mhurhangee/ep-ind-claims huggingface dataset:
Warning triangle with a film, the film being stretched along a triangle plane of the warning triangle in an operational configuration of the warning triangle, a. wherein the film comprises at least one flat electric luminescent layer arranged along a film plane of the film for emitting visible light, characterized in that b. the film comprises at least one flat photovoltaic layer arranged along the film plane for supplying the luminescent layer with electrical energy, c. wherein the film comprises at least one energy storage layer arranged along the film plane for storing electrical energy to supply the luminescent layer, d. wherein the film comprises at least one flat induction layer arranged along the film plane for inductively charging the energy storage layer, e. wherein the at least one luminescent layer, the at least one energy storage layer, the at least one induction layer, and the at least one photovoltaic layer each comprise a plurality of material layers aligned along the film plane and having material compositions that differ from one another. a. wherein the film comprises at least one flat electric luminescent layer arranged along a film plane of the film for emitting visible light, characterized in that b. the film comprises at least one flat photovoltaic layer arranged along the film plane for supplying the luminescent layer with electrical energy, c. wherein the film comprises at least one energy storage layer arranged along the film plane for storing electrical energy to supply the luminescent layer, d. wherein the film comprises at least one flat induction layer arranged along the film plane for inductively charging the energy storage layer, e. wherein the at least one luminescent layer, the at least one energy storage layer, the at least one induction layer, and the at least one photovoltaic layer each comprise a plurality of material layers aligned along the film plane and having material compositions that differ from one another.
A method of manufacturing a poly(vinyl butyral) resin, comprising the steps: providing a high shear mixer; adding a continuous stream of poly(vinyl alcohol) to said high shear mixer; adding a continuous stream of butyraldehyde to said high shear mixer; mixing said stream of poly(vinyl alcohol) and said stream of butyraldehyde in a region of said high shear mixer wherein said streams are mixed at a shear rate of at least 20s -1 and wherein said stream of poly(vinyl alcohol) is at a temperature of greater than 95°C; and, processing said poly(vinyl butyral) resin from said high shear mixer. adding a continuous stream of poly(vinyl alcohol) to said high shear mixer; adding a continuous stream of butyraldehyde to said high shear mixer; mixing said stream of poly(vinyl alcohol) and said stream of butyraldehyde in a region of said high shear mixer wherein said streams are mixed at a shear rate of at least 20s -1 and wherein said stream of poly(vinyl alcohol) is at a temperature of greater than 95°C; and, processing said poly(vinyl butyral) resin from said high shear mixer.
A computer-implemented method for managing memory partitions in a computing system comprising: generating a first entry (330, 332, 334) for a first partition table associated with a first instance of a software application, wherein the first entry is associated with a first memory partition (A_1, A_2) that includes a first memory extent; determining that a first data block referenced by the first memory partition is shared with a second instance of the software application; and generating a second entry for a second partition table associated with a second instance of the software application, wherein the second entry is associated with the first memory partition that includes the first memory extent. generating a first entry (330, 332, 334) for a first partition table associated with a first instance of a software application, wherein the first entry is associated with a first memory partition (A_1, A_2) that includes a first memory extent; determining that a first data block referenced by the first memory partition is shared with a second instance of the software application; and generating a second entry for a second partition table associated with a second instance of the software application, wherein the second entry is associated with the first memory partition that includes the first memory extent.
A cutting implement for use with a drive unit, the cutting implement comprising: a hub that defines an outside surface, the outside surface configured to abut an inside surface of the drive unit; an outer tube rigidly coupled to the hub, the outer tube defines a longitudinal axis; an inner tube telescoped with the outer tube along the longitudinal axis; a first protrusion that extends radially outward from the outside surface of the hub and configured to align with and telescope in a corresponding slot in the drive unit; a latch disposed on the outside surface of the hub, the latch comprising an engaging member on an inside surface of the latch configured to engage with a corresponding annular groove on an outer surface of the drive unit, the latch comprising a hinge that defines a rotational axis, and wherein the rotational axis, projected onto the longitudinal axis, is perpendicular to the longitudinal axis; and a cutter defined at the distal end of the outer tube and inner tube.
A deagglomerated glass filler for sustained ion release obtained by sequentially performing a silane compound treatment step of coating a surface of a glass filler for sustained ion release with a silane compound to produce a silane compound-treated glass filler for sustained ion release, an acidic polymer treatment step of treating the silane compound-treated glass filler for sustained ion release with an acidic polymer to produce an acidic polymer-treated glass filler for sustained ion release, and a deagglomerating step of deagglomerating the acidic polymer-treated glass filler for sustained ion release, wherein the silane compound-treated glass filler for sustained ion release is agglomerated, and wherein a relationship among an MV value A of the glass filler for sustained ion release, an MV value B of the silane compound-treated glass filler for sustained ion release and an MV value C of the deagglomerated glass filler for sustained ion release satisfies the following formulas: B / A ≥ 2,and B / C ≥ 2, and 10000 ≥ B / A, and 10000 ≥ B / C, and wherein the MV value is adopted from a volume average size measurement, wherein deagglomerating is made so that the relationship between the MV value of the silane compound-treated glass filler for sustained ion release and the MV value of the glass filler for sustained ion release satisfies the following formula: B / A ≥ 2, preferably B / A ≥ 5. a silane compound treatment step of coating a surface of a glass filler for sustained ion release with a silane compound to produce a silane compound-treated glass filler for sustained ion release, an acidic polymer treatment step of treating the silane compound-treated glass filler for sustained ion release with an acidic polymer to produce an acidic polymer-treated glass filler for sustained ion release, and a deagglomerating step of deagglomerating the acidic polymer-treated glass filler for sustained ion release, wherein the silane compound-treated glass filler for sustained ion release is agglomerated, and wherein a relationship among an MV value A of the glass filler for sustained ion release, an MV value B of the silane compound-treated glass filler for sustained ion release and an MV value C of the deagglomerated glass filler for sustained ion release satisfies the following formulas: B / A ≥ 2,and B / C ≥ 2, and 10000 ≥ B / A, and 10000 ≥ B / C, and wherein the MV value is adopted from a volume average size measurement, wherein deagglomerating is made so that the relationship between the MV value of the silane compound-treated glass filler for sustained ion release and the MV value of the glass filler for sustained ion release satisfies the following formula: B / A ≥ 2, preferably B / A ≥ 5. wherein the MV value is adopted from a volume average size measurement, wherein deagglomerating is made so that the relationship between the MV value of the silane compound-treated glass filler for sustained ion release and the MV value of the glass filler for sustained ion release satisfies the following formula: B / A ≥ 2, preferably B / A ≥ 5.
A silencer device for application to a conveyor element of an air exchanger of an air conditioning and refrigerating system, said silencer device comprising a metal cylindric tubular casing with an inner side cylindric wall to which a sound damping or absorbing material is applied, at the top thereof said device further comprising an air flow splitting top grid and at a bottom thereof bottom coupling means for connecting said device to an outlet of a fan of said air exchanger, characterized in that said coupling means comprises a plurality of circumferentially spaced recesses formed on a bottom portion of said casing.
A cooking apparatus comprising: an oven cooker; a cook-top type cooker provided on an upper side of the oven cooker; a first air inflow duct provided between the oven cooker and the cook-top cooker, and communicating with an inside of the oven cooker; a second air inflow duct separately provided on the oven cooker in parallel with the first air inflow duct; an air discharge duct communicating with the first and second air inflow ducts (41, 51), the air discharge duct having an outlet provided above the cook-top cooker; a blowing fan provided in a flow path of the air discharge duct; an air direction controller being provided proximate to the outlet of the air discharge duct; wherein outside air inflows through the second air inflow duct; characterized by that the air direction controller comprises a rotating guide rotatably provided on the air discharge duct and controls an air to be discharged upward when there is hot air in the oven cooker, and the air direction controller controls an air to be discharged to the cook-top cooker so that an air is blown to an upper surface of the cook-top cooker when cooling the cook-top cooker, and wherein the first air inflow duct and the second air inflow duct are stacked one on top of the other such that the second air inflow duct is on the first air inflow duct. an oven cooker; a cook-top type cooker provided on an upper side of the oven cooker; a first air inflow duct provided between the oven cooker and the cook-top cooker, and communicating with an inside of the oven cooker; a second air inflow duct separately provided on the oven cooker in parallel with the first air inflow duct; an air discharge duct communicating with the first and second air inflow ducts (41, 51), the air discharge duct having an outlet provided above the cook-top cooker; a blowing fan provided in a flow path of the air discharge duct; an air direction controller being provided proximate to the outlet of the air discharge duct; wherein outside air inflows through the second air inflow duct; characterized by that the air direction controller comprises a rotating guide rotatably provided on the air discharge duct and controls an air to be discharged upward when there is hot air in the oven cooker, and the air direction controller controls an air to be discharged to the cook-top cooker so that an air is blown to an upper surface of the cook-top cooker when cooling the cook-top cooker, and wherein the first air inflow duct and the second air inflow duct are stacked one on top of the other such that the second air inflow duct is on the first air inflow duct.
A presence detection system comprising: a camera module comprising an image sensor having a plurality of pixels for capturing an image of a space and a signal processor arranged to: divide said image into a plurality of clusters of said pixels; and process signals from each pixels of each cluster in accordance with one or more configuration parameters for said cluster; and generate a setting for the image sensor from the processed signals wherein the setting is an auto-gain setting or an auto-exposure time setting; and a controller communicatively coupled to the signal processor and arranged to: provide the signal processor with configuration parameters for the clusters based on an expected presence in a region of said image such that the clusters corresponding to said region have at least one different configuration parameter to clusters outside said region; periodically receive the setting from the signal processor; and detect a change in said presence in the space from a change in the received setting. divide said image into a plurality of clusters of said pixels; and process signals from each pixels of each cluster in accordance with one or more configuration parameters for said cluster; and generate a setting for the image sensor from the processed signals wherein the setting is an auto-gain setting or an auto-exposure time setting; and a controller communicatively coupled to the signal processor and arranged to: provide the signal processor with configuration parameters for the clusters based on an expected presence in a region of said image such that the clusters corresponding to said region have at least one different configuration parameter to clusters outside said region; periodically receive the setting from the signal processor; and detect a change in said presence in the space from a change in the received setting. provide the signal processor with configuration parameters for the clusters based on an expected presence in a region of said image such that the clusters corresponding to said region have at least one different configuration parameter to clusters outside said region; periodically receive the setting from the signal processor; and detect a change in said presence in the space from a change in the received setting.
Isolated nanovesicles derived from an extracellular matrix for use in treating: glaucoma in a subject; retinal ganglion cell degeneration caused by injury or a genetic disorder in a subject; pressure-independent glaucomatous optic neuropathy, ischemic optic neuropathy, inflammatory optic neuropathy, compressive optic neuropathy or traumatic optic neuropathy in a subject; or arteritic ischemic optic neuropathy, arteritic ischemic optic neuropathy associated with giant cell arteritis, nonarteritic ischemic optic neuropathy, infiltrative optic neuropathy, infiltrative optic neuropathy associated with sarcoidosis, infectious optic neuropathy, infectious optic neuropathy associated with syphilis, infectious optic neuropathy associated with Lyme disease, infectious optic neuropathy associated with toxoplasmosis, infectious optic neuropathy associated with herpes zoster, optic neuritis from demyelinating disease, posradiation optic neuropathy, acrodermatitis enteropathica, hereditary optic neuropathy, hereditary optic neuropathy associated with dominant optic neuropathy, compressive optic neuropathy, compressive optic neuropathy associated with orbital pseudotumor, compressive optic neuropathy associated with thyroid eye disease, autoimmune optic neuropathy, or autoimmune optic neuropathy associated with Lupus in a subject, wherein the nanovesicles maintain expression of F4/80 and CD-11b on macrophages in the subject, wherein the nanovesicles comprise lysyl oxidase, and wherein the nanovesicles a) do not express CD63 or CD81, or b) are CD63 lo CD81 lo. glaucoma in a subject; retinal ganglion cell degeneration caused by injury or a genetic disorder in a subject; pressure-independent glaucomatous optic neuropathy, ischemic optic neuropathy, inflammatory optic neuropathy, compressive optic neuropathy or traumatic optic neuropathy in a subject; or arteritic ischemic optic neuropathy, arteritic ischemic optic neuropathy associated with giant cell arteritis, nonarteritic ischemic optic neuropathy, infiltrative optic neuropathy, infiltrative optic neuropathy associated with sarcoidosis, infectious optic neuropathy, infectious optic neuropathy associated with syphilis, infectious optic neuropathy associated with Lyme disease, infectious optic neuropathy associated with toxoplasmosis, infectious optic neuropathy associated with herpes zoster, optic neuritis from demyelinating disease, posradiation optic neuropathy, acrodermatitis enteropathica, hereditary optic neuropathy, hereditary optic neuropathy associated with dominant optic neuropathy, compressive optic neuropathy, compressive optic neuropathy associated with orbital pseudotumor, compressive optic neuropathy associated with thyroid eye disease, autoimmune optic neuropathy, or autoimmune optic neuropathy associated with Lupus in a subject,
A control system which is adapted for use in a host motor vehicle and intended for recognizing motor vehicles traveling ahead, to the side, and/or behind the host motor vehicle and preferably stationary objects situated ahead, based on surroundings data obtained from at least one surroundings sensor associated with the host motor vehicle, wherein the at least one surroundings sensor is adapted for providing an electronic controller of the control system with surroundings data that represent an area in front of the host motor vehicle, and wherein the control system is at least adapted and intended to - determine a set of trajectories with a predefined number, which differ with regard to their lengths and/or their courses, for possible paths of the host motor vehicle by means of an adaptive discretisation through performing a first discretisation step and a consecutive discretisation step which provides for a finer discretisation than the first discretisation step, starting from an instantaneous location, wherein the courses of neighbouring trajectories differ by a predefined difference between possible different steering angles of the host motor vehicle, and - vary the predefined number of trajectories, the lengths and/or the courses of the trajectories as a function of a driving situation of the host motor vehicle, and - generate at least one signal that assists a driver of the host motor vehicle in controlling the host motor vehicle in order to guide the host motor vehicle along a selected one of these trajectories, or to generate at least one associated control command that causes the host motor vehicle to follow a selected one of these trajectories. - determine a set of trajectories with a predefined number, which differ with regard to their lengths and/or their courses, for possible paths of the host motor vehicle by means of an adaptive discretisation through performing a first discretisation step and a consecutive discretisation step which provides for a finer discretisation than the first discretisation step, starting from an instantaneous location, wherein the courses of neighbouring trajectories differ by a predefined difference between possible different steering angles of the host motor vehicle, and - vary the predefined number of trajectories, the lengths and/or the courses of the trajectories as a function of a driving situation of the host motor vehicle, and - generate at least one signal that assists a driver of the host motor vehicle in controlling the host motor vehicle in order to guide the host motor vehicle along a selected one of these trajectories, or to generate at least one associated control command that causes the host motor vehicle to follow a selected one of these trajectories.
A method for cloning a full length coding sequence for a light chain of a rabbit monoclonal antibody having a b4 allotype, the method comprising the steps of: a) providing a rabbit antibody-producing B-lymphocyte having a b4 allotype; b) fusing the B-lymphocyte of step a) with a rabbit fusion partner cell having a b5 allotype to produce a hybridoma cell capable of producing an antibody; c) isolating cDNA from the hybridoma; d) amplifying the b4 light chain domain from the cDNA of step c) using: a light chain primer pair that spans the start and stop codons of the light chain cDNA and is able to amplify the full length light chain polynucleotide, wherein said primer pair comprises (i) a forward primer having at the 3' end a sequence according to SEQ ID NO: 1 or SEQ ID NO: 6 and (ii) a reverse primer having at the 3' end a sequence of SEQ ID NO: 5, wherein the 3' end has at least 15 nucleotides of complementarity with the light chain cDNA of SEQ ID NO: 14; e) cloning the amplified light chain domain obtained in step d) into a plasmid for expression. a) providing a rabbit antibody-producing B-lymphocyte having a b4 allotype; b) fusing the B-lymphocyte of step a) with a rabbit fusion partner cell having a b5 allotype to produce a hybridoma cell capable of producing an antibody; c) isolating cDNA from the hybridoma; d) amplifying the b4 light chain domain from the cDNA of step c) using: a light chain primer pair that spans the start and stop codons of the light chain cDNA and is able to amplify the full length light chain polynucleotide, wherein said primer pair comprises (i) a forward primer having at the 3' end a sequence according to SEQ ID NO: 1 or SEQ ID NO: 6 and (ii) a reverse primer having at the 3' end a sequence of SEQ ID NO: 5, wherein the 3' end has at least 15 nucleotides of complementarity with the light chain cDNA of SEQ ID NO: 14; (i) a forward primer having at the 3' end a sequence according to SEQ ID NO: 1 or SEQ ID NO: 6 and (ii) a reverse primer having at the 3' end a sequence of SEQ ID NO: 5, wherein the 3' end has at least 15 nucleotides of complementarity with the light chain cDNA of SEQ ID NO: 14; e) cloning the amplified light chain domain obtained in step d) into a plasmid for expression.
An optically transparent, solid water-soluble formulation of odorants and flavorings comprising at least one synthetically prepared odorant and flavoring, in which the odorants and flavorings are embedded homogeneously in a polymer matrix based on a graft copolymer of (i) 50 to 60 wt% N-vinyllactam, preferably N-vinylcaprolactam, (ii) 25 to 35 wt% vinyl acetate, and (iii) 10 to 20 wt% of a polyether, preferably polyethylene glycol, with the proviso that the sum of components i), ii), and iii) is equal to 100 wt%.
A method for manufacturing a water vapour permeable glove or a glove lining without a non-stretchable three-dimensional outer material assembly, comprising the steps: preparing a functional layer assembly (10; 20; 30) in the shape of a hand having a hand insertion opening (18; 28; 38) and having a flat configuration, the flat functional layer assembly being stretchable in at least one direction, subjecting the flat functional layer assembly (10; 20, 30) to a stretching force and thereby transforming the flat configuration into a three-dimensional structure under the influence of the stretching force, applying heat to the functional layer assembly (10; 20; 30) while the functional layer assembly (10; 20; 30) is subject to the stretching force, thereby relaxing the functional layer assembly (10; 20; 30) and transforming the three-dimensional structure of the functional layer assembly (10; 20; 30) into an inherently stable three-dimensional structure, and removing the stretching force from the functional layer assembly (10; 20; 30); Wherein the temperature in step is 150°C for polyamide 6.6; 150 to 180°C for polyurethane (elastane), or 150 to 200°C for polyester. preparing a functional layer assembly (10; 20; 30) in the shape of a hand having a hand insertion opening (18; 28; 38) and having a flat configuration, the flat functional layer assembly being stretchable in at least one direction, subjecting the flat functional layer assembly (10; 20, 30) to a stretching force and thereby transforming the flat configuration into a three-dimensional structure under the influence of the stretching force, applying heat to the functional layer assembly (10; 20; 30) while the functional layer assembly (10; 20; 30) is subject to the stretching force, thereby relaxing the functional layer assembly (10; 20; 30) and transforming the three-dimensional structure of the functional layer assembly (10; 20; 30) into an inherently stable three-dimensional structure, and removing the stretching force from the functional layer assembly (10; 20; 30);