, the dipping member comprises a partition member partitioning the connection space into a refrigerant inflow path into which the refrigerant flows from the refrigerant flow path and a refrigerant outflow path from which the refrigerant flows into the refrigerant flow path, the partition member at least partially passes through the refrigerant flow path to extend to the evaporator body, the partition member is at least partially in contact with the dipping member and the evaporator body and a portion of the partition member extending to the evaporator body is at least partially in contact with the heater.
A method for detecting a response of a live cell comprising: (a) contacting a live cell to a cell capture array device, wherein said cell capture array device comprises a solid support substrate and a cell capture surface containing a plurality of cell-philic sites arranged thereon; (b) capturing the live cell in one of said plurality of cell-philic sites; (c) inducing the release of an inducible-release stimulus into said one of said plurality of cell-philic sites; and (d) detecting a response of said live cell, wherein each cell-philic site further comprises a cell capture moiety, and wherein each cell-philic site is adapted to capture an individual live cell, and wherein the cell capture array device further comprises a cell phobic coating between the cell-philic sites, and wherein the cell-philic sites protrude such that they occupy more vertical space than the cell-phobic surface of the cell capture array device. (a) contacting a live cell to a cell capture array device, wherein said cell capture array device comprises a solid support substrate and a cell capture surface containing a plurality of cell-philic sites arranged thereon; (b) capturing the live cell in one of said plurality of cell-philic sites; (c) inducing the release of an inducible-release stimulus into said one of said plurality of cell-philic sites; and (d) detecting a response of said live cell,
Material transport compartment comprising a body comprising a bottom wall and two side walls extending in the longitudinal direction and delimiting a storage space, a tank to contain the liquid extending in the storage space in the lower part and a bulk storage space to contain a bulk material in the upper part, above the tank and between the side walls, the bulk storage space being open at the top, the tank being insertable in the storage space from the top to rest on the bottom wall of the body fitting tightly between the side walls, the compartment comprising a retention system to prevent the tank from sliding in the storage space, characterised by the fact the retention system comprises crosspieces fixed to the tank transversely and protruding from one wall of the tank, the crosspieces resting on the bottom wall, the retention system also comprising flanges fixed to the bottom wall protruding from it and interlocking with the crosspieces to limit the longitudinal movement of the tank along the bottom wall.
A system for connecting two tubes (12, 12') together end to end, the system comprising a clamping collar having a clamping band suitable for being tightened around the abutting ends (12A, 12'A) of the two tubes (12, 12'), the collar having a retaining tab that presents a fastener portion whereby said retaining tab is fastened to the band of the collar and that extends substantially axially towards an attachment portion of said retaining tab whereby said retaining tab is suitable for being attached to the first tube in the vicinity of its first end, characterized in that the retaining tab presents an undulation situated between its fastener portion and its attachment portion. characterized in that the retaining tab presents an undulation situated between its fastener portion and its attachment portion.
A method for monitoring input power supplied to a power supply by an AC power source, while operating the power supply the method comprising the steps of: measuring the line frequency of the AC power source within the power supply; measuring a voltage of the AC power source within the power supply, wherein the power supply comprises an EMI filter and wherein frequency and voltage are measured before rectification at locations within the power supply that are protected by the EMI filter; retrieving formula coefficient values from a memory wherein the coefficient values indicate a relationship between the input power to the power supply and observed power values at a power monitor within the power supply; and calculating power compensation factors based on the measured line frequency, the measured line voltage and the retrieved formula coefficient values. measuring the line frequency of the AC power source within the power supply; measuring a voltage of the AC power source within the power supply, wherein the power supply comprises an EMI filter and wherein frequency and voltage are measured before rectification at locations within the power supply that are protected by the EMI filter; retrieving formula coefficient values from a memory wherein the coefficient values indicate a relationship between the input power to the power supply and observed power values at a power monitor within the power supply; and calculating power compensation factors based on the measured line frequency, the measured line voltage and the retrieved formula coefficient values.
Vehicle test stand, wherein the vehicle test stand is a roller test stand, wherein the rollers (102, 103, 106, 107, 108, 109, 301, 401) of the roller test stand are part of in each case one lane of the vehicle test stand, wherein the lanes are configured in such a way that the vehicle to be tested is supportively carried during the movement along the lane, wherein the rollers (102, 103, 106, 107, 108, 109, 301, 401) of the roller test stand are configured as individual rollers (301, 401), which can be positioned in the longitudinal direction of the lane, wherein the positioning can be conducted dependent upon the distance between axles or the axle position of a vehicle to be tested, and wherein supporting elements (104, 105) are provided, which are segmented as individual elements (104, 105) in the longitudinal direction of the lane, as well as are arranged in front of and/or behind the mentioned individual rollers (102, 103, 106, 107, 108, 109), characterized in that adjustment means are provided, by means of which these supporting elements (104, 105) can be moved laterally out of the lane and be moved into the lane in order to position the mentioned individual rollers (102, 103, 106, 107, 108, 109, 301, 401). wherein the rollers (102, 103, 106, 107, 108, 109, 301, 401) of the roller test stand are part of in each case one lane of the vehicle test stand, wherein the lanes are configured in such a way that the vehicle to be tested is supportively carried during the movement along the lane, wherein the rollers (102, 103, 106, 107, 108, 109, 301, 401) of the roller test stand are configured as individual rollers (301, 401), which can be positioned in the longitudinal direction of the lane, wherein the positioning can be conducted dependent upon the distance between axles or the axle position of a vehicle to be tested, and wherein supporting elements (104, 105) are provided, which are segmented as individual elements (104, 105) in the longitudinal direction of the lane, as well as are arranged in front of and/or behind the mentioned individual rollers (102, 103, 106, 107, 108, 109), which are segmented as individual elements (104, 105) in the longitudinal direction of the lane, as well as are arranged in front of and/or behind the mentioned individual rollers (102, 103, 106, 107, 108, 109),
Hull with variable geometry for a vessel, comprising one or more completely immersed parts, which are configured to provide part of the buoyancy thrust and are integral with an emerged part of the hull by means of one or more uprights, and one or more immersed wing surfaces, which, in a situation in which the vessel travels at a sufficiently high speed, are configured to provide the remaining part of the vertical thrust required to keep the vessel above the surface of the water at a predetermined height, wherein the hull comprises one or more supports (16a, 16b, 16c) connected to the wing surfaces and associated with floating elements (17a, 17b, 17c) which are mobile with respect to said completely immersed part, said floating elements (17a, 17b, 17c) being fixed to said supports (16a, 16b, 16c) or mobile with respect to said supports (16a, 16b, 16c), said floating elements (17a, 17b, 17c) thus being substantially cooperating with said completely immersed part and with said wing surfaces, said floating elements (17a, 17b, 17c) being connected to said completely immersed part through said wing surfaces, said wing surfaces being configured to move with respect to said completely immersed part or to remain fixed with respect thereto and said floating elements (17a, 17b, 17c) being configured to increase their immersion as the speed of the vessel decreases, and therefore provide the vertical thrust to maintain or adjust the distance of the vessel from the water in a manner that is optimal and functional for the use of the vessel even at reduced speeds or when the vessel is stationary.
An indexable cutting insert comprising: two opposing end surfaces with a peripheral side surface and a central axis extending therebetween, a median plane located between the two opposing end surfaces, exactly three cutting portions, each cutting portion having a major cutting edge extending from one end surface to the other end surface, exactly three abutment recesses in the peripheral side surface, and a central boss protruding from at least one of the two opposing end surfaces, wherein each central boss has a raised support surface located axially further away from the median plane than any point on the three major cutting edges located on the same side of the median plane, wherein in an end view of the cutting insert each of the three abutment recesses is visible and located inside a first imaginary circle circumscribing the central boss; wherein each of the three major cutting edges is formed by the intersection of a rake surface and a clearance surface, and wherein the rake and clearance surfaces (32, 34) are located on the peripheral side surface; wherein each of the three cutting portions has a radial plane containing the central axis and a first point on its respective major cutting edge, and wherein each radial plane forms an acute internal clearance angle (α) with a straight imaginary clearance line (L C) tangential to the clearance surface immediately adjacent its respective first point, characterised in that the acute clearance angle (α) has a value equal to or greater than 75 degrees. two opposing end surfaces with a peripheral side surface and a central axis extending therebetween, a median plane located between the two opposing end surfaces, exactly three cutting portions, each cutting portion having a major cutting edge extending from one end surface to the other end surface, exactly three abutment recesses in the peripheral side surface, and a central boss protruding from at least one of the two opposing end surfaces, wherein each central boss has a raised support surface located axially further away from the median plane than any point on the three major cutting edges located on the same side of the median plane, wherein in an end view of the cutting insert each of the three abutment recesses is visible and located inside a first imaginary circle circumscribing the central boss; wherein each of the three major cutting edges is formed by the intersection of a rake surface and a clearance surface, and wherein the rake and clearance surfaces (32, 34) are located on the peripheral side surface; wherein each of the three cutting portions has a radial plane containing the central axis and a first point on its respective major cutting edge, and wherein each radial plane forms an acute internal clearance angle (α) with a straight imaginary clearance line (L C) tangential to the clearance surface immediately adjacent its respective first point, characterised in that the acute clearance angle (α) has a value equal to or greater than 75 degrees.
A method for preparing an organic rare-earth solid micelle, comprising: taking a small organic conjugated ligand as a first ligand and an amphiphilic diblock polymer as a second ligand, mixing and doping the first ligand and the second ligand with a rare-earth chloride solution, and self-assembling to form an organic rare-earth solid micelle; wherein the small organic conjugated ligand is 2-thenoyltrifluoroacetone, acetylacetone, salicylic acid, or dibenzoyl methane, wherein the amphiphilic diblock polymer is polymethyl methacrylate-b-polyacrylic acid (PMMA-b-PAA); wherein the molar ratio of the small organic conjugated ligand:rare-earth chloride:amphiphilic diblock polymer is 3:1:1; and wherein the small organic conjugated ligand:rare-earth chloride:amphiphilic diblock polymer are subjected to complexation reaction for 5-10 hrs in an oil bath at 50-70°C, to obtain a solution of an organic rare-earth solid micelle that is a complex having a size of 10-20 nm.