mhurhangee/ep-ind-claims huggingface dataset:
Packaging unit, comprising - a packaging for a glass body, and - a glass body, which is formed from a plastic with a hydrophobic coating, the hydrophobic coating preferably having an imprint, contained in the packaging, - wherein the packaging comprises at least two packaging areas (2a, 2b) opposed to each other when used appropriately for the purpose of forming a receiving opening for the glass body, - wherein each of the at least two opposite packaging areas (2a, 2b) has an inner surface (21a, 21b) facing the glass body when used appropriately, - wherein at least one inner surface (21a, 21b) of the at least two packaging areas (2a, 2b) opposed to each other at least partially has an anti-slip coating (7, 7a, 7b). - a packaging for a glass body, and - a glass body, which is formed from a plastic with a hydrophobic coating, the hydrophobic coating preferably having an imprint, contained in the packaging, - a glass body, which is formed from a plastic with a hydrophobic coating, the hydrophobic coating preferably having an imprint, contained in the packaging, - wherein the packaging comprises at least two packaging areas (2a, 2b) opposed to each other when used appropriately for the purpose of forming a receiving opening for the glass body, - wherein each of the at least two opposite packaging areas (2a, 2b) has an inner surface (21a, 21b) facing the glass body when used appropriately, - wherein at least one inner surface (21a, 21b) of the at least two packaging areas (2a, 2b) opposed to each other at least partially has an anti-slip coating (7, 7a, 7b).
Tranexamic acid for use in a method of treatment for reducing or preventing radiation-induced injuries by protection of normal, non-cancerous cells from adverse effects of radiation exposure.
A removable rotatable agitator (130, 730) for use in a surface cleaning head (100, 700, 2400, 2500, 2600, 2700, 2800, 2900), the removable rotatable agitator comprising: the agitator, or an agitator body (131, 531, 631, 731) having a driven end (132, 732) and a non-driven end (134, 734); at least one agitator element (136, 536) located on at least a portion of the agitator body between the driven end and the non-driven end, wherein: the at least one agitator element includes a combination of soft agitator elements and relatively stiff agitator elements; the relatively stiff agitator elements include bristles arranged in a helical pattern around the agitator body; and the soft agitator elements include cloth; a tab, or an end cap including a tab, the tab extending radially from at least one end of the agitator body and configured to be gripped by a user to facilitate removing and inserting the non-driven end into an agitator chamber (120, 720) in the surface cleaning head; and a splined driven member located at the driven end of the agitator body, the splined driven member being configured to mate axially and engage with a splined drive member on a drive mechanism in the surface cleaning head. the agitator, or an agitator body (131, 531, 631, 731) having a driven end (132, 732) and a non-driven end (134, 734); at least one agitator element (136, 536) located on at least a portion of the agitator body between the driven end and the non-driven end, wherein: the at least one agitator element includes a combination of soft agitator elements and relatively stiff agitator elements; the relatively stiff agitator elements include bristles arranged in a helical pattern around the agitator body; and the soft agitator elements include cloth; the at least one agitator element includes a combination of soft agitator elements and relatively stiff agitator elements; the relatively stiff agitator elements include bristles arranged in a helical pattern around the agitator body; and the soft agitator elements include cloth; a tab, or an end cap including a tab, the tab extending radially from at least one end of the agitator body and configured to be gripped by a user to facilitate removing and inserting the non-driven end into an agitator chamber (120, 720) in the surface cleaning head; and a splined driven member located at the driven end of the agitator body, the splined driven member being configured to mate axially and engage with a splined drive member on a drive mechanism in the surface cleaning head.
A method for producing an insulating glass pane comprising a plastic spacer, wherein two glass panels (25, 49) that are parallel to each other have a target distance from each other, by • forming a composite strand - before joining the two glass panels (25, 49) - by temporally and spatially overlapping extrusion of at least two plastic partial strands (23, 24), wherein a first partial strand is made of an adhesive first sealing compound, in which a moisture-binding substance is embedded, and a second partial strand consists of an adhesive and setting second sealing compound, onto a first glass panel along the edge of the glass panel, namely such that the beginning and the end of the composite strand abut and thereby form a frame, that the partial strands (23, 24) are located side by side in the composite strand and thus directly adjoin each other, and that the first partial strand is located within the frame formed by the second partial strand, • after extruding the composite stand onto the first glass panal, joining the first glass panel to the second glass panel, so that the composite strand is located between the two glass panels (25, 49), connects them to each other and holds them at a distance from each other, and • adjusting the target distance by pressing the joined glass panels (25, 49), characterized in that a nozzle having a variable orifice cross section is used for extruding onto the first glass panel the first partial strand with a predetermined first target thickness, which is greater than the target distance, and the second partial strand with a predetermined second target thickness, which is greater than the target distance. • forming a composite strand - before joining the two glass panels (25, 49) - by temporally and spatially overlapping extrusion of at least two plastic partial strands (23, 24), wherein a first partial strand is made of an adhesive first sealing compound, in which a moisture-binding substance is embedded, and a second partial strand consists of an adhesive and setting second sealing compound, onto a first glass panel along the edge of the glass panel, namely such that the beginning and the end of the composite strand abut and thereby form a frame, that the partial strands (23, 24) are located side by side in the composite strand and thus directly adjoin each other, and that the first partial strand is located within the frame formed by the second partial strand, • after extruding the composite stand onto the first glass panal, joining the first glass panel to the second glass panel, so that the composite strand is located between the two glass panels (25, 49), connects them to each other and holds them at a distance from each other, and • adjusting the target distance by pressing the joined glass panels (25, 49), characterized in that a nozzle having a variable orifice cross section is used for extruding onto the first glass panel the first partial strand with a predetermined first target thickness, which is greater than the target distance, and the second partial strand with a predetermined second target thickness, which is greater than the target distance.
An apparatus of a first mobile entity, the apparatus comprising determining circuitry configured to determine an intention for a movement change of said first mobile entity, transmitting circuitry configured to transmit, towards a network entity, a request for combined spatiotemporal surroundings characteristics related to surroundings of said first mobile entity and information on said intention, and receiving circuitry configured to receive, from said network entity, said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity, wherein: said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity include location information of at least one second mobile entity in the surroundings of said first mobile entity, said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity are related to a section of said surroundings of said first mobile entity relevant for said movement change of said first mobile entity, and said information on said intention comprises time interval information indicative of an intention validity time interval of said intention. determining circuitry configured to determine an intention for a movement change of said first mobile entity, transmitting circuitry configured to transmit, towards a network entity, a request for combined spatiotemporal surroundings characteristics related to surroundings of said first mobile entity and information on said intention, and receiving circuitry configured to receive, from said network entity, said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity, wherein: said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity include location information of at least one second mobile entity in the surroundings of said first mobile entity, said combined spatiotemporal surroundings characteristics related to said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity include location information of at least one second mobile entity in the surroundings of said first mobile entity, said combined spatiotemporal surroundings characteristics related to said surroundings of said first mobile entity are related to a section of said surroundings of said first mobile entity relevant for said movement change of said first mobile entity, and said information on said intention comprises time interval information indicative of an intention validity time interval of said intention.
A method of treating fabrics, comprising the steps of: a) Contacting fabrics with an aqueous wash liquor containing at least one detersive surfactant, wherein said aqueous wash liquor is characterized by a first pH ranging from 7.0 to 9.0; b) Increasing the pH of said aqueous wash liquor to a second pH ranging from 10.0 to 13.0, while allowing the fabrics to continue contacting with such aqueous wash liquor for a duration ranging from 5 minutes to 30 minutes; and c) Contacting the fabrics with an aqueous rinse liquor that is characterized by a third pH ranging from 3.0 to 6.0, and wherein the method comprises a further a step of decreasing the pH of said aqueous wash liquor back to a fourth pH ranging from 7.0 to 9.0 after step (b) and before step (c), wherein in said step the fabrics are contacted with said aqueous wash liquor for a duration ranging from 1 minute to 60 minutes. a) Contacting fabrics with an aqueous wash liquor containing at least one detersive surfactant, wherein said aqueous wash liquor is characterized by a first pH ranging from 7.0 to 9.0; b) Increasing the pH of said aqueous wash liquor to a second pH ranging from 10.0 to 13.0, while allowing the fabrics to continue contacting with such aqueous wash liquor for a duration ranging from 5 minutes to 30 minutes; and c) Contacting the fabrics with an aqueous rinse liquor that is characterized by a third pH ranging from 3.0 to 6.0,
A coupling device (2, 2') for coupling modules (1, 1') with each other, comprising: - a coupling surface, - a primary coupling member (6, 6') disposed on the coupling surface, wherein a coupling axis (4, 4') disposed parallel to the coupling surface and, in use, parallel to a direction of action of earth's gravitational acceleration extends through the primary coupling member (6, 6'), - at least two secondary coupling members (8a, 8a', 8b, 8b'), which are disposed on the coupling surface and respectively have a predetermined distance from the coupling axis (4a, 4b), wherein - the primary coupling member (6, 6') is configured in an androgynous manner, - the two secondary coupling members (8a, 8a', 8b, 8b') form a secondary complementary coupling pair, in which a first secondary coupling member (8a, 8a') is formed to be complementary to a second secondary coupling member (8b, 8b') of another coupling module, for coupling of two modules (1, 1') respectively comprising the coupling device (2, 2'), and - a first selection of the secondary coupling members (8a, 8a') is disposed on one side of the coupling axis (4, 4') and a second selection of the secondary coupling members (8b, 8b') is disposed on the other side of the coupling axis (4, 4'), and - at least one of the coupling members (8a, 8a') is configured to attract, in a first control mode, another secondary coupling member (8a', 8b') formed so as to be complementary thereto, or to repel it in a second control mode. - a coupling surface, - a primary coupling member (6, 6') disposed on the coupling surface, wherein a coupling axis (4, 4') disposed parallel to the coupling surface and, in use, parallel to a direction of action of earth's gravitational acceleration extends through the primary coupling member (6, 6'), - at least two secondary coupling members (8a, 8a', 8b, 8b'), which are disposed on the coupling surface and respectively have a predetermined distance from the coupling axis (4a, 4b), wherein - the primary coupling member (6, 6') is configured in an androgynous manner, - the two secondary coupling members (8a, 8a', 8b, 8b') form a secondary complementary coupling pair, in which a first secondary coupling member (8a, 8a') is formed to be complementary to a second secondary coupling member (8b, 8b') of another coupling module, for coupling of two modules (1, 1') respectively comprising the coupling device (2, 2'), and - a first selection of the secondary coupling members (8a, 8a') is disposed on one side of the coupling axis (4, 4') and a second selection of the secondary coupling members (8b, 8b') is disposed on the other side of the coupling axis (4, 4'), and - at least one of the coupling members (8a, 8a') is configured to attract, in a first control mode, another secondary coupling member (8a', 8b') formed so as to be complementary thereto, or to repel it in a second control mode.
Aircraft with variable geometry for adapting the flight behaviour, comprising a fuselage with a pair of aerofoils projecting therefrom on both sides in the transverse direction (y), which each have an inner aerofoil section arranged to be stationary with respect to the fuselage and an outer aerofoil section adjacent thereto and pivotable about a pivot axis and having a free end, and a stabilizing device for locking the free ends of the outer aerofoil sections in a maximum pivoted state of the outer aerofoil sections, characterized in that the pivot axis is oriented in a direction which deviates by at most 40° from the longitudinal direction (x) of the aircraft, wherein a profile of the leading edge of the outer aerofoil sections is offset rearward with respect to a profile of the leading edge of the inner aerofoil sections, the outer aerofoil sections are arranged completely behind the inner aerofoil sections, the outer aerofoil sections comprise edges of the free ends that extend parallel to each other in the maximum pivoted state, and the stabilization device comprises coupling means (36-1; 36-2) which can be brought into engagement with each other, which are arranged at the free ends and which are used to lock the free ends in the maximum pivoted state.
A chip package structure, comprising a substrate, multiple chips (101, 102) and multiple discrete devices that are packaged on an upper surface of the substrate, and a heat dissipation apparatus, characterized in that, the heat dissipation apparatus comprises multiple cured insulation layers and multiple cured thermally conductive layers that are alternately laminated and coincide in a projection direction perpendicular to the upper surface of the substrate, one of the insulation layers is a bottom layer, which is cured to the upper surface of the substrate, one of the thermally conductive layers is cured to an upper surface of the bottom layer cured to the upper surface of the substrate, and the bottom layer is completely enclosing and adhered to outer surfaces of the multiple chips (101, 102), outer surfaces of the multiple discrete devices, and the upper surface of the substrate, and is configured to conduct heat generated by the multiple chips (101, 102) and the multiple discrete devices to the thermally conductive layers and the substrate, so that the heat generated by the multiple chips (101, 102) and the multiple discrete devices is dissipated by using the thermally conductive layers and the substrate, and another one the thermally conductive layers is a top layer, which is configured to conduct the heat generated by the multiple chips (101, 102) and the multiple discrete devices to the air, wherein, the thermally conductive layers are made of a thermally conductive material and a formable insulating material, the thermally conductive material is evenly doped with the formable insulating material.
An aqueous dispersion comprising: a) particles having a volume-basis particle size distribution with peaks in the range of equal to or greater than 1 μm up to 100 μm and wherein the particles comprise: (i) an oil gellant comprising at least one styrenic block copolymer; and (ii) a fatty substance selected from at least one wax having a melting point of greater than 35°C, at least one oil, and mixtures thereof; b) a surfactant mixture comprising: (i) at least one nonionic surfactant; and (ii) at least one ionic surfactant; and c) water. a) particles having a volume-basis particle size distribution with peaks in the range of equal to or greater than 1 μm up to 100 μm and wherein the particles comprise: (i) an oil gellant comprising at least one styrenic block copolymer; and (ii) a fatty substance selected from at least one wax having a melting point of greater than 35°C, at least one oil, and mixtures thereof; (i) an oil gellant comprising at least one styrenic block copolymer; and (ii) a fatty substance selected from at least one wax having a melting point of greater than 35°C, at least one oil, and mixtures thereof; b) a surfactant mixture comprising: (i) at least one nonionic surfactant; and (ii) at least one ionic surfactant; and (i) at least one nonionic surfactant; and (ii) at least one ionic surfactant; and c) water.
A method of reducing artefacts in image creation in 4D cone beam computed tomography (4DCBCT) images, the method comprising the steps of: (a) performing a 4DCBCT scan of a target patient including a series of spaced apart projections (50, 60, 70) through the target patient, with each projection having an associated estimated or measured respiratory state; (b) initially dividing the series of projections into a corresponding series of respiratory bins, with each respiratory bin having projections substantially from a portion of a cyclic respiratory state; (c) optimising the projections at the bounds of each respiratory bin (72, 73) so as to improve an image quality measure of the images wherein said optimising includes sharing projections between adjacent respiratory bins. (a) performing a 4DCBCT scan of a target patient including a series of spaced apart projections (50, 60, 70) through the target patient, with each projection having an associated estimated or measured respiratory state; (b) initially dividing the series of projections into a corresponding series of respiratory bins, with each respiratory bin having projections substantially from a portion of a cyclic respiratory state; (c) optimising the projections at the bounds of each respiratory bin (72, 73) so as to improve an image quality measure of the images wherein said optimising includes sharing projections between adjacent respiratory bins.
A method for long term oil recovery optimization, which comprises: selecting one or more zones, wells, patterns, clusters or fields from a sweep efficiency health display, which comprises one of a current sweep efficiency health display and one or more predicted sweep efficiency health displays; displaying multiple optimization scenarios and corresponding actions for optimization of the one or more selected zones, wells, patterns, clusters or fields during an evaluation of a plan for developing a field; selecting one or more of the optimization scenarios and displaying each corresponding action; selecting a prediction date for each selected optimization scenario; and displaying the one or more selected optimization scenarios, an effect of each corresponding action on the one or more selected zones, wells, patterns, clusters or fields on the prediction date, and an updated field development plan using a computer system, the updated field development plan being displayed for a field with a respective net present value calculation and projected production parameters and wherein the display of the one or more selected optimization scenarios and the effect of each corresponding action includes infill drilling and re-drilling of water injection positions. selecting one or more zones, wells, patterns, clusters or fields from a sweep efficiency health display, which comprises one of a current sweep efficiency health display and one or more predicted sweep efficiency health displays; displaying multiple optimization scenarios and corresponding actions for optimization of the one or more selected zones, wells, patterns, clusters or fields during an evaluation of a plan for developing a field; selecting one or more of the optimization scenarios and displaying each corresponding action; selecting a prediction date for each selected optimization scenario; and displaying the one or more selected optimization scenarios, an effect of each corresponding action on the one or more selected zones, wells, patterns, clusters or fields on the prediction date, and an updated field development plan using a computer system, the updated field development plan being displayed for a field with a respective net present value calculation and projected production parameters and wherein the display of the one or more selected optimization scenarios and the effect of each corresponding action includes infill drilling and re-drilling of water injection positions.
A method of determining a type of cell in a wireless communication system, the method being performed by a user equipment, UE, the method comprising: receiving system information block, SIB, including a Closed Subscriber Group, CSG, indication bit and a CSG identity; detecting a cell as a hybrid cell when the CSG indication bit of the cell is detected as 'FALSE' and it is detected that the cell broadcasts the CSG identity, wherein the hybrid cell is a cell accessible as a CSG cell for a CSG member UE and as a normal cell for a non-CSG member UE, and wherein the hybrid cell is different from the CSG cell; recognizing the detected hybrid cell as a CSG cell if the CSG identity of the hybrid cell is in the UE's CSG, list and recognizing the detected hybrid cell as a normal cell if the CSG identity of the hybrid cell is not in the UE's CSG list. receiving system information block, SIB, including a Closed Subscriber Group, CSG, indication bit and a CSG identity; detecting a cell as a hybrid cell when the CSG indication bit of the cell is detected as 'FALSE' and it is detected that the cell broadcasts the CSG identity, wherein the hybrid cell is a cell accessible as a CSG cell for a CSG member UE and as a normal cell for a non-CSG member UE, and wherein the hybrid cell is different from the CSG cell; recognizing the detected hybrid cell as a CSG cell if the CSG identity of the hybrid cell is in the UE's CSG, list and recognizing the detected hybrid cell as a normal cell if the CSG identity of the hybrid cell is not in the UE's CSG list.