mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical combination for use in the treatment, prevention, stabilisation, delay in onset and/or reduction of the symptoms of age-related and/or degenerative diseases in a subject, said pharmaceutical combination comprising: - a biguanide, and/or an N-oxide, a hydrate, a pharmaceutically acceptable salt or solvate thereof, and - an acetylcholinesterase inhibitor, and/or an N-oxide, a hydrate, a pharmaceutically acceptable salt or solvate thereof, and wherein the age-related and/or degenerative diseases are diseases of the neuro-musculoskeletal system, frailty, and/or inflammatory liver diseases. - a biguanide, and/or an N-oxide, a hydrate, a pharmaceutically acceptable salt or solvate thereof, and - an acetylcholinesterase inhibitor, and/or an N-oxide, a hydrate, a pharmaceutically acceptable salt or solvate thereof,
Method for determining the required application rate of agricultural material for working an agricultural area or partial area with an agricultural spreader by using a wheel track system and an application map for the agricultural area or partial area and information about the number and position of the partial widths (11, 12) that exist within the working width of the spreader by means of virtual working, comprising the steps of: - creating a virtual model of the spreader with a number of partial widths (11, 12), the model comprising the position of the partial widths within the working width; - moving the virtual model of the spreader along the wheel track system on a model of the agricultural area or partial area, - repeatedly calculating at fixed increments the partial application rate that is required to achieve the target application rate obtained from the application map at the respective location of the model of the spreader and/or the partial widths (11, 12) thereof, and - adding together the partial application rates to determine the required application rate until the agricultural area has been at least almost completely virtually worked. - creating a virtual model of the spreader with a number of partial widths (11, 12), the model comprising the position of the partial widths within the working width; - moving the virtual model of the spreader along the wheel track system on a model of the agricultural area or partial area, - repeatedly calculating at fixed increments the partial application rate that is required to achieve the target application rate obtained from the application map at the respective location of the model of the spreader and/or the partial widths (11, 12) thereof, and - adding together the partial application rates to determine the required application rate until the agricultural area has been at least almost completely virtually worked.
Method for producing an at least two-layered, substantially uninterruptedly flat wound cover, comprising - a first layer of an open-celled foam material, having a first main area and a second main area; and - a second layer as water vapor-permeable germ barrier, in particular of a film material, which second layer is directly adjacent to the first main area of the first layer, comprising the following steps: (a) providing the foam material of the first layer, in particular in a thickness between 1 mm to 10 mm, preferably between 3 mm to 5 mm; (b) flat application, in particular extrusion, of at least one thermoplastic material onto the main area of the foam material at a temperature above the softening temperature of the thermoplastic material, and solidifying the material to form the second layer; the first layer of a foam material not being imbedded into a pressure-sensitive adhesive layer. - a first layer of an open-celled foam material, having a first main area and a second main area; and - a second layer as water vapor-permeable germ barrier, in particular of a film material, which second layer is directly adjacent to the first main area of the first layer, (a) providing the foam material of the first layer, in particular in a thickness between 1 mm to 10 mm, preferably between 3 mm to 5 mm; (b) flat application, in particular extrusion, of at least one thermoplastic material onto the main area of the foam material at a temperature above the softening temperature of the thermoplastic material, and solidifying the material to form the second layer;
A hydrogel product comprising (a) one or more cyclodextrin molecules grafted to hyaluronic acid and (b) dextran, wherein the cyclodextrin-grafted hyaluronic acid is cross-linked to the dextran.
A spring-return actuator comprising: a housing comprising first and second cylinder chambers (120, 130A, 130B); a first piston (125A, 125B) housed in the first cylinder chamber movable between a first position and a second position by a pressurized fluid to move a load; a safety system comprising a second piston (135A, 135B) housed in the second cylinder chamber (130A, 130B) movable by the pressurized fluid to arm the safety system and to return the first piston from the second position to the first position when pressure of the pressurized fluid drops below a safety pressure threshold; characterised in a differential fluid channel in cooperation with the first and second cylinder chambers and configured to provide flow of pressurized fluid into the first cylinder chamber at a first flow rate simultaneous with flow of the pressurized fluid at a second flow rate greater than the first flow rate into the second cylinder chamber. a housing comprising first and second cylinder chambers (120, 130A, 130B); a first piston (125A, 125B) housed in the first cylinder chamber movable between a first position and a second position by a pressurized fluid to move a load; a safety system comprising a second piston (135A, 135B) housed in the second cylinder chamber (130A, 130B) movable by the pressurized fluid to arm the safety system and to return the first piston from the second position to the first position when pressure of the pressurized fluid drops below a safety pressure threshold; characterised in a differential fluid channel in cooperation with the first and second cylinder chambers and configured to provide flow of pressurized fluid into the first cylinder chamber at a first flow rate simultaneous with flow of the pressurized fluid at a second flow rate greater than the first flow rate into the second cylinder chamber.
A cosmetic composition for oxidation dyeing keratin fibers comprising, in an aqueous medium: at least one oxidation dye; at least one oxidizing agent; and 1.5 wt% or more of at least one amphoteric surfactant relative to the total weight of the composition, wherein the amphoteric surfactant is selected from C 8 -C 20 alkylbetaines, and the composition further comprises at least one cationic polymer. at least one oxidation dye; at least one oxidizing agent; and 1.5 wt% or more of at least one amphoteric surfactant relative to the total weight of the composition,
An electronic apparatus comprising: a first heat sink that allows air to pass in a front-rear direction; a power supply unit that includes a power supply circuit and a power supply unit case housing the power supply circuit and having an intake air wall in which a plurality of air intake holes are formed; and a cooling fan, characterised in that the intake air wall is located in front of the first heat sink with respect to the front-rear direction in which the air is allowed to pass through the first heat sink, the intake air wall has an external surface being inclined with respect to both the front-rear direction and a left-right direction and facing the first heat sink, and the cooling fan is disposed to feed air toward the intake air wall, and thereby supply the air to the first heat sink. a first heat sink that allows air to pass in a front-rear direction; a power supply unit that includes a power supply circuit and a power supply unit case housing the power supply circuit and having an intake air wall in which a plurality of air intake holes are formed; and a cooling fan, characterised in that the intake air wall is located in front of the first heat sink with respect to the front-rear direction in which the air is allowed to pass through the first heat sink, the intake air wall has an external surface being inclined with respect to both the front-rear direction and a left-right direction and facing the first heat sink, and the cooling fan is disposed to feed air toward the intake air wall, and thereby supply the air to the first heat sink.
Food product forming apparatus with a mould drum, which comprises a multitude of product cavities, which each comprise a bottom wall and a sidewall and are totally made from a porous material and a seal member, preferably a seal plate, which sealingly cooperates with the surface of the mould drum, characterized in that the seal member comprises a venting means (17 - 20), wherein the venting means is a gap between the mould drum and the seal member..
Method for manufacturing an organic light-emitting device comprising a planar, internal and lambertian source of light having a refractive index and an optical layer separating the internal source of light and an external medium of light diffusion, the external medium having a refractive index lower than the source of light, characterised in that the method comprises the use of coherent electromagnetic radiation speckle lithography, such as laser speckle lithography, to make a nano/micro texturation on at least one surface of the optical layer.
Pneumatic carrier with a pneumatically pressurizable body which under operating pressure keeps a pressure member (96, 128 to 131') extending substantially over its length and a tension member (98, 138 to 141') likewise extending substantially over its length (l) operably spaced from one another, the pressure member (96, 128 to 131') and the tension member (98, 138 to 141') being connected to one another at the ends in connecting nodes, characterized in that the pneumatically pressurizable body has pneumatic transverse fiber pressure plates (100, 165, 113 to 116) designed as drop stitch bodies.
Composite ion exchange membrane comprising: - a porous support having a thickness between 10 and 600 μm and an median pore size between 10 and 10000 nm, wherein the median pore size is determined by mercury intrusion porosimetry, - an ion exchange layer which is coated onto at least one side of said porous support, wherein said ion exchange layer has a thickness between 10 and 100 μm and said ion exchange layer comprises poly(ethylenimine) PEI, wherein the thickness of said ion exchange layer is measured by image analysis of microscopy images. - a porous support having a thickness between 10 and 600 μm and an median pore size between 10 and 10000 nm, wherein the median pore size is determined by mercury intrusion porosimetry, - an ion exchange layer which is coated onto at least one side of said porous support, wherein said ion exchange layer has a thickness between 10 and 100 μm and said ion exchange layer comprises poly(ethylenimine) PEI, wherein the thickness of said ion exchange layer is measured by image analysis of microscopy images.
A shoulder implant comprising: a fixed bearing defining a stop surface (S 1, S 2) and having a generally spherical articulating surface configured to be coupled to a glenoid; a floating bearing member defining a first spherical bearing surface and a second planar articulating bearing surface; and a stem defining a stem planar bearing surface coupled to the second planar articulating bearing surface, wherein the second planar articulating bearing surface cooperates with the stem planar bearing surface to enable the floating bearing member to translate relative to the stem when the floating bearing member is contacted by the stop surface (S 1, S 2). a fixed bearing defining a stop surface (S 1, S 2) and having a generally spherical articulating surface configured to be coupled to a glenoid; a floating bearing member defining a first spherical bearing surface and a second planar articulating bearing surface; and a stem defining a stem planar bearing surface coupled to the second planar articulating bearing surface, wherein the second planar articulating bearing surface cooperates with the stem planar bearing surface to enable the floating bearing member to translate relative to the stem when the floating bearing member is contacted by the stop surface (S 1, S 2).
A door sealing system for fastening to a door, said door sealing system having a door seal, wherein the door seal has a guide rail and a sealing member, wherein the guide rail extends approximately over the entire width of the door and wherein it has a substantially u-shaped cross section, and wherein the sealing member is held in the guide rail and, when the door is closed, seals a gap between the door and a floor or a ceiling, wherein the guide rail has an outer side which is formed substantially by two lateral walls, which extend approximately parallel with respect to each other, and a web, which connects said two lateral walls to each other, wherein the door sealing system has an air channel which ensures air circulation from a first side of the door to a second side of the door and wherein the air channel extends along the aforementioned outer side of the guide rail, characterized in that a sound absorbing resonator (10, 70, 11, 71) is present in the air channel.
A power management unit comprising: a switching device control output for controlling a switching device; a device power supply current measurement input comprising a rechargeable battery current measurement input; and a switching device model circuitry coupled to the switching device control output and the device power supply current measurement input, the switching device model circuitry configured to provide a model parameter for the switching device; and a charging logic configured to: determine, from the device power supply current measurement input, the charging current drawn from a charging power source; and adjust the switching device control output according to the model parameter to control the charging current. a switching device control output for controlling a switching device; a device power supply current measurement input comprising a rechargeable battery current measurement input; and a switching device model circuitry coupled to the switching device control output and the device power supply current measurement input, the switching device model circuitry configured to provide a model parameter for the switching device; and a charging logic configured to: determine, from the device power supply current measurement input, the charging current drawn from a charging power source; and adjust the switching device control output according to the model parameter to control the charging current. determine, from the device power supply current measurement input, the charging current drawn from a charging power source; and adjust the switching device control output according to the model parameter to control the charging current.
A method for obtaining warp knit fabric from cotton yarns (11, 12, 13) in warp knitting fabrics intended to be used in designs of different constructions, comprising the process steps of: • using cotton yarn of two or more multiple twisted cotton yarns as the warp yarn, • using carded cotton as the ground yarn and weaving the fabric in a warp knitting machine, • applying conventional bleaching and dying processes, characterized in comprising the process steps of: • using cotton yarn through twisting two or more multiple twisted cotton yarns with PVA yarn as the pile yarn, ▪ using cotton yarn through twisting two or more multiple twisted cotton yarns as the ground yarn, and • treating the obtained fabric with acid at 90 °C fo r 20 minutes and removing the PVA yarn from the fabric. • using cotton yarn of two or more multiple twisted cotton yarns as the warp yarn, • using carded cotton as the ground yarn and weaving the fabric in a warp knitting machine, • applying conventional bleaching and dying processes, • using cotton yarn through twisting two or more multiple twisted cotton yarns with PVA yarn as the pile yarn, ▪ using cotton yarn through twisting two or more multiple twisted cotton yarns as the ground yarn, and • treating the obtained fabric with acid at 90 °C fo r 20 minutes and removing the PVA yarn from the fabric.
A push-pull converter configured to convert an input voltage to an output voltage according to a transfer ratio, wherein the push-pull converter comprises: a transformer comprising a first set of transformer windings and a second set of transformer windings, wherein the first and second sets of transformer windings (411, 412) are arranged with opposite polarity with respect to each other; a first switch transistor arranged to operatively provide the input voltage to the first set of transformer windings such that the transfer ratio is obtainable; a second switch transistor arranged to operatively provide the input voltage to the second set of transformer windings such that the transfer ratio is obtainable; a first rectification transistor arranged to operatively receive a first part of the output voltage from the first set of transformer windings such that the transfer ratio is obtainable; characterised in that the push-pull converter further comprises a second rectification transistor arranged to operatively receive a second part of the output voltage from the second set of transformer windings such that the transfer ratio is obtainable; wherein the push-pull converter is configured to: synchronously operate the first switch transistor and the first rectification transistor; synchronously operate the second switch transistor and the second rectification transistor; and operate the first and second switch transistors (421, 422) 180 degrees out of phase with respect to each other. a transformer comprising a first set of transformer windings and a second set of transformer windings, wherein the first and second sets of transformer windings (411, 412) are arranged with opposite polarity with respect to each other; a first switch transistor arranged to operatively provide the input voltage to the first set of transformer windings such that the transfer ratio is obtainable; a second switch transistor arranged to operatively provide the input voltage to the second set of transformer windings such that the transfer ratio is obtainable; a first rectification transistor arranged to operatively receive a first part of the output voltage from the first set of transformer windings such that the transfer ratio is obtainable; characterised in that the push-pull converter further comprises a second rectification transistor arranged to operatively receive a second part of the output voltage from the second set of transformer windings such that the transfer ratio is obtainable; wherein the push-pull converter is configured to: synchronously operate the first switch transistor and the first rectification transistor; synchronously operate the second switch transistor and the second rectification transistor; and operate the first and second switch transistors (421, 422) 180 degrees out of phase with respect to each other. synchronously operate the first switch transistor and the first rectification transistor; synchronously operate the second switch transistor and the second rectification transistor; and operate the first and second switch transistors (421, 422) 180 degrees out of phase with respect to each other.
An in vitro method for producing a genome edited cell, comprising the step of introducing (a) an artificial nuclease system which cleaves both ends of a genome editing target region, and (b) a single-stranded DNA which contains a nucleic acid sequence comprising a 5'-side homology arm sequence, a donor DNA sequence, and a 3'-side homology arm sequence in this order from a 5'-side, the 5'-side homology arm sequence being a homologous sequence of one nucleic acid sequence outside the genome editing target region and 110 bases long or more, the donor DNA sequence being 200 bases long or more and 800 bases long or less, and the 3'-side homology arm sequence being a homologous sequence of the other nucleic acid sequence outside the genome editing target region, into a cell by an electroporation method, wherein the cell is not a human zygote. (a) an artificial nuclease system which cleaves both ends of a genome editing target region, and (b) a single-stranded DNA which contains a nucleic acid sequence comprising a 5'-side homology arm sequence, a donor DNA sequence, and a 3'-side homology arm sequence in this order from a 5'-side, the 5'-side homology arm sequence being a homologous sequence of one nucleic acid sequence outside the genome editing target region and 110 bases long or more, the donor DNA sequence being 200 bases long or more and 800 bases long or less, and the 3'-side homology arm sequence being a homologous sequence of the other nucleic acid sequence outside the genome editing target region, into a cell by an electroporation method, wherein the cell is not a human zygote.
A method for processing unhardened concrete, the method comprising: a) estimating a quantity of returned concrete; b) adding a foam comprising a foaming agent and/or adding an expansive agent to the quantity of returned concrete to increase the porosity of the concrete by creating bubbles in the returned concrete; c) where the foaming agent comprises at least one of a foam liquid concentrate, an air-generating admixture; and/or a surfactant; wherein the foam liquid concentrate is a synthetic foam liquid concentrate and/or a protein-based foam liquid concentrate; d) where the expansive agent comprises at least one of an aluminum powder, hydrogen peroxide, and/or expandable microspheres; e) mixing the added foam and returned concrete together in a ready-mixed concrete truck or mixing device to create treated concrete; f) discharging the treated concrete; g) allowing the treated concrete to set into a hardened form, thereby to decrease the compressive strength relative to the strength of the original returned concrete; h) converting the hardened treated concrete into a particulate or aggregate form loose material; i) utilizing the particulate or aggregate form loose material. a) estimating a quantity of returned concrete; b) adding a foam comprising a foaming agent and/or adding an expansive agent to the quantity of returned concrete to increase the porosity of the concrete by creating bubbles in the returned concrete; c) where the foaming agent comprises at least one of a foam liquid concentrate, an air-generating admixture; and/or a surfactant; wherein the foam liquid concentrate is a synthetic foam liquid concentrate and/or a protein-based foam liquid concentrate; d) where the expansive agent comprises at least one of an aluminum powder, hydrogen peroxide, and/or expandable microspheres; e) mixing the added foam and returned concrete together in a ready-mixed concrete truck or mixing device to create treated concrete; f) discharging the treated concrete; g) allowing the treated concrete to set into a hardened form, thereby to decrease the compressive strength relative to the strength of the original returned concrete; h) converting the hardened treated concrete into a particulate or aggregate form loose material; i) utilizing the particulate or aggregate form loose material.