mhurhangee/ep-ind-claims huggingface dataset:
A continuous process for the production of an alkyl ester product comprising the steps of carbonylating ethylene with carbon monoxide in the presence of C 1-6 alkanol co-reactant to form the said alkyl ester product, wherein the carbonylation takes place in the presence of a catalyst system comprising; a. a bidentate ligand, b. a catalytic metal selected from a group 8, 9 or 10 metal or a compound thereof, and c. a sulphonic acid capable of forming an acid alkyl ester with the C 1-6 alkanol, the process including the step of separating the formed alkyl ester product from a carbonylated crude product stream by suitable treatment effective to vaporise the alkyl ester product in a single stage flash distillation column and provide a purified alkyl ester product stream separated from the said bidentate ligand and catalytic metal, wherein the said distillation column includes further separation means effective to provide further separation of the product wherein the further separation means is packing in or associated with the upper part of the flash distillation column and/or is provided by trays. a. a bidentate ligand, b. a catalytic metal selected from a group 8, 9 or 10 metal or a compound thereof, and c. a sulphonic acid capable of forming an acid alkyl ester with the C 1-6 alkanol,
An endoprosthesis, comprising: a tubular framework having first end and second ends, the framework defining large fenestrations; a cover formed of a deposited metallic film generally coextensive with at least a portion of the framework, the metallic film having a thickness of less than about 50 μm and having smaller fenestrations; characterized in that a polymer layer secures the tubular framework and the deposited metallic film together. a tubular framework having first end and second ends, the framework defining large fenestrations; a cover formed of a deposited metallic film generally coextensive with at least a portion of the framework, the metallic film having a thickness of less than about 50 μm and having smaller fenestrations; characterized in that a polymer layer secures the tubular framework and the deposited metallic film together.
A method of image processing, the method comprising: receiving a plurality of images capturing a single scene, each image taken at a different time across a span of time; detecting a non-stationary object in the plurality of images; receiving a user selection of a frame region of a first image of the plurality of images; and determining whether the frame region includes the non-stationary object; wherein if the determination is that the frame region includes the non-stationary object the method further comprises: selecting a second image (501, 507) of the plurality of images in which the non-stationary object is absent within the frame region; replacing image data in the frame region of the first image with image data from the frame region of the second image (501, 507); and displaying the first image with the replaced image data on a display; wherein if the determination is that the frame region does not include the non-stationary object the method further comprises: outputting an error message indicating that the frame region of the first image cannot be deleted. receiving a plurality of images capturing a single scene, each image taken at a different time across a span of time; detecting a non-stationary object in the plurality of images; receiving a user selection of a frame region of a first image of the plurality of images; and determining whether the frame region includes the non-stationary object; wherein if the determination is that the frame region includes the non-stationary object the method further comprises: selecting a second image (501, 507) of the plurality of images in which the non-stationary object is absent within the frame region; replacing image data in the frame region of the first image with image data from the frame region of the second image (501, 507); and displaying the first image with the replaced image data on a display; selecting a second image (501, 507) of the plurality of images in which the non-stationary object is absent within the frame region; replacing image data in the frame region of the first image with image data from the frame region of the second image (501, 507); and displaying the first image with the replaced image data on a display; wherein if the determination is that the frame region does not include the non-stationary object the method further comprises: outputting an error message indicating that the frame region of the first image cannot be deleted.
An implantable nerve stimulation device, comprising: a sensor system; a data processor in communication with said sensor system; and a nerve stimulation system in communication with said data processor and constructed to provide electrical stimulation to at least one branch of at least one vestibulocochlear nerve, wherein said nerve stimulation system comprises an electrode array, and wherein said electrode array of said nerve stimulation system comprises a first plurality of electrodes structured to be surgically implanted in electrical communication with a superior branch of said vestibular nerve, a second plurality of electrodes structured to be surgically implanted in electrical communication with a horizontal branch of said vestibular nerve, a third plurality of electrodes structured to be surgically implanted in electrical communication with a posterior branch of said vestibular nerve, and a reference electrode, characterized in that the reference electrode is a common crus reference electrode that is structured to be surgically implanted into a common crus of the vestibular labyrinth. a sensor system; a data processor in communication with said sensor system; and a nerve stimulation system in communication with said data processor and constructed to provide electrical stimulation to at least one branch of at least one vestibulocochlear nerve, wherein said nerve stimulation system comprises an electrode array, and wherein said electrode array of said nerve stimulation system comprises a first plurality of electrodes structured to be surgically implanted in electrical communication with a superior branch of said vestibular nerve, a second plurality of electrodes structured to be surgically implanted in electrical communication with a horizontal branch of said vestibular nerve, a third plurality of electrodes structured to be surgically implanted in electrical communication with a posterior branch of said vestibular nerve, and a reference electrode, characterized in that the reference electrode is a common crus reference electrode that is structured to be surgically implanted into a common crus of the vestibular labyrinth.
A device comprising a substrate lens antenna, the device comprising - a leaky wave antenna structure (10, 12) having a feed point and a first and second wave propagation branch extending from the feed point in mutually different directions in a first plane; - a lens shaped dielectric body having a plane surface containing a focal point of the lens shaped dielectric body, the plane surface located adjacent the first plane, with the focal point adjacent the feed point, characterized by a spacer between the leaky wave antenna structure (10, 12) and the lens shaped dielectric body, the spacer providing for a gap between the leaky wave antenna structure (10, 12) and the plane surface of the lens shaped dielectric body, at least along the branches, the gap increasing a speed of propagation of the electromagnetic waves along the branches. - a leaky wave antenna structure (10, 12) having a feed point and a first and second wave propagation branch extending from the feed point in mutually different directions in a first plane; - a lens shaped dielectric body having a plane surface containing a focal point of the lens shaped dielectric body, the plane surface located adjacent the first plane, with the focal point adjacent the feed point, characterized by a spacer between the leaky wave antenna structure (10, 12) and the lens shaped dielectric body, the spacer providing for a gap between the leaky wave antenna structure (10, 12) and the plane surface of the lens shaped dielectric body, at least along the branches, the gap increasing a speed of propagation of the electromagnetic waves along the branches.
A composition-of-matter comprising at least one composite, said at least one composite comprises a metal carbonate salt and at least one organic agent included within a crystal lattice of said salt, wherein said at least one organic agent comprises a functional group wherein: said organic agent is a drug; said organic agent is doped within the crystal lattice; said crystal lattice is a single crystal; said composition-of-matter is characterized by an X-Ray Powder Diffraction which is devoid of peaks at positions that correspond to said at least one organic agent; and wherein said composite is characterized by a crystal lattice strain in the c-axis and/or in the a-axis of at least 3×10 -4; said composition is characterized by an XRD exhibiting at least one peak having a different width compared to a width of a corresponding peak in an XRD of the non-doped metal carbonate salt; and wherein said different width corresponds to a broadening of the at least one peak by 2% to 1000% as measured by a full width at half maximum (FWHM). said organic agent is a drug; said organic agent is doped within the crystal lattice; said crystal lattice is a single crystal; said composition-of-matter is characterized by an X-Ray Powder Diffraction which is devoid of peaks at positions that correspond to said at least one organic agent; and wherein said composite is characterized by a crystal lattice strain in the c-axis and/or in the a-axis of at least 3×10 -4; said composition is characterized by an XRD exhibiting at least one peak having a different width compared to a width of a corresponding peak in an XRD of the non-doped metal carbonate salt; and wherein said different width corresponds to a broadening of the at least one peak by 2% to 1000% as measured by a full width at half maximum (FWHM).
The method of protecting footwear, such as a fabric shoe or trainer from being worn thin through wear, the method comprising: providing an applicator (2, 2L, 2R) with a protective footwear device comprising a patch, the applicator configured to apply the patch to footwear prior to removal of the applicator from the footwear, wherein the applicator is in the form of a card having a template of at least a partial foot printed thereon, the applicator having the patch temporarily adhered to a surface of the template in a toe region of the sole, wherein a low-tack semi-permanent adhesive applied an inner surface of the patch to an intended upper surface of the applicator, the low-tack semi-permanent adhesive configured to allow the patch to disengage from the applicator when a pulling force is applied, and wherein at least part of an outer surface of the patch is provided with a double-sided adhesive with a detachable liner attached to the outer surface of the double-sided adhesive; removing the detachable liner from the patch; placing the template with uncovered patch into the footwear to be protected; applying pressure to an outer surface of the footwear in the region in which the patch is to be internally applied to the footwear to securely attach the patch to an inner surface of the footwear; and applying a pulling force to the applicator to disengage the patch from the applicator and removing the applicator comprising the template from the footwear to leave the patch adhered to the footwear. providing an applicator (2, 2L, 2R) with a protective footwear device comprising a patch, the applicator configured to apply the patch to footwear prior to removal of the applicator from the footwear, wherein the applicator is in the form of a card having a template of at least a partial foot printed thereon, the applicator having the patch temporarily adhered to a surface of the template in a toe region of the sole, wherein a low-tack semi-permanent adhesive applied an inner surface of the patch to an intended upper surface of the applicator, the low-tack semi-permanent adhesive configured to allow the patch to disengage from the applicator when a pulling force is applied, and wherein at least part of an outer surface of the patch is provided with a double-sided adhesive with a detachable liner attached to the outer surface of the double-sided adhesive; removing the detachable liner from the patch; placing the template with uncovered patch into the footwear to be protected; applying pressure to an outer surface of the footwear in the region in which the patch is to be internally applied to the footwear to securely attach the patch to an inner surface of the footwear; and applying a pulling force to the applicator to disengage the patch from the applicator and removing the applicator comprising the template from the footwear to leave the patch adhered to the footwear.
Use of a modified epoxy(meth)acrylate that may be obtained through a process, in which organic compounds that have epoxide groups are converted with (meth)acrylic acid in the presence of a suitable catalyst and then after at least 80% of the epoxide groups were converted, the product is partly converted with the anhydride of a saturated dicarboxylic acid, as a binder in radically hardenable resin mixtures or in radically hardenable reaction resin mortar compounds.
A method for tissue classification in a region of interest of a subject in a magnetic resonance image comprising a first region and a second region, wherein the first region represents an air cavity and the second region represents bone, wherein the method comprises the steps of: - acquiring a first magnetic resonance image comprising a representation of the first and the second region and; - inducing a shape change in said air cavity or waiting for a shape change in said air cavity to happen and; - acquiring a second magnetic resonance image comprising a representation of the first and the second region, wherein the first region has a different shape during the acquisition of the second magnetic resonance image compared to during the acquisition of the first magnetic resonance image as a result of inducing said shape change in said air cavity or waiting for said shape change in said air cavity to happen; - identifying the first region and second region in the first and second images and; - comparing the first image and the second image with respect to the representation of the first region and the second region and; - classifying the first region as a region representing air based on a presence of a shape difference between the first and the second images and classifying the second region as bone based on an absence of the shape difference between the first and second images. - acquiring a first magnetic resonance image comprising a representation of the first and the second region and; - inducing a shape change in said air cavity or waiting for a shape change in said air cavity to happen and; - acquiring a second magnetic resonance image comprising a representation of the first and the second region, wherein the first region has a different shape during the acquisition of the second magnetic resonance image compared to during the acquisition of the first magnetic resonance image as a result of inducing said shape change in said air cavity or waiting for said shape change in said air cavity to happen; - identifying the first region and second region in the first and second images and; - comparing the first image and the second image with respect to the representation of the first region and the second region and; - classifying the first region as a region representing air based on a presence of a shape difference between the first and the second images and classifying the second region as bone based on an absence of the shape difference between the first and second images.
A combination of N -(2-((6-(3-(2,6-dichloro-3,5-dimethoxyphenyl)-1-methylureido)pyrimidin-4-yl)amino)-5-(4-ethylpiperazin-1-yl)phenyl)acrylamide or a pharmaceutically acceptable salt thereof and a CDK 4/6 inhibitor or a pharmaceutically acceptable salt thereof for use in treating hepatocellular carcinoma in a patient in need thereof.
A method for preparing cell therapeutic agent comprising: 1) introducing cytosine deaminase into a mesenchymal stem cell to prepare mesenchymal stem cell/cytosine deaminase (MSC/CD) and then culturing; 2) freezing the cultured MSC/CD to prepare frozen MSC/CD; and 3) thawing and suspending the frozen MSC/CD to prepare cell therapeutic agent, wherein the MSC/CD is not subjected to cell culturing after freezing and thawing. 1) introducing cytosine deaminase into a mesenchymal stem cell to prepare mesenchymal stem cell/cytosine deaminase (MSC/CD) and then culturing; 2) freezing the cultured MSC/CD to prepare frozen MSC/CD; and 3) thawing and suspending the frozen MSC/CD to prepare cell therapeutic agent,
A composition for target substance detection comprising: a magnetic nanoparticle having a Curie temperature within the range of 0°C to 41°C, comprising a lanthanum metal, a strontium metal, and manganese oxide, and consisting of 0.5 to 1 molar fraction of the lanthanum metal and 0.01 to 0.5 molar fraction of the strontium metal relative to 1 molar fraction of the manganese oxide; and a composite consisting of a magnet and an antibody; wherein the magnet is a conductive material. a magnetic nanoparticle having a Curie temperature within the range of 0°C to 41°C, comprising a lanthanum metal, a strontium metal, and manganese oxide, and consisting of 0.5 to 1 molar fraction of the lanthanum metal and 0.01 to 0.5 molar fraction of the strontium metal relative to 1 molar fraction of the manganese oxide; and a composite consisting of a magnet and an antibody; wherein the magnet is a conductive material.
An optical element (1,1',1",1′′′) for vehicles, comprising: a light incident section (10, 10', 10", 10′′′) for receiving light directly from a light source; a light exit section (30, 30', 30", 30′′′) having a focal plane; and a third section (20, 20', 20", 20′′′) that directs light from the light incident section (10, 10', 10", 10"') toward the light exit section (30, 30', 30", 30"') in a predetermined manner to generate a predetermined low beam or high beam distribution, the third section (20, 20', 20", 20"') being arranged between the light incident section (10, 10', 10", 10′′′) and the light exit section (30, 30', 30", 30′′′), wherein the optical element (1, 1', 1", 1′′′) is implemented integrally, wherein the third section (20, 20', 20", 20′′′) has a recess, a surface of the recess correspondingly forming a first light-refractive surface (21, 21', 21", 21′′′) facing the light incident section, a second light-refractive surface (24, 24', 24", 24"') facing the light exit section, and a light-reflective surface (22, 22', 22", 22"') between the first light-refractive surface and the second light-refractive surface, wherein a focal plane of at least a portion of the first light-refractive surface at least approximately coincides with the focal plane of the light exit section, characterised in that the at least a portion of the light is refracted at the first light-refractive surface (21, 21', 21", 21′′′) and propagates toward the focal plane of the first light-refractive surface. a light incident section (10, 10', 10", 10′′′) for receiving light directly from a light source; a light exit section (30, 30', 30", 30′′′) having a focal plane; and a third section (20, 20', 20", 20′′′) that directs light from the light incident section (10, 10', 10", 10"') toward the light exit section (30, 30', 30", 30"') in a predetermined manner to generate a predetermined low beam or high beam distribution, the third section (20, 20', 20", 20"') being arranged between the light incident section (10, 10', 10", 10′′′) and the light exit section (30, 30', 30", 30′′′), wherein the optical element (1, 1', 1", 1′′′) is implemented integrally, wherein the third section (20, 20', 20", 20′′′) has a recess, a surface of the recess correspondingly forming a first light-refractive surface (21, 21', 21", 21′′′) facing the light incident section, a second light-refractive surface (24, 24', 24", 24"') facing the light exit section, and a light-reflective surface (22, 22', 22", 22"') between the first light-refractive surface and the second light-refractive surface, wherein a focal plane of at least a portion of the first light-refractive surface at least approximately coincides with the focal plane of the light exit section, characterised in that the at least a portion of the light is refracted at the first light-refractive surface (21, 21', 21", 21′′′) and propagates toward the focal plane of the first light-refractive surface.
A touch panel comprising: a substrate; a sensing electrode (200; 201) on the substrate; said sensing electrode being arranged in the shape of a mesh, a first buffer layer comprising a top buffer layer (401; 412) on the sensing electrode (200; 201); characterized in that the top buffer layer (401;412) comprises a first reflection prevention part and a second reflection prevention part, the first reflection prevention part being disposed at the top surface of the sensing electrode (200;201) and the second reflection prevention part extending from the first reflection prevention part and being disposed at two lateral sides of the sensing electrode (200;201). a substrate; a sensing electrode (200; 201) on the substrate; said sensing electrode being arranged in the shape of a mesh, a first buffer layer comprising a top buffer layer (401; 412) on the sensing electrode (200; 201); characterized in that the top buffer layer (401;412) comprises a first reflection prevention part and a second reflection prevention part, the first reflection prevention part being disposed at the top surface of the sensing electrode (200;201) and the second reflection prevention part extending from the first reflection prevention part and being disposed at two lateral sides of the sensing electrode (200;201).
An isolated antibody or antigen-binding fragment thereof that specifically binds to HLA-B ∗ 27, wherein the antibody or antigen-binding fragment comprises HCDR1-HCDR2-HCDR3-LCDR1-LCDR2-LCDR3 domains, respectively, having the amino acid sequence of SEQ ID NOs: 148-150-152-156-158-160.
A process for producing odor-inhibiting water-absorbing composites comprising water-absorbing polymer particles and fibers, which comprises a) premixing the fibers with at least one metal peroxide, metal hyperoxide or metal ozonide and then b) mixing the water-absorbing polymer particles with the premix a).