mhurhangee/ep-ind-claims huggingface dataset:
A method to produce a transparent photocatalytic coating on a stainless steel substrate characterized in that it consists on the stages of: (a) preparing the solution of a hydrolyzed epoxysilane compound said solution consisting on one epoxysilane, water and isopropanol; (b) adding to the solution produced in (a) crystalline titanium dioxide nanoparticles in the form of powder, with a proportion of anatase phase over 75%, in a proportion of 1-15% by weight with respect to the total weight of the solution; (c) adding to the solution produced in (b) a catalyst consisting of a polyetheramine; (d) coating the metal substrate with the solution produced in (c); and (e) subjecting the coated metal substrate to a thermal treatment. (a) preparing the solution of a hydrolyzed epoxysilane compound said solution consisting on one epoxysilane, water and isopropanol; (b) adding to the solution produced in (a) crystalline titanium dioxide nanoparticles in the form of powder, with a proportion of anatase phase over 75%, in a proportion of 1-15% by weight with respect to the total weight of the solution; (c) adding to the solution produced in (b) a catalyst consisting of a polyetheramine; (d) coating the metal substrate with the solution produced in (c); and (e) subjecting the coated metal substrate to a thermal treatment.
A sandwich white adipose tissue (SWAT) cell culture system for culturing white adipose tissue, comprising: a first surface configured to culture a first layer of supporting cells; and a second surface configured to culture a second layer of supporting cells, wherein the first layer of supporting cells is formed on a portion of the first surface and the second layer of supporting cells is formed on a portion of the second surface, wherein the white adipose tissue is added to the first layer of supporting cells, and the second layer of supporting cells is placed on the first layer of supporting cells such that the white adipose tissue is sandwiched between the first layer of supporting cells and the second layer of supporting cells, and wherein at least one of the first and second layers of supporting cells include adipose tissue-derived stem cells, muscle cells, pluripotent cells including embryonic stem cells, multipotent cells including adipose derived stem cells, neuronal stem cells, muscle stem cells, stromal cells including fibroblasts, pericytes, or 3T3-L1. a first surface configured to culture a first layer of supporting cells; and a second surface configured to culture a second layer of supporting cells, wherein the first layer of supporting cells is formed on a portion of the first surface and the second layer of supporting cells is formed on a portion of the second surface, wherein the white adipose tissue is added to the first layer of supporting cells, and the second layer of supporting cells is placed on the first layer of supporting cells such that the white adipose tissue is sandwiched between the first layer of supporting cells and the second layer of supporting cells, and wherein at least one of the first and second layers of supporting cells include adipose tissue-derived stem cells, muscle cells, pluripotent cells including embryonic stem cells, multipotent cells including adipose derived stem cells, neuronal stem cells, muscle stem cells, stromal cells including fibroblasts, pericytes, or 3T3-L1.
A switch comprising: a hermetically sealed container including a container wall formed of a non-magnetic body and separating an inside of the hermetically sealed container from an outside of the hermetically sealed container; a magnetic sensor arranged in the hermetically sealed container and configured to be turned ON/OFF by a magnetic field of a magnet acting from the outside of the hermetically sealed container through the container wall of the hermetically sealed container; and a first magnetic body provided at the container wall of the hermetically sealed container and serving as a path of the magnetic field acting on the magnetic sensor from the magnet, characterized in that the switch further comprises: a substrate provided with the magnetic sensor; a substrate holding member provided in the hermetically sealed container to hold the substrate to cause a surface of the substrate provided with the magnetic sensor to face the container wall of the hermetically sealed container, and to cover a space above the magnetic sensor provided on the substrate; and a second magnetic body provided at the substrate holding member and facing the first magnetic body and the magnetic sensor, wherein a gap is provided between the first magnetic body and the second magnetic body. a hermetically sealed container including a container wall formed of a non-magnetic body and separating an inside of the hermetically sealed container from an outside of the hermetically sealed container; a magnetic sensor arranged in the hermetically sealed container and configured to be turned ON/OFF by a magnetic field of a magnet acting from the outside of the hermetically sealed container through the container wall of the hermetically sealed container; and a first magnetic body provided at the container wall of the hermetically sealed container and serving as a path of the magnetic field acting on the magnetic sensor from the magnet, characterized in that the switch further comprises: a substrate provided with the magnetic sensor; a substrate holding member provided in the hermetically sealed container to hold the substrate to cause a surface of the substrate provided with the magnetic sensor to face the container wall of the hermetically sealed container, and to cover a space above the magnetic sensor provided on the substrate; and a second magnetic body provided at the substrate holding member and facing the first magnetic body and the magnetic sensor, wherein a gap is provided between the first magnetic body and the second magnetic body. a substrate provided with the magnetic sensor; a substrate holding member provided in the hermetically sealed container to hold the substrate to cause a surface of the substrate provided with the magnetic sensor to face the container wall of the hermetically sealed container, and to cover a space above the magnetic sensor provided on the substrate; and a second magnetic body provided at the substrate holding member and facing the first magnetic body and the magnetic sensor, wherein a gap is provided between the first magnetic body and the second magnetic body.
An X-ray image obtaining apparatus, the apparatus comprising: a radiation unit (110; 510; 610; 710) to radiate a plurality of X-rays, each of the plurality of X-rays having a different energy level; a sensor unit (120; 520; 620; 720) including a scintillator panel to generate light upon incidence of at least one X-ray, the sensor unit being divided into pixel blocks including a plurality of pixels, the scintillator panel extending along two perpendicular directions, thereby forming a plane, and the scintillator panel being divided in a plurality of layer blocks, wherein each layer block corresponds to a respective pixel block, each layer block comprising a plurality of scintillator layers that are adjacently arranged in said plane and that respectively correspond to the plurality of pixels in the corresponding pixel block, but wherein a thickness (t 1 -t 4) of that layer is different for each pixel in a given pixel block, wherein said sensor unit is formed by a regular repetition of said pixel blocks in each of said two perpendicular directions and an image generating unit to generate a plurality of first X-ray images using an electronic signal transduced from the light, and generate a second X-ray image based on the plurality of first x-ray images; characterized in that the type of material of the scintillator layer is identical for each pixel, and in that the radiation unit is configured to radiate the X-rays in a fan-beam shape thereby exposing only a part of the sensor unit to the X-rays, the radiation unit being further configured to rotate based on a rotation axis or to move up and down based on a vertical moving axis in order to radiate the X-rays across the entire sensor unit. a radiation unit (110; 510; 610; 710) to radiate a plurality of X-rays, each of the plurality of X-rays having a different energy level; a sensor unit (120; 520; 620; 720) including a scintillator panel to generate light upon incidence of at least one X-ray, the sensor unit being divided into pixel blocks including a plurality of pixels, the scintillator panel extending along two perpendicular directions, thereby forming a plane, and the scintillator panel being divided in a plurality of layer blocks, wherein each layer block corresponds to a respective pixel block, each layer block comprising a plurality of scintillator layers that are adjacently arranged in said plane and that respectively correspond to the plurality of pixels in the corresponding pixel block, but wherein a thickness (t 1 -t 4) of that layer is different for each pixel in a given pixel block, wherein said sensor unit is formed by a regular repetition of said pixel blocks in each of said two perpendicular directions and an image generating unit to generate a plurality of first X-ray images using an electronic signal transduced from the light, and generate a second X-ray image based on the plurality of first x-ray images;
A liquid material dispenser (150, 180, 200a), comprising: a manifold (152, 182, 202a) adapted to receive pressurized air and liquid material, said manifold having a first liquid material passage for supplying a first liquid material stream, and a first air passage for supplying a first air stream, a first dispensing device coupled to said manifold and including a first liquid passageway communicating with said first liquid material passage, and a first air passageway communicating with said first air passage; a first control (158, 190, 212a, 212b) in said manifold, said first control operative to adjust a first flow rate of the process air distributed to said first dispensing device; characterized by a second liquid material passage for supplying a second liquid material stream and a second air passage for supplying a second air stream in said manifold (152, 182, 202a); a second dispensing device coupled to said manifold and including a second liquid passageway communicating with said second liquid material passage, and a second air passageway communicating with said second air passage; and a second control (158, 190, 212a, 212b) in said manifold, said second control operative to adjust a second flow rate of the process air distributed to said second dispensing device independent of said first flow rate of the process air distributed to said first dispensing device. a manifold (152, 182, 202a) adapted to receive pressurized air and liquid material, said manifold having a first liquid material passage for supplying a first liquid material stream, and a first air passage for supplying a first air stream, a first dispensing device coupled to said manifold and including a first liquid passageway communicating with said first liquid material passage, and a first air passageway communicating with said first air passage; a first control (158, 190, 212a, 212b) in said manifold, said first control operative to adjust a first flow rate of the process air distributed to said first dispensing device; characterized by a second liquid material passage for supplying a second liquid material stream and a second air passage for supplying a second air stream in said manifold (152, 182, 202a); a second dispensing device coupled to said manifold and including a second liquid passageway communicating with said second liquid material passage, and a second air passageway communicating with said second air passage; and a second control (158, 190, 212a, 212b) in said manifold, said second control operative to adjust a second flow rate of the process air distributed to said second dispensing device independent of said first flow rate of the process air distributed to said first dispensing device.
Suction device for separating particles from a suction flow, comprising a suction motor for generating the suction flow and a suction device housing having an operating wall for operating the suction device, wherein at least one module location is located at the operating wall for the accommodation of at least one function module (50a - 50d) providing an electric and/or optical and/or acoustic function, wherein an electric connecting assembly for an electric connection of the at least one function module (50a - 50d) to the suction device is located at the module location, and wherein the at least one function module (50a - 50d) is releasably connectable to the suction device housing by means of connecting means, characterised in that the suction device has a function module (50a - 50d), which can be located at the module location of the suction device and connected mechanically to the suction device by means of connecting means and electrically to an electric connecting assembly and which provides an electric and/or optical and/or acoustic function, and in that the function module (50a - 50d) has a wireless external interface for the wireless communication with the function module (50a - 50d) and/or the suction device.
An anti-IL-6 antibody comprising the variable light chain (V L) of SEQ ID NO:709 and the light chain constant region of SEQ ID NO:586; and the variable heavy chain (V H) of SEQ ID NO:657 and the heavy constant region of SEQ ID NO: 588, wherein the anti-IL-6 antibody is aglycosylated, for use in a method of treating a patient who has been diagnosed with advanced cancer, wherein the treatment improves the survivability or quality of life of the patient, and wherein the patient's human serum albumin ("HSA") level is increased after use of the antibody in said patient.
A nicotine chewing gum comprising gum base polymers, nicotine, and microcrystalline cellulose as a carrier for the nicotine, the gum base polymers comprising polyvinyl acetate and vinyl laurate-vinyl acetate copolymer in an amount of more than 90% by weight of the gum base polymers, wherein the gum base polymers include 20 - 95% by weight of polyvinyl acetate and 5 - 80% by weight of vinyl laurate-vinyl acetate copolymer, and wherein said microcrystalline cellulose is provided in the form of particles having an average particle size between 10 and 250 micrometers. the gum base polymers comprising polyvinyl acetate and vinyl laurate-vinyl acetate copolymer in an amount of more than 90% by weight of the gum base polymers, wherein the gum base polymers include 20 - 95% by weight of polyvinyl acetate and 5 - 80% by weight of vinyl laurate-vinyl acetate copolymer, and wherein said microcrystalline cellulose is provided in the form of particles having an average particle size between 10 and 250 micrometers.
A nozzle, comprising: a shaft having shaft inlet and a shaft outlet spaced from said shaft inlet; and a nozzle boot surrounding at least a portion of said shaft, said nozzle boot having a nozzle boot inlet and a nozzle boot outlet spaced from said nozzle boot inlet and a volume between said nozzle boot inlet and said nozzle boot outlet, characterized by said nozzle boot being a bellows that is expandable axially and radially relative to said shaft, from a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows, to a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet, upon the introduction of water under pressure into said volume from said nozzle boot inlet, and said bellows being further collapsible axially and radially relative to said shaft, from a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet, to a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows, upon withdrawal of water under pressure from said volume. a shaft having shaft inlet and a shaft outlet spaced from said shaft inlet; and a nozzle boot surrounding at least a portion of said shaft, said nozzle boot having a nozzle boot inlet and a nozzle boot outlet spaced from said nozzle boot inlet and a volume between said nozzle boot inlet and said nozzle boot outlet, characterized by said nozzle boot being a bellows that is expandable axially and radially relative to said shaft, from a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows, to a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet, upon the introduction of water under pressure into said volume from said nozzle boot inlet, and said bellows being further collapsible axially and radially relative to said shaft, from a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet, to a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows, upon withdrawal of water under pressure from said volume.
A de-registration method, comprising the steps of: receiving (201, 301), by a Home NodeB gateway, HNB GW, a register request initiated to the HNB GW by a user equipment, UE, wherein the register request is sent after the UE moves to another cell from a Home NodeB, HNB; detecting, by the HNB GW, whether the HNB GW itself has pre-registration resources corresponding to the UE, and if the HNB GW itself has the pre-registration resources corresponding to the UE, notifying that the HNB shall release pre-registration resources corresponding to the UE by sending a de-register request to the HNB, wherein the pre-registration resources comprise the UE Context ID. receiving (201, 301), by a Home NodeB gateway, HNB GW, a register request initiated to the HNB GW by a user equipment, UE, wherein the register request is sent after the UE moves to another cell from a Home NodeB, HNB; detecting, by the HNB GW, whether the HNB GW itself has pre-registration resources corresponding to the UE, and if the HNB GW itself has the pre-registration resources corresponding to the UE, notifying that the HNB shall release pre-registration resources corresponding to the UE by sending a de-register request to the HNB, wherein the pre-registration resources comprise the UE Context ID.
Strip-like lamination for a stator laminated core of an electrical machine, having a straight yoke region and teeth which are integrally connected to this yoke region, wherein the yoke region has a length (la) on that side of the yoke region which is averted from the teeth, the yoke region has a neutral bending line which has a length (ln), and the yoke region has a length (lz) on a side, which faces the teeth, on the far side of the neutral bending line, in each case having an end contour and in each case having an end tooth, which is delimited by the end contour, at a strip end in each case, wherein the two end teeth are designed such that, together, they form a tooth of the stator laminated core, characterized in that the length (la) on that side of the yoke region which is averted from the teeth is greater than the length (ln) of the neutral bending line, and the length (lz) on a side, which faces the teeth, on the far side of the neutral bending line is shorter than the neutral bending line, and in that as a result a difference in length, due to a bend, at the lamination is compensated for by the end contour, wherein each end contour together with an end tooth forms a concave end contour.
Equipment for the three-dimensional printing of continuous fiber composite materials, comprising: - a supplying head to supply at least one filiform element of continuous fibers comprising at least one fiber; - a movement assembly for the relative movement between the supplying head and the three-dimensional object to be printed so as to exert traction of the continuous filiform element; - a coupling unit to couple a quantity of material powder for a composite material matrix on said filiform element; said coupling unit being configured to deposit a determined quantity of powder on the continuous filiform element so as to form a prepreg filiform element; - an energy source configured to induce a phase change to the prepreg filiform element from the solid state to the liquid state; said energy source being positioned downstream of said coupling unit; characterized in that - said coupling unit is housed at least partially inside the supplying head so that the coupling between the determined quantity of powder and said continuous filiform element occurs inside the supplying head; - a supplying head to supply at least one filiform element of continuous fibers comprising at least one fiber; - a movement assembly for the relative movement between the supplying head and the three-dimensional object to be printed so as to exert traction of the continuous filiform element; - a coupling unit to couple a quantity of material powder for a composite material matrix on said filiform element; said coupling unit being configured to deposit a determined quantity of powder on the continuous filiform element so as to form a prepreg filiform element; - an energy source configured to induce a phase change to the prepreg filiform element from the solid state to the liquid state; said energy source being positioned downstream of said coupling unit; characterized in that - said coupling unit is housed at least partially inside the supplying head so that the coupling between the determined quantity of powder and said continuous filiform element occurs inside the supplying head;
Ferment extract of a strain of Bacillus pumilus species with deposit number LMG P-28202 for use in the stimulation of wound healing, wherein said ferment extract contains peptidic and glucidic material having a molecular weight of less than 7000 Da.