mhurhangee/ep-ind-claims huggingface dataset:
A highly concentrated cleaning composition for use in cleaning metal objects and metal surfaces, comprising: a. at least one surfactant being present in an amount ranging from 10 to 50 wt.% based upon the total weight of the concentrate; b. at least one scale control component, wherein the scale control component - comprises a combination of a chelant being present in amounts ranging from 2 to 20 wt.% based upon the total weight of the concentrate and a sequestrant being present in amounts ranging from 1 to 10 wt.% based upon the total weight of the concentrate; and - wherein the chelant comprises methyl glycine diacetic acid; sodium glucoheptonate; disodium hydroxyethyliminodiacetic acid; imino disuccinic acid; S,S-ethylenediamine-N,N'-disuccinic acid; or mixtures of two or more thereof; and - wherein the sequestrant is selected from sodium polyaspartate, sodium carboxymethyl inulin, or mixtures thereof; c. at least one corrosion inhibitor being present in an amount ranging from 5 to 25 wt.% based upon the total weight of the concentrate; d. a buffer system; and e. water, wherein the composition has a pH of 6.5 to 9.0 in concentrate and dilute form, wherein the composition is EDTA- and phosphate-free, and wherein the composition possesses scale control, corrosion inhibition and destaining properties. a. at least one surfactant being present in an amount ranging from 10 to 50 wt.% based upon the total weight of the concentrate; b. at least one scale control component, wherein the scale control component - comprises a combination of a chelant being present in amounts ranging from 2 to 20 wt.% based upon the total weight of the concentrate and a sequestrant being present in amounts ranging from 1 to 10 wt.% based upon the total weight of the concentrate; and - wherein the chelant comprises methyl glycine diacetic acid; sodium glucoheptonate; disodium hydroxyethyliminodiacetic acid; imino disuccinic acid; S,S-ethylenediamine-N,N'-disuccinic acid; or mixtures of two or more thereof; and - wherein the sequestrant is selected from sodium polyaspartate, sodium carboxymethyl inulin, or mixtures thereof; - comprises a combination of a chelant being present in amounts ranging from 2 to 20 wt.% based upon the total weight of the concentrate and a sequestrant being present in amounts ranging from 1 to 10 wt.% based upon the total weight of the concentrate; and - wherein the chelant comprises methyl glycine diacetic acid; sodium glucoheptonate; disodium hydroxyethyliminodiacetic acid; imino disuccinic acid; S,S-ethylenediamine-N,N'-disuccinic acid; or mixtures of two or more thereof; and - wherein the sequestrant is selected from sodium polyaspartate, sodium carboxymethyl inulin, or mixtures thereof; c. at least one corrosion inhibitor being present in an amount ranging from 5 to 25 wt.% based upon the total weight of the concentrate; d. a buffer system; and e. water,
Steering column for a motor vehicle, wherein the steering column has a steering spindle bearing unit and a steering spindle, which is mounted in the steering spindle bearing unit so as to be rotatable about a steering spindle longitudinal axis, and a supporting unit which is provided for the fastening of the steering column in the motor vehicle and on which the steering spindle bearing unit is held, and the steering spindle bearing unit has a thread and can be adjusted along the steering spindle longitudinal axis relative to the supporting unit by way of a motor, characterized in that the steering spindle bearing unit, for its adjustment along the steering spindle longitudinal axis relative to the supporting unit, is connected by means of at least one drive belt or at least one drive chain to the motor and a nut engages into the thread, and either said nut can be rotated about the steering spindle longitudinal axis by means of the drive belt or the drive chain, or said nut is fastened rotationally conjointly to the supporting unit or rotationally conjointly in some other way to the motor vehicle and the steering spindle bearing unit has a sleeve which is mounted so as to be rotatable about the steering spindle longitudinal axis and which bears the thread of the steering spindle bearing unit, wherein the sleeve is non-displaceable in the direction of the steering spindle longitudinal axis relative to the other parts of the steering spindle bearing unit, wherein the sleeve can be driven by the motor via the drive belt or the drive chain.
Building panels (1, 1') provided with a mechanical locking system comprising a tongue, at an edge of a first panel, cooperating with a tongue groove, at an edge of an adjacent second panel, for vertical locking of the building panels characterized in that the edge of the first panel is provided with a displacement groove to obtain a resilient and displaceable tongue part, said displacement groove is downwardly open, and comprises an inner wall, an outer wall and an upper wall, that the tongue is formed out of the edge of the first panel, that the resilient and displaceable part of the tongue is configured to be displaced into the displacement groove by a lower lip of the tongue groove during assembling of the first and the second panel (1, 1') by a vertical displacement of the second panel toward the first panel, that the thickness of the outer wall of the displacement groove at a first and upper part of the displacement groove, at the upper surface of the tongue, is configured such that the outer wall at the first and upper part breaks during said assembling, and that the thickness of the outer wall of the displacement groove at a second part of the displacement groove, below the resilient and displaceable part of the tongue, is configured such that the outer wall at the second part breaks during said assembling.
Flat building element having a core of a plastics foam, the core having a first a and second large face opposing each other and carries a double-sided cladding on said faces, the cladding of the first face presenting a coarse meshed textile layer, the cladding on the second face presenting a foil layer and a nonwoven layer arranged on the side of the foil turned toward and/or away from said core, characterized in that the cladding is formed in an asymmetrical manner.
Cage for rolling elements of a bearing, comprising a main body composed of plastic and a coating composed of metal, fixed to the main body and covering the main body at least in sections, wherein the metal has a structure with a nanocrystalline grain size wherein the nanocrystalline grains of the structure have a maximum dimension of less than 100 nm, wherein the coating composed of metal is applied directly to the main body or the coating composed of metal is applied to a substrate and the substrate including the coating is adhesively bonded as a thin film to the main body, and wherein the coating is provided at least in the region of contact surfaces (6, 7) of the cage, in which the cage comes into contact with bearing rings or rolling elements of the bearing.
A pharmaceutical composition for use in a method for suppressing angiogenesis in a disease selected from psoriasis, corneal ulcer, age-related macular degeneration, diabetic retinopathy, proliferative vitreoretinopathy, immature retinopathy, conical cornea, Sjorgen's syndrome, myopia ophthalmic tumor, rejection of corneal transplantation, abnormal wound healing, bone disease, proteinuria, disorders of abdominal aneurysm, cartilage loss resulting from traumatic joint damage, neurologic demyelination, cirrhosis, glomerular disease, immature rupture of embryo-fetal membrane, periodontal diseases, arteriosclerosis, restenosis, Alzheimer's disease and infiltration and metastasis of cancer, comprising at least one of macrolactin A, 7- O -malonyl macrolactin A and 7- O -succinyl macrolactin A as an active ingredient.
A method for disinfecting and sterilizing a material of an animal tissue, comprising the steps of: placing the material of the animal tissue in an alkaline soak solution containing a metal peroxide and a detergent, and shaking; washing the material of the animal tissue obtained in step with a neutral cleaning solution to remove organic components released from microorganisms and animal tissue cells during soaking; washing the tissue matrix obtained in step with a weakly acidic cleaning solution having a pH of 5.0∼6.0; cryopreserving or freeze-drying the tissue matrix obtained in step in a neutral solution; wherein the soak solution in step contains 0.01∼0.2% w/v of the metal peroxide and 0.05∼1.0% w/v of the detergent, and the pH of the soak solution is between 8.5∼11.5. placing the material of the animal tissue in an alkaline soak solution containing a metal peroxide and a detergent, and shaking; washing the material of the animal tissue obtained in step with a neutral cleaning solution to remove organic components released from microorganisms and animal tissue cells during soaking; washing the tissue matrix obtained in step with a weakly acidic cleaning solution having a pH of 5.0∼6.0; cryopreserving or freeze-drying the tissue matrix obtained in step in a neutral solution;
An image sensor comprising a plurality of pixels, at least one pixel comprising: a floating diffusion formed in a semiconductor substrate; a transfer gate configured to selectively cause transfer of photocharge stored in a charge storage/accumulation region of the pixel to the floating diffusion; and a reset drain formed in the semiconductor substrate and spaced away from the floating diffusion by an intervening semiconductor region having a dopant type opposite to the dopant type of the reset drain and the floating diffusion, wherein the reset drain and the intervening semiconductor region are configured to selectively reset the electrostatic potential of the floating diffusion and set an electrostatic potential barrier between the floating diffusion and the reset drain in response to a voltage pulse selectively applied to the reset drain and without use of a reset transistor gate that may be formed above said intervening semiconductor region. a floating diffusion formed in a semiconductor substrate; a transfer gate configured to selectively cause transfer of photocharge stored in a charge storage/accumulation region of the pixel to the floating diffusion; and a reset drain formed in the semiconductor substrate and spaced away from the floating diffusion by an intervening semiconductor region having a dopant type opposite to the dopant type of the reset drain and the floating diffusion, wherein the reset drain and the intervening semiconductor region are configured to selectively reset the electrostatic potential of the floating diffusion and set an electrostatic potential barrier between the floating diffusion and the reset drain in response to a voltage pulse selectively applied to the reset drain and without use of a reset transistor gate that may be formed above said intervening semiconductor region.
A working machine comprising: an upperstructure, working equipment attached to the upperstructure, an operator's seat disposed on the upperstructure, a counterweight disposed on the upperstructure at a position behind the operator's seat, a muffler disposed on the upperstructure to receive exhaust gas guided from an engine, and a tailpipe connected to the muffler, said counterweight defining therethrough a passage in which the tailpipe is inserted, characterized in that the working machine is further provided with: an exhaust pipe holding member attached to an outer side wall of the counterweight, and having a passage which is in communication with the passage of the counterweight and in which the tailpipe is inserted, and an exhaust pipe disposed and held upright on the exhaust pipe holding member, and having a lower part, in which the tailpipe is inserted, and an upper part defining therein an exhaust outlet through which the exhaust gas guided via the tailpipe is released. an upperstructure, working equipment attached to the upperstructure, an operator's seat disposed on the upperstructure, a counterweight disposed on the upperstructure at a position behind the operator's seat, a muffler disposed on the upperstructure to receive exhaust gas guided from an engine, and a tailpipe connected to the muffler, said counterweight defining therethrough a passage in which the tailpipe is inserted, an exhaust pipe holding member attached to an outer side wall of the counterweight, and having a passage which is in communication with the passage of the counterweight and in which the tailpipe is inserted, and an exhaust pipe disposed and held upright on the exhaust pipe holding member, and having a lower part, in which the tailpipe is inserted, and an upper part defining therein an exhaust outlet through which the exhaust gas guided via the tailpipe is released.
A method for implementing a group call, the method comprising: receiving, by an infrastructure device (118, 130) associated with a first originating network from a mobile device, a group call request, wherein the first originating network is one of a narrowband network and a broadband network; in response to receiving the group call request, determining, by the infrastructure device (118, 130), that insufficient network resources are available in the first originating network for allocation to the mobile device for the group call; and in response to determining that insufficient network resources are available, arranging, by the infrastructure device (118, 130), to set up an originating leg of the group call for the mobile device in a second originating network, wherein the second originating network is the other network of the narrowband network and the broadband network wherein the group call request is a first group call request; and wherein the arranging to set up an originating leg of the group call for the mobile device in a second originating network comprises: conveying, by the first originating network to the second originating network, a second group call request; and in response to receiving the second group call request, setting up, by the second originating network, the originating leg of the group call with the mobile device in the second originating network. receiving, by an infrastructure device (118, 130) associated with a first originating network from a mobile device, a group call request, wherein the first originating network is one of a narrowband network and a broadband network; in response to receiving the group call request, determining, by the infrastructure device (118, 130), that insufficient network resources are available in the first originating network for allocation to the mobile device for the group call; and in response to determining that insufficient network resources are available, arranging, by the infrastructure device (118, 130), to set up an originating leg of the group call for the mobile device in a second originating network, wherein the second originating network is the other network of the narrowband network and the broadband network wherein the group call request is a first group call request; and wherein the arranging to set up an originating leg of the group call for the mobile device in a second originating network comprises: conveying, by the first originating network to the second originating network, a second group call request; and in response to receiving the second group call request, setting up, by the second originating network, the originating leg of the group call with the mobile device in the second originating network. conveying, by the first originating network to the second originating network, a second group call request; and in response to receiving the second group call request, setting up, by the second originating network, the originating leg of the group call with the mobile device in the second originating network.
A method for dispensing a solution of a solid product, the method comprising: providing a stand-alone, free-flowing product dispenser, the dispenser comprising: an inlet portion for receiving fluid, the inlet portion further comprising a reaction portion in which the solution is formed, the reaction portion further being configured to receive a uniquely shaped solid product, and an outlet portion for dispensing the solution; and directing fluid to the inlet portion, whereby the fluid comes into contact with the solid product housed in the reaction portion and dissolves said product, thereby creating a solution of the liquid and the product; and the solution is dispensed from the outlet portion, characterized in that the dispenser further comprises pegs supporting the solid product, and wherein the fluid flows through the spaces between the pegs, whereby the dispenser further comprises pegs located within the inlet portion such that the liquid contacts and flows through a series of pegs prior to encountering the solid product. an inlet portion for receiving fluid, the inlet portion further comprising a reaction portion in which the solution is formed, the reaction portion further being configured to receive a uniquely shaped solid product, and an outlet portion for dispensing the solution; and directing fluid to the inlet portion, whereby the fluid comes into contact with the solid product housed in the reaction portion and dissolves said product, thereby creating a solution of the liquid and the product; and the solution is dispensed from the outlet portion, characterized in that the dispenser further comprises pegs supporting the solid product, and wherein the fluid flows through the spaces between the pegs, whereby the dispenser further comprises pegs located within the inlet portion such that the liquid contacts and flows through a series of pegs prior to encountering the solid product.
Process for deposition of a dense thin film with a porosity of less than 20 % and comprising at least one material Px on a substrate, in which: a) a colloidal suspension is provided containing nanoparticles of at least one material Px, in which the diameter D50 of said nanoparticles of at least one of the materials Px is less than 100 nm, preferably less than 30 nm and even more preferably less than 10 nm. b) said substrate is immersed in said colloidal suspension, together with a counter electrode, c) an electrical voltage is applied between said substrate and said counter electrode so as to obtain the electrophoretic deposition of a compact film comprising nanoparticles of said at least one material Px on said substrate, d) said compact film is dried, e) said film is mechanically consolidated, f) thermal consolidation is carried out at a temperature T R that does not exceed 0.7 times and preferably does not exceed 0.5 times, and even 0.3 times the melting or decomposition temperature (expressed in °C) of the material Px that melts at the lowest temperature, preferably at a temperature of between 160°C and 600°C, and even more preferably at a temperature of between 160°C and 400°C, knowing that steps (e) and (f) can be carried out simultaneously, or can be inverted. a) a colloidal suspension is provided containing nanoparticles of at least one material Px, in which the diameter D50 of said nanoparticles of at least one of the materials Px is less than 100 nm, preferably less than 30 nm and even more preferably less than 10 nm. b) said substrate is immersed in said colloidal suspension, together with a counter electrode, c) an electrical voltage is applied between said substrate and said counter electrode so as to obtain the electrophoretic deposition of a compact film comprising nanoparticles of said at least one material Px on said substrate, d) said compact film is dried, e) said film is mechanically consolidated, f) thermal consolidation is carried out at a temperature T R that does not exceed 0.7 times and preferably does not exceed 0.5 times, and even 0.3 times the melting or decomposition temperature (expressed in °C) of the material Px that melts at the lowest temperature, preferably at a temperature of between 160°C and 600°C, and even more preferably at a temperature of between 160°C and 400°C,
A method of performing modular addition between a first integer value x and a second integer value y, the method comprising, in a processor the steps of: - obtaining a first masked input x̂, a second masked input ŷ, a first mask r x and a second mask r y, the first masked input x̂ resulting from the first integer value x masked by the first mask r x and the second masked input ŷ resulting from the second integer value y masked by the second mask r y; - computing a masked first iteration carry value c 1, using the first masked input x̂, the second masked input ŷ, the first mask r x, the second mask r y and a carry mask value λ; - recursively updating intermediate masked carry values c i to obtain a final masked carry value c k -1, wherein an intermediate masked carry value is updated using the first masked input x̂, the second masked input ŷ, the first mask r x, the second mask r y and the carry mask value λ; - obtaining a masked result by: - combining the first masked input x̂ and the second masked input ŷ and the final masked carry value to obtain an intermediate value; and - combining the intermediate value with the carry mask value λ; and - outputting the masked result. - obtaining a first masked input x̂, a second masked input ŷ, a first mask r x and a second mask r y, the first masked input x̂ resulting from the first integer value x masked by the first mask r x and the second masked input ŷ resulting from the second integer value y masked by the second mask r y; - computing a masked first iteration carry value c 1, using the first masked input x̂, the second masked input ŷ, the first mask r x, the second mask r y and a carry mask value λ; - recursively updating intermediate masked carry values c i to obtain a final masked carry value c k -1, wherein an intermediate masked carry value is updated using the first masked input x̂, the second masked input ŷ, the first mask r x, the second mask r y and the carry mask value λ; - obtaining a masked result by: - combining the first masked input x̂ and the second masked input ŷ and the final masked carry value to obtain an intermediate value; and - combining the intermediate value with the carry mask value λ; and - combining the first masked input x̂ and the second masked input ŷ and the final masked carry value to obtain an intermediate value; and - combining the intermediate value with the carry mask value λ; and - outputting the masked result.