mhurhangee/ep-ind-claims huggingface dataset:
A pallet shelf system (200, 400, 500) with at least two shelves comprising - at least two standard size pallets comprising side openings accessible to a fork lifter, each standard size pallet dimensioned according to an internationally recognized industry standard for pallets for the transport of goods; - at least four upright posts; and - at least four pallet shelf system base units, each base unit adapted for supporting at least part of the weight of a standard size pallet including goods; wherein said base unit comprises a base plate and a number of protrusions mounted on a side of said base plate at right angles to said base plate, which protrusions are matched in number and size to fit into each side opening on a respective side of said standard size pallet, and wherein said base plate comprises a first set of at least two mounting holes mounted on a side of said base plate for receiving at least two upright posts with said posts protruding in the same direction after mounting; wherein - said at least four base units are assembled pair wise to form at least two base unit assemblies (230, 410) by joining two base units using at least two of said at least four upright posts, thereby forming at least two of said base unit assemblies (230, 410); - whereupon each base unit assembly (230, 410) is stabilized with at least two standard size pallets, said pallets serving as shelves, thereby forming said pallet shelf system (200, 400, 500) with at least two shelves. - at least two standard size pallets comprising side openings accessible to a fork lifter, each standard size pallet dimensioned according to an internationally recognized industry standard for pallets for the transport of goods; - at least four upright posts; and - at least four pallet shelf system base units, each base unit adapted for supporting at least part of the weight of a standard size pallet including goods; wherein said base unit comprises a base plate and a number of protrusions mounted on a side of said base plate at right angles to said base plate, which protrusions are matched in number and size to fit into each side opening on a respective side of said standard size pallet, and wherein said base plate comprises a first set of at least two mounting holes mounted on a side of said base plate for receiving at least two upright posts with said posts protruding in the same direction after mounting; - said at least four base units are assembled pair wise to form at least two base unit assemblies (230, 410) by joining two base units using at least two of said at least four upright posts, thereby forming at least two of said base unit assemblies (230, 410); - whereupon each base unit assembly (230, 410) is stabilized with at least two standard size pallets, said pallets serving as shelves, thereby forming said pallet shelf system (200, 400, 500) with at least two shelves.
System of turf for sports surfaces and gardening surfaces which comprises turf of synthetic origin and turf of natural origin, said turf of synthetic origin and said turf of natural origin being disposed on a substantially elastic permeable substrate, said elastic substrate being configured in such a way that it allows passage of the roots of said natural turf through to a growing layer disposed in a lower position, characterized in that said elastic substrate defines in the profile of the system a layer having a thickness comprised between 0.005 m to 0.020 m, and in that said elastic substrate is configured on the basis of a three-dimensional mesh which is manufactured with elastic material of polymeric origin, said elastic substrate being capable of absorbing the energy from shocks made on said surfaces in order to avoid compaction of said growing layer of the roots disposed in a lower position.
A device for welding rod-shaped electrical conductors (28, 29) provided with an outer insulating sheath and having blank regions (33, 34) free of the sheath, whose length is defined by an axial sheath end surface (35, 36), the device comprising a compression space for receiving connecting regions (26, 27) of the conductors to be connected to each other, the compression space being limited in a first axial direction (z) at two opposing sides by a working surface of a sonotrode transmitting ultrasonic vibrations in the first axial direction and by an opposing surface of an opposing electrode as well as in a second axial direction (y) at two opposing sides by a limiting surface of a slider element displaceable in the second axial direction and by a limiting surface of a limiting element, the compression space comprising at least one guiding element (41, 42, 45, 48, 49) arranged laterally to the slider element and movable relative to the slider element in the second axial direction, and the guiding element having a guiding edge for positioning a conductor in the second axial direction relative to the limiting surface of the limiting element, characterized in that the guiding element is provided with a stop edge (43, 46, 47) for axially positioning the sheath end surface, the distance between the stop edge and the working surface of the sonotrode being selected such that when the sheath end surface abuts against the stop edge and the blank region is aligned in a third axial direction parallel to the working surface of the sonotrode and the limiting surface of the limiting element, a defined length of the blank region extends within the compression space.
A process for use in connection with an exhaust gas aftertreatment system which is operated on an internal combustion engine operated with surplus air and wherein the reduction of nitrogen oxides is effected when an ammonia-eliminating reductant is added to the exhaust gas flow upstream of a catalyst laden with a catalyst material for selective catalytic reduction of nitrogen oxides, characterized in that the NH 3 to NO X ratio (α) is periodically varied by altering the nitrogen oxide raw emission of the internal combustion engine and the supplied reductant amount is not adapted according to the periodically varied NO x raw emission such that the NH 3 to NO X ratio (α) periodically oscillates about a predetermined value corresponding to a theoretical steady-state value.
A thermal conductive member, comprising: a first surface layer comprising an insulating material A; a second surface layer comprising an insulating material A; and an intermediate layer comprising an insulating material B, and disposed between the first surface layer and the second surface layer, wherein the insulating material A comprises a first boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.6 to 1.4, and a first heat curable resin composition impregnating in the first boron nitride sintered body, and wherein the insulating material B comprises a second boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.01 to 0.05, and a second heat curable resin composition impregnating in the second boron nitride sintered body, provided that the orientation degree means IOP (the Index of Orientation Preference), and calculated by the following equation: IOP = I 100 / I 002 par. / I 100 / I 002 perp., wherein, (I100 / I002) par. is an intensity ratio of the planes measured along a direction parallel to a thickness direction of the boron nitride sintered body, and (I100 / I002) perp is an intensity ratio of the planes measured along a direction perpendicular to the thickness direction of the boron nitride sintered body, I100 indicates an intensity of a X-ray diffraction from the plane, and I002 indicates an intensity of a X-ray diffraction from the plane. a first surface layer comprising an insulating material A; a second surface layer comprising an insulating material A; and an intermediate layer comprising an insulating material B, and disposed between the first surface layer and the second surface layer, wherein the insulating material A comprises a first boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.6 to 1.4, and a first heat curable resin composition impregnating in the first boron nitride sintered body, and wherein the insulating material B comprises a second boron nitride sintered body having an orientation degree of hexagonal boron nitride primary particles of 0.01 to 0.05, and a second heat curable resin composition impregnating in the second boron nitride sintered body,
A pharmaceutical composition comprising hyaluronidase and collagenase for use in treating an ophthalmologic condition with a contact lens; wherein the contact lens is adapted to be applied to an eye of a patient suffering from an ophthalmologic condition; wherein the pharmaceutical composition is adapted to be applied to the eye of the patient; wherein the ophthalmologic condition is presbyopia.
A module comprising: a first ultracapacitor having a first terminal; a second ultracapacitor having a second terminal; and an interconnect strip that contains a central section positioned between a first attachment section and a second attachment section, wherein the first terminal of the first ultracapacitor is connected to the first attachment section of the strip and the second terminal of the second ultracapacitor is connected to the second attachment section of the strip, and wherein the width of the interconnect strip is from 1 to 20 millimeters, and further wherein the central section is formed from a flexible conductive material which is in the form of one or more wires, braids, coils, sheets, and/or bars, and wherein the ratio of the length of the central section to the length of the strip is from 0.6 to 0.95. a first ultracapacitor having a first terminal; a second ultracapacitor having a second terminal; and an interconnect strip that contains a central section positioned between a first attachment section and a second attachment section, wherein the first terminal of the first ultracapacitor is connected to the first attachment section of the strip and the second terminal of the second ultracapacitor is connected to the second attachment section of the strip, and wherein the width of the interconnect strip is from 1 to 20 millimeters, and further wherein the central section is formed from a flexible conductive material which is in the form of one or more wires, braids, coils, sheets, and/or bars, and wherein the ratio of the length of the central section to the length of the strip is from 0.6 to 0.95.
A processing circuit for a wireless transmitter, the processing circuit comprising: a phase rotation sequence generation unit configured to generate, on a basis of input transmit bits, a phase rotation sequence in which a frequency response has a bandwidth, wherein the phase rotation sequence generation unit is configured to generate the phase rotation sequence according to the expression: x m = s m × c m = exp j 2 π km / M × exp j π × r × m × m / M = exp j 2 π k + 0.5 r × m m / M, where m represents a sample number, x(m) represents the phase rotation sequence, M represents a sequence length of the phase rotation sequence, k represents a parameter corresponding to the transmit bits, 0≤k<M, s(m) represents a first phase rotation sequence, c(m) represents a second phase rotation sequence, j represents an imaginary unit, and r represents a parameter indicating a type of the second phase rotation sequence c(m); an up-sampling unit configured to perform up-sampling processing of multiplying a sample rate of the phase rotation sequence by a predetermined coefficient L and replicating a number of samples of the phase rotation sequence L-fold to provide a post-up-sampling phase rotation sequence, wherein L is an integer of 2 or more; and a frequency shift unit configured to shift, by a specified amount of shift on a frequency axis, a frequency component of the post-up-sampling phase rotation sequence. a phase rotation sequence generation unit configured to generate, on a basis of input transmit bits, a phase rotation sequence in which a frequency response has a bandwidth, wherein the phase rotation sequence generation unit is configured to generate the phase rotation sequence according to the expression: x m = s m × c m = exp j 2 π km / M × exp j π × r × m × m / M = exp j 2 π k + 0.5 r × m m / M, where m represents a sample number, x(m) represents the phase rotation sequence, M represents a sequence length of the phase rotation sequence, k represents a parameter corresponding to the transmit bits, 0≤k<M, s(m) represents a first phase rotation sequence, c(m) represents a second phase rotation sequence, j represents an imaginary unit, and r represents a parameter indicating a type of the second phase rotation sequence c(m); an up-sampling unit configured to perform up-sampling processing of multiplying a sample rate of the phase rotation sequence by a predetermined coefficient L and replicating a number of samples of the phase rotation sequence L-fold to provide a post-up-sampling phase rotation sequence, wherein L is an integer of 2 or more; and a frequency shift unit configured to shift, by a specified amount of shift on a frequency axis, a frequency component of the post-up-sampling phase rotation sequence.
Device for storing an object, comprising: - a main body with a main body base face, a main body top face opposite the main body base face, and a lateral face connecting the main body base face and the main body top face; and - a flexible folding body with a tubular sheath, which is fastened at a tube base side to the main body base face in such a way that the folding body, seen from the main body base face, can be pulled over the lateral face of the main body with a tube top side opposite the tube base side towards the main body top face, wherein the device comprises a accommodation space that is open via an opening, wherein the accommodation space is formed in the main body with its opening at the lateral face, wherein the folding body can be pulled at least over the opening in order to close the accommodation space, wherein, seen from the opening of the accommodation space, on a side (8, 22) of the opening of the accommodation space opposite the fastening between the main body and the folding body, a closure mechanism (34, 36) is arranged that fixes a position of the folding body relative to the main body, characterized in that the closure mechanism (34, 36) comprises a first form-fitting element on the main body and a second form-fitting element on the folding body, and wherein both form-fitting elements (34, 36) are configured to prevent a movement of the folding body against a covering direction. - a main body with a main body base face, a main body top face opposite the main body base face, and a lateral face connecting the main body base face and the main body top face; and - a flexible folding body with a tubular sheath, which is fastened at a tube base side to the main body base face in such a way that the folding body, seen from the main body base face, can be pulled over the lateral face of the main body with a tube top side opposite the tube base side towards the main body top face, wherein the device comprises a accommodation space that is open via an opening, wherein the accommodation space is formed in the main body with its opening at the lateral face, wherein the folding body can be pulled at least over the opening in order to close the accommodation space, wherein, seen from the opening of the accommodation space, on a side (8, 22) of the opening of the accommodation space opposite the fastening between the main body and the folding body, a closure mechanism (34, 36) is arranged that fixes a position of the folding body relative to the main body, characterized in that the closure mechanism (34, 36) comprises a first form-fitting element on the main body and a second form-fitting element on the folding body, and wherein both form-fitting elements (34, 36) are configured to prevent a movement of the folding body against a covering direction.
An oxide-ceramic high-temperature fuel cell having one gas channel open at at least one end, whereby the fuel cell has a substrate surrounding the gas channel completely; whereby the substrate forms the anode or the electrolyte or the cathode of the fuel cell, whereby the gas channel and the substrate have changing cross-sections, namely conically tapering cross-sections, seen in the direction of the longitudinal axis of the gas channel, whereby the gas channel tapers from one end to the other end of the cell, whereby the substrate is a tubular substrate, which envelopes the conical gas channel seen in cross-section through the longitudinal axis of the channel, so that a rotationally symmetrical cell is formed and whereby the outer periphery of the fuel cell corresponds to a cylinder. having one gas channel open at at least one end, whereby the fuel cell has a substrate surrounding the gas channel completely; whereby the substrate forms the anode or the electrolyte or the cathode of the fuel cell, whereby the gas channel and the substrate have changing cross-sections, namely conically tapering cross-sections, seen in the direction of the longitudinal axis of the gas channel, whereby the gas channel tapers from one end to the other end of the cell, whereby the substrate is a tubular substrate, which envelopes the conical gas channel seen in cross-section through the longitudinal axis of the channel, so that a rotationally symmetrical cell is formed and whereby the outer periphery of the fuel cell corresponds to a cylinder.
An electronic switch and control module for a power tool having an electric motor, comprising: a module housing, a printed circuit board and a plurality of power switches mounted on the surface of the PCB; the electronic switch and control module characterized by the module housing including a bottom surface, side walls, and an open face; the printed circuit board fittingly received from the open face of the module housing and securely disposed within the module housing; an encapsulation member arranged to mate with a mating surface of the side walls of the module housing to form an enclosed compartment over a portion of the PCB to enclose at least one electronic or electro-mechanical element mounted on a surface of the PCB; and the plurality of power switches mounted on the surface of the PCB within an open compartment of the module housing where the encapsulation member does not enclose the surface of the PCB, the power switches being electrically configured to switchably connect a supply of electric power from a power source to the electric motor. a module housing, a printed circuit board and a plurality of power switches mounted on the surface of the PCB; the electronic switch and control module characterized by the module housing including a bottom surface, side walls, and an open face; the printed circuit board fittingly received from the open face of the module housing and securely disposed within the module housing; an encapsulation member arranged to mate with a mating surface of the side walls of the module housing to form an enclosed compartment over a portion of the PCB to enclose at least one electronic or electro-mechanical element mounted on a surface of the PCB; and the plurality of power switches mounted on the surface of the PCB within an open compartment of the module housing where the encapsulation member does not enclose the surface of the PCB, the power switches being electrically configured to switchably connect a supply of electric power from a power source to the electric motor.
A transmission assembly comprising a transmission member and an oil distribution system suitable to be housed in a casing having at least one oil feed; wherein the transmission member includes at least one rotary pivot suitable for turning about an axis of rotation, and a pivot portion suitable for pivoting about the rotary pivot; wherein the oil distribution system is configured to receive oil under pressure from the oil feed and to transfer it to at least one oil reception chamber of the rotary pivot; characterized in that said rotary pivot includes a first oil reception chamber in fluid flow communication with an outer portion, of the gap between the rotary pivot and the pivot portion facing away from the axis of rotation via at least one first injection orifice, and a second oil reception chamber, distinct from the first oil reception chamber, in fluid flow communication with an inner portion, of the gap facing the axis of rotation via at least one second injection orifice, so as to form a fluid bearing; and characterized in that the transmission assembly is suitable for injecting oil into said gap at a first injection pressure into the outer portion of the gap, and at a second injection pressure into the inner portion of the gap facing towards the axis of rotation, the second injection pressure being different from the first injection pressure, the transmission assembly comprising both a first oil flow path opening via at least the first injection orifice into the outer portion of the gap, and a second oil flow path, distinct from the first oil flow path, opening via at least the second injection orifice into the inner portion of the gap.
A method for producing an oxidized wax comprising: a. providing a high molecular weight uniform polyolefin resin feedstock having an average particle size from 177μm (80 mesh) to 595 μm (30 mesh), and a standard deviation in particle size of not greater than 125 μm; wherein said polyolefin resin has a melt flow index of between 0.1 to 1.0 g/10 min at 190°C with a 21.6 kg weight, as determined using ASTM method D-1238-89 or -79; and b. oxidizing said high molecular weight polyolefin resin particles in their solid state to produce a wax having a predetermined acid number. a. providing a high molecular weight uniform polyolefin resin feedstock having an average particle size from 177μm (80 mesh) to 595 μm (30 mesh), and a standard deviation in particle size of not greater than 125 μm; wherein said polyolefin resin has a melt flow index of between 0.1 to 1.0 g/10 min at 190°C with a 21.6 kg weight, as determined using ASTM method D-1238-89 or -79; and b. oxidizing said high molecular weight polyolefin resin particles in their solid state to produce a wax having a predetermined acid number.
An oil pressure control device for a belt-type continuously variable transmission, wherein the belt-type continuously variable transmission includes two pulleys (3, 5) and a belt provided between the two pulleys (3, 5) and wound around the two pulleys (3, 5) to transmit motive power, and each of the two pulleys (3, 5) has a movable sheave (3b, 5b) which moves by oil pressure supplied to a hydraulic chamber (3b1, 5b1), the oil pressure control device comprising: a request torque calculating means configured to calculate a request torque according to a running state; an oil pressure calculating means (204, 205) configured to calculate the oil pressure which is supplied to the hydraulic chamber (3b1, 5b1), on the basis of the request torque; and an actual input-torque calculating means configured to calculate an actual input torque (TENG) which is inputted to the belt-type continuously variable transmission, characterized by a correcting means configured to correct the request torque such that the request torque is reduced if the request torque is greater than the actual input torque (TENG) by a predetermined value or more. a request torque calculating means configured to calculate a request torque according to a running state; an oil pressure calculating means (204, 205) configured to calculate the oil pressure which is supplied to the hydraulic chamber (3b1, 5b1), on the basis of the request torque; and an actual input-torque calculating means configured to calculate an actual input torque (TENG) which is inputted to the belt-type continuously variable transmission, characterized by a correcting means configured to correct the request torque such that the request torque is reduced if the request torque is greater than the actual input torque (TENG) by a predetermined value or more.