mhurhangee/ep-ind-claims huggingface dataset:
A micro-electro-mechanical switch comprising: a bottom actuation electrode having a bottom electrical contact disposed thereon; a cantilever layer comprising a support beam having a portion operably attached to said bottom actuation electrode, a top actuation electrode adjacent to said support beam and distal from said attached portion, and a contact beam adjacent to said top actuation electrode and distal from said support beam, wherein said support beam has a low spring constant and said contact beam has a high spring constant, and said top actuation electrode is rigid relative to the support beam and the contact beam, wherein the top actuation electrode includes a stopper disposed on the top actuation electrode, wherein said stopper is able to maintain a predetermined gap between said top actuation electrode and said bottom actuation electrode when said switch is in a collapsed state during application of an activation voltage; and a top electrical contact disposed on said contact beam, wherein application of said activation voltage between said electrodes causes a contact force between said electrical contacts; wherein said low spring constant is between 50 Newtons per meter and 150 Newtons per meter; and wherein said high spring constant is between 5,000 Newtons per meter and 15,000 Newtons per meter. a bottom actuation electrode having a bottom electrical contact disposed thereon; a cantilever layer comprising a support beam having a portion operably attached to said bottom actuation electrode, a top actuation electrode adjacent to said support beam and distal from said attached portion, and a contact beam adjacent to said top actuation electrode and distal from said support beam, wherein said support beam has a low spring constant and said contact beam has a high spring constant, and said top actuation electrode is rigid relative to the support beam and the contact beam, wherein the top actuation electrode includes a stopper disposed on the top actuation electrode, wherein said stopper is able to maintain a predetermined gap between said top actuation electrode and said bottom actuation electrode when said switch is in a collapsed state during application of an activation voltage; and a top electrical contact disposed on said contact beam, wherein application of said activation voltage between said electrodes causes a contact force between said electrical contacts; wherein said low spring constant is between 50 Newtons per meter and 150 Newtons per meter; and wherein said high spring constant is between 5,000 Newtons per meter and 15,000 Newtons per meter.
A load support structure for a loading vehicle comprising - at least one load bearing member having a flat load support surface extending along a length of the load bearing member, - at least one mounting element for coupling said load bearing member, to said loading vehicle in substantially horizontal orientation, characterized in that said load bearing member is configured to be rotationally coupled relative said loading vehicle by means of said mounting element, so that said load bearing member is rotationally adjustable around its longitudinal axis, wherein the load support structure is configured such that when a load is arranged against said flat load support surface, said load bearing member assumes an angle substantially the same as the angle in which the load is arranged against the load bearing member relative the loading vehicle. - at least one load bearing member having a flat load support surface extending along a length of the load bearing member, - at least one mounting element for coupling said load bearing member, to said loading vehicle in substantially horizontal orientation,
Method implemented by a computer, in which an electronic certificate certifies the correspondence between an identity of the signer and a signature key of the signer, the method being characterized in that it includes an association step of a FIDO public key of a FIDO equipment of the signer, the equipment being compatible with the FIDO protocol, with the signature public key of the signer within the electronic certificate, such that the electronic certificate comprises a mention of the FIDO public key of the FIDO equipment of the signer to certify the correspondence between the FIDO public key of the equipment of the signer and the signature public key of the signer.
Cosmetic or dermatological preparations in emulsion form, comprising combinations of a) honokiol and magnolol or magnolia bark extract having an effective content of honokiol and magnolol and b) sodium stearyl sulfate. a) honokiol and magnolol or magnolia bark extract having an effective content of honokiol and magnolol and b) sodium stearyl sulfate.
Electrical shielding arrangement for a disconnection point in wiring for an HVDC transformer or an HVDC inductor, wherein the wiring is formed at the disconnection point by two tubular electrodes, wherein the tubular electrodes are arranged as outer tubular electrode (10, 20) on both sides of the disconnection point, and an inner tube is arranged in the interior of the two outer tubular electrodes (10, 20) in such a way that it bridges an axial gap forming the disconnection point between the outer tubular electrodes (10, 20), wherein a barrier system comprising individual barriers (11, 21) is arranged concentrically around each of the outer tubular electrodes (10, 20) along the entire length of the corresponding outer tubular electrode (10, 20), characterized in that, in the region of the disconnection point, the barrier system of the one outer tubular electrode (10, 20) is shorter, and that of the other outer tubular electrode (10, 20) is longer, than the corresponding tubular electrode, with the result that an axial gap formed by the barriers (11, 21) does not overlap with the axial gap of the disconnection point.
Robot for performing automated machining operations comprising: - at least one support structure; - at least one mechanical arm operatively connected to said support structure and provided, at the free end, with a tool for performing machining operations, wherein at least on said mechanical arm at least one radar device is arranged, characterized in that said radar device is arranged for the 3D detection of obstacles also while performing the machining operations. - at least one support structure; - at least one mechanical arm operatively connected to said support structure and provided, at the free end, with a tool for performing machining operations,
Method for producing a structural component (9, 9.1), comprising different single-piece component sections, for setting up a larger structure, such as are typically used in aerospace technology, made of a high-strength alloy material, characterised in that - the structural component (9, 9.1) is divided into at least two component sections which differ with respect to their requirement profiles when the structural component is later used, wherein one component section (3, 3.1), as a core segment in the use of the structural component (9, 9.1), must meet a higher requirement profile with respect to occurring loads, and the at least one further component section (8, 8.1, 8.2) must meet a lower requirement profile, - in a first production step for producing the core segment (3, 3.1) with the higher requirements, a blank is brought to a near end-contour or precise end-contour shape by a massive forming process in some regions, - in at least one following step, on at least one surface region of the core segment, which has not yet been brought into its near end-contour or precise end-contour shape by the massive forming process, and as a substrate for the forming of the at least one component section (8, 8.1, 8.2) with the lower requirement profile, this component section is applied onto the predetermined surface region of the blank, in order to bring also these regions of the massive-formed core segment into a shape closer to the end-contour, and - following this, the semi-finished product produced in this manner, as a completed pre-form (7, 7.1) is then brought into its end contour in one or more steps. - the structural component (9, 9.1) is divided into at least two component sections which differ with respect to their requirement profiles when the structural component is later used, wherein one component section (3, 3.1), as a core segment in the use of the structural component (9, 9.1), must meet a higher requirement profile with respect to occurring loads, and the at least one further component section (8, 8.1, 8.2) must meet a lower requirement profile, - in a first production step for producing the core segment (3, 3.1) with the higher requirements, a blank is brought to a near end-contour or precise end-contour shape by a massive forming process in some regions, - in at least one following step, on at least one surface region of the core segment, which has not yet been brought into its near end-contour or precise end-contour shape by the massive forming process, and as a substrate for the forming of the at least one component section (8, 8.1, 8.2) with the lower requirement profile, this component section is applied onto the predetermined surface region of the blank, in order to bring also these regions of the massive-formed core segment into a shape closer to the end-contour, and - following this, the semi-finished product produced in this manner, as a completed pre-form (7, 7.1) is then brought into its end contour in one or more steps.
A foundation structure for a tower comprising: a plurality of structural members, wherein each of the structural members comprises a material, the material selected from the group consisting of: concrete, pre-cast concrete, cast-in place concrete, reinforced concrete, pre-stressed concrete, pre-tensioned concrete and post-tensioned concrete, wherein each of the structural members comprises a base member, and wherein the base member of each structural member is coupled to the base member of an adjacent structural member to form a base for the foundation structure; and a central shaft, wherein a first end of each of the structural members is coupled to the central shaft, and wherein the central shaft has a diameter to match a tower to be mounted on the foundation structure, and wherein the foundation structure is placed within a pit, and wherein the foundation structure is covered with a sufficient volume of a particular fil such that a tower coupled to the central shaft is held in position by the fill, characterized in that each of the structural members comprises a top surface, and wherein at least a portion of the top surface includes a channel for receiving the fill, and wherein at least a portion of the channel extends along the length of the structural member. a plurality of structural members, wherein each of the structural members comprises a material, the material selected from the group consisting of: concrete, pre-cast concrete, cast-in place concrete, reinforced concrete, pre-stressed concrete, pre-tensioned concrete and post-tensioned concrete, wherein each of the structural members comprises a base member, and wherein the base member of each structural member is coupled to the base member of an adjacent structural member to form a base for the foundation structure; and concrete, pre-cast concrete, cast-in place concrete, reinforced concrete, pre-stressed concrete, pre-tensioned concrete and post-tensioned concrete, wherein each of the structural members comprises a base member, and wherein the base member of each structural member is coupled to the base member of an adjacent structural member to form a base for the foundation structure; and a central shaft, wherein a first end of each of the structural members is coupled to the central shaft, and wherein the central shaft has a diameter to match a tower to be mounted on the foundation structure, and wherein the foundation structure is placed within a pit, and wherein the foundation structure is covered with a sufficient volume of a particular fil such that a tower coupled to the central shaft is held in position by the fill, characterized in that each of the structural members comprises a top surface, and wherein at least a portion of the top surface includes a channel for receiving the fill, and wherein at least a portion of the channel extends along the length of the structural member.
A compound having formula, wherein G 1 represents a C 14 or C 18 alkyl group, a C 8 -C 14 aralkyl group or formula wherein G 3 is -(CH 2) n or -Ar-, where n is an integer from 4 to 6 and Ar is a difunctional C 6 -C 20 aryl group; provided that G 1 is not 2-phenylethyl, wherein each alkyl group is optionally substituted with one or more hydroxyl or alkoxy groups and wherein each aryl group is optionally substituted with one or more alkyl or alkoxy groups.
A clutch supporting structure being characterized in that: the clutch supporting structure is equipped with: a clutch fork and a clutch-fork support, which respectively have a fork sliding face and a support sliding face that slide one on another; and a grease that is interposed between both of the sliding faces (11, 21); and a surface roughness Rz of said fork sliding face with which the grease makes contact is from 2 to 30 μ m, and the fork sliding face has grease-reservoir dents; a surface roughness Rz of said support sliding face is equal to or less than 5 μ m, and a diamond-like carbon film is formed on the support sliding face; and said grease includes a solid lubricant agent and a thickening agent; the solid lubricant agent is at least one member that is selected from the group consisting of inorganic molybdenum-system solid lubricant agents, graphite and PTFE; and the thickening agent is a non-soap-system thickening agent. the clutch supporting structure is equipped with: a clutch fork and a clutch-fork support, which respectively have a fork sliding face and a support sliding face that slide one on another; and a grease that is interposed between both of the sliding faces (11, 21); and a surface roughness Rz of said fork sliding face with which the grease makes contact is from 2 to 30 μ m, and the fork sliding face has grease-reservoir dents; a surface roughness Rz of said support sliding face is equal to or less than 5 μ m, and a diamond-like carbon film is formed on the support sliding face; and a clutch fork and a clutch-fork support, which respectively have a fork sliding face and a support sliding face that slide one on another; and a grease that is interposed between both of the sliding faces (11, 21); and a surface roughness Rz of said fork sliding face with which the grease makes contact is from 2 to 30 μ m, and the fork sliding face has grease-reservoir dents; a surface roughness Rz of said support sliding face is equal to or less than 5 μ m, and a diamond-like carbon film is formed on the support sliding face; and said grease includes a solid lubricant agent and a thickening agent; the solid lubricant agent is at least one member that is selected from the group consisting of inorganic molybdenum-system solid lubricant agents, graphite and PTFE; and the thickening agent is a non-soap-system thickening agent. the solid lubricant agent is at least one member that is selected from the group consisting of inorganic molybdenum-system solid lubricant agents, graphite and PTFE; and the thickening agent is a non-soap-system thickening agent.
A device for locating a cavity within two walls (6, 4) including: a syringe including a syringe piston, a first syringe barrel, and a needle having a body and a hub, wherein the syringe piston is slidable in the first syringe barrel for discharging air or fluid contained in the first syringe barrel on forward movement of the syringe piston into the cavity through the needle, the first syringe barrel being attached to the hub of the needle, a frame which at least in part encases the syringe, wherein when there is a relative movement between the frame and the barrel, the air or fluid exits the barrel through the needle, said device for locating a cavity being characterized by wings placed near the hub of the needle and being movable relative to the body of the needle, and by the frame connecting the wings to the back of the syringe piston. a syringe including a syringe piston, a first syringe barrel, and a needle having a body and a hub, wherein the syringe piston is slidable in the first syringe barrel for discharging air or fluid contained in the first syringe barrel on forward movement of the syringe piston into the cavity through the needle, the first syringe barrel being attached to the hub of the needle, a frame which at least in part encases the syringe, wherein when there is a relative movement between the frame and the barrel, the air or fluid exits the barrel through the needle, said device for locating a cavity being characterized by wings placed near the hub of the needle and being movable relative to the body of the needle, and by the frame connecting the wings to the back of the syringe piston.
Operating device for opening a locking mechanism (1, 3) that has a disengagement means (9, 11, 12, 13, 14) by means of which the locking mechanism (1, 3) can be opened by the operating device being operated, the disengagement means additionally comprising a preloaded spring (16, 38, 42) which, by being released by a release device, is capable of opening the associated locking mechanism, or at least contributes to the associated locking mechanism being able to be opened, and the release device comprising a drive wheel which can be rotated by a drive, rotation of the drive wheel allowing the spring (16, 38, 42) to be released, characterized in that the locking mechanism (1, 3) is opened by rotating the drive wheel in a first direction of rotation, and a release of the preloaded spring (16, 38, 42), and an associated opening of the locking mechanism, is effected by means of spring force by rotating the drive wheel in the opposite direction.
Method for operating a system consisting of an agricultural working vehicle (1, 31) and at least one working device (2, 39) arranged on the latter, having a control device (8, 38) assigned to the working vehicle (1, 31) and at least one sensor unit which is arranged at least on the working device (2, 39) and comprises at least two sensors (21, 22, 26) which are used to capture two different physical variables, a storage unit, in which information characterizing the working device (2, 39) is stored and in which operating data relating at least to the working device (2, 39) are continuously stored, and a transmitting unit which is used by the at least one sensor unit to wirelessly communicate with the control device (5, 38) by means of a Bluetooth network, characterized in that, in order to activate communication with one another, the control device (5, 38) is moved into a transmission range of the sensor unit and the operating data buffered in the storage unit are transmitted to the control device (5, 38), the sensor unit comprises an acceleration sensor which is used to determine an operating state of the working device, wherein signals representing a vertical acceleration are continuously transmitted from the at least one acceleration sensor to the control device (5, 38) which evaluates the signals from the at least one acceleration sensor in order to determine movement amplitudes of the working device (2, 39), and wherein a maximum driving speed, which ensures that the at least one working device (2, 39) follows rows during the field run, is determined on the basis of the movement amplitudes.
A sending device, wherein the sending device comprises: a multiplexing unit and an optical power adjustment unit; the multiplexing unit is configured to send at least two communication optical waves to a fiber channel, wherein wavelengths of the at least two communication optical waves belong to an operating band; the multiplexing unit is further configured to receive at least two detection optical waves through the fiber channel, wherein the at least two detection optical waves comprise at least one first detection optical wave whose wavelength is less than a minimum wavelength of the operating band, and at least one second detection optical wave whose wavelength is greater than a maximum wavelength of the operating band; and the optical power adjustment unit is configured to: obtain a power control instruction, wherein the power control instruction is generated according to power change information by analyzing a power change degree between the at least two detection optical waves; and perform optical power amplification and/or attenuation on at least one communication optical wave in the at least two communication optical waves according to the power control instruction. the multiplexing unit is configured to send at least two communication optical waves to a fiber channel, wherein wavelengths of the at least two communication optical waves belong to an operating band; the multiplexing unit is further configured to receive at least two detection optical waves through the fiber channel, wherein the at least two detection optical waves comprise at least one first detection optical wave whose wavelength is less than a minimum wavelength of the operating band, and at least one second detection optical wave whose wavelength is greater than a maximum wavelength of the operating band; and the optical power adjustment unit is configured to: obtain a power control instruction, wherein the power control instruction is generated according to power change information by analyzing a power change degree between the at least two detection optical waves; and perform optical power amplification and/or attenuation on at least one communication optical wave in the at least two communication optical waves according to the power control instruction.
Vibratory pile-driving apparatus having - a carrier implement with a mast, - a vibration generator which is supported on the mast for generating vibrations, - a soundproof housing, - wherein the vibration generator has a transmission housing, at least one pair of rotatably supported unbalanced units and at least one rotary drive, the at least one pair of rotatably supported unbalanced units being arranged in the transmission housing and driven in a rotating manner by the rotary drive, - wherein the transmission housing in the soundproof housing is supported by way of damping elements and surrounded by the soundproof housing as well as from the transmission housing at least one oil supply line and one oil discharge line are led out of the soundproof housing, - wherein the at least one rotary drive is a hydraulic motor and as transmission oil for the transmission housing hydraulic oil is provided, with which the rotary drive is also operated, - wherein at the carrier implement a joint hydraulic oil tank is arranged, and - wherein the hydraulic oil from the transmission housing and the hydraulic oil from the hydraulic motor is reverted to the joint hydraulic oil tank, the hydraulic oil being cooled outside the soundproof housing. - a carrier implement with a mast, - a vibration generator which is supported on the mast for generating vibrations, - a soundproof housing, - wherein the vibration generator has a transmission housing, at least one pair of rotatably supported unbalanced units and at least one rotary drive, the at least one pair of rotatably supported unbalanced units being arranged in the transmission housing and driven in a rotating manner by the rotary drive, - wherein the transmission housing in the soundproof housing is supported by way of damping elements and surrounded by the soundproof housing as well as from the transmission housing at least one oil supply line and one oil discharge line are led out of the soundproof housing, - wherein the at least one rotary drive is a hydraulic motor and as transmission oil for the transmission housing hydraulic oil is provided, with which the rotary drive is also operated, - wherein at the carrier implement a joint hydraulic oil tank is arranged, and - wherein the hydraulic oil from the transmission housing and the hydraulic oil from the hydraulic motor is reverted to the joint hydraulic oil tank, the hydraulic oil being cooled outside the soundproof housing.