mhurhangee/patent-ind-claim-en huggingface dataset:
An eye-protection headgear comprising, an opaque rigid visor comprising a window comprising an optical filter , a flexible fabric bib extending at least generally downward from a lower edge of at least a forward portion of the rigid visor, and wherein the rigid visor is pivotably connected to a head suspension and is pivotably movable relative to the head suspension, between at least a first, shielding position and a second, non-shielding position; characterised by when the rigid visor is in the second, non-shielding position, a lower edge of at least the forward portion of the flexible fabric bib is above the level of the eyes of a user of the eye-protection headgear and at least the forward portion of the flexible fabric bib is oriented at a positive angle of at least about 30 degrees away from the vertical and in that the headgear is also provided with a flexible cap extending at least generally rearward from an upper edge of at least a forward portion of the rigid visor.
A planar waveguide device (PWD) for interacting with a fluid (FLD), the planar waveguide device (PWD) comprising - a waveguide layer (WGL) for supporting optical confinement, - a coupling arrangement (CPA) for in-coupling and out-coupling of light into and from the waveguide layer (WGL), - a fluid zone (FZN) for accommodating the fluid (FLD), - a filter layer (FTL) arranged between the fluid zone (FZN) and the waveguide layer (WGL) in an interaction region (IAR) of the waveguide layer (WGL), wherein the filter layer (FTL) has a refractive index sufficiently lower than that of the waveguide layer (WGL) to support confinement of light in the waveguide layer (WGL) and minimize coupling of light to the filter layer (FTL), wherein the filter layer (FTL) comprises filter openings (FOP) arranged to allow the fluid (FLD) to interact in the filter openings with an evanescent field of light guided by the waveguide layer (WGL), wherein the filter openings (FOP) are adapted to prevent particles (PAR) larger than a predefined size from interacting with said evanescent field, wherein the filter openings (FOP) are arranged as line openings having their longitudinal direction in parallel with the direction of propagation (DOP) of light guided by the waveguide layer (WGL). - a waveguide layer (WGL) for supporting optical confinement, - a coupling arrangement (CPA) for in-coupling and out-coupling of light into and from the waveguide layer (WGL), - a fluid zone (FZN) for accommodating the fluid (FLD), - a filter layer (FTL) arranged between the fluid zone (FZN) and the waveguide layer (WGL) in an interaction region (IAR) of the waveguide layer (WGL), wherein the filter layer (FTL) has a refractive index sufficiently lower than that of the waveguide layer (WGL) to support confinement of light in the waveguide layer (WGL) and minimize coupling of light to the filter layer (FTL), wherein the filter layer (FTL) comprises filter openings (FOP) arranged to allow the fluid (FLD) to interact in the filter openings with an evanescent field of light guided by the waveguide layer (WGL), wherein the filter openings (FOP) are adapted to prevent particles (PAR) larger than a predefined size from interacting with said evanescent field, wherein the filter openings (FOP) are arranged as line openings having their longitudinal direction in parallel with the direction of propagation (DOP) of light guided by the waveguide layer (WGL). wherein the filter layer (FTL) comprises filter openings (FOP) arranged to allow the fluid (FLD) to interact in the filter openings with an evanescent field of light guided by the waveguide layer (WGL), wherein the filter openings (FOP) are adapted to prevent particles (PAR) larger than a predefined size from interacting with said evanescent field, wherein the filter openings (FOP) are arranged as line openings having their longitudinal direction in parallel with the direction of propagation (DOP) of light guided by the waveguide layer (WGL).
A chromatographic media for separating bio-polymers, the chromatographic media having cationic exchange properties and anionic exchange properties, the chromatographic media comprising: a. non-porous substrate particles including an organic polymer, the non-porous substrate particles having a neutral hydrophilic layer at a surface of the non-porous substrate particles, in which the neutral hydrophilic layer is configured to reduce a binding of the bio-polymers directly to the non-porous substrate particles compared to a binding of the bio-polymer to the non-porous substrate particles without the neutral hydrophilic layer; b. a charged first ion exchange layer bound to the substrate particles on top of the hydrophilic layer, the first ion exchange layer comprising first ion exchange groups; c. a charged second ion exchange layer bound to the substrate particles on top of the first ion exchange layer, the second ion exchange layer comprising second ion exchange groups, the second ion exchange layer having an opposite charge to the first ion exchange layer and being bound to the substrate particles by electrostatic interactions with the first ion exchange layer, wherein the first ion exchange layer is polymerized onto the substrate particles. a. non-porous substrate particles including an organic polymer, the non-porous substrate particles having a neutral hydrophilic layer at a surface of the non-porous substrate particles, in which the neutral hydrophilic layer is configured to reduce a binding of the bio-polymers directly to the non-porous substrate particles compared to a binding of the bio-polymer to the non-porous substrate particles without the neutral hydrophilic layer; b. a charged first ion exchange layer bound to the substrate particles on top of the hydrophilic layer, the first ion exchange layer comprising first ion exchange groups; c. a charged second ion exchange layer bound to the substrate particles on top of the first ion exchange layer, the second ion exchange layer comprising second ion exchange groups, the second ion exchange layer having an opposite charge to the first ion exchange layer and being bound to the substrate particles by electrostatic interactions with the first ion exchange layer, wherein the first ion exchange layer is polymerized onto the substrate particles.
A radiotherapy apparatus comprising: a rotatable gantry ; a beam generation system attached to the gantry configured to generate a beam of therapeutic radiation ; an on-gantry heat transfer system configured to rotate with the gantry, comprising a first conduit comprising a first thermally conductive surface, the on-gantry heat transfer system being configured to transfer heat generated by the beam generation system to the thermally conductive surface; an off-gantry heat transfer system comprising a second thermally conductive surface, the off-gantry heat transfer system being configured to transfer heat away from the second thermally conductive surface; wherein the first thermally conductive surface is in thermal contact with the second thermally conductive surface to form an interface between the on-gantry heat transfer system and the off-gantry heat transfer system, the interface comprising one of physical contact between the first thermally conductive surface and the second thermally conductive surface, or a gas bearing. a rotatable gantry ; a beam generation system attached to the gantry configured to generate a beam of therapeutic radiation ; an on-gantry heat transfer system configured to rotate with the gantry, comprising a first conduit comprising a first thermally conductive surface, the on-gantry heat transfer system being configured to transfer heat generated by the beam generation system to the thermally conductive surface; an off-gantry heat transfer system comprising a second thermally conductive surface, the off-gantry heat transfer system being configured to transfer heat away from the second thermally conductive surface; wherein the first thermally conductive surface is in thermal contact with the second thermally conductive surface to form an interface between the on-gantry heat transfer system and the off-gantry heat transfer system, the interface comprising one of physical contact between the first thermally conductive surface and the second thermally conductive surface, or a gas bearing.
A frame (100;200;300;500;800) comprising: - a frame structure, - a fabric (T), - a fastening device (102;202;302;402;802) for fastening, in a removable or detachable manner, said fabric (T) to a profile (104;702) of said frame structure, comprising an inner edge (104 1 ) and an outer edge opposite said inner edge (104 1 ), such that once fastened, said fabric (T) extends to the side of said inner edge (104 1 ) ; said fastening device (102;202;302;402;802) comprising: - a first fastening part , for fastening said device (102;202;302;402;802) to said profile (104;702), - a part , called covering part, provided to be covered by said fabric , said covering part extending beyond said fastening part to the outer edge , in the direction from the inner edge (104 1 ) towards the outer edge ; characterized in that said fastening device is in the shape of a " Γ " or of a " T " the vertical arm of which forms said first fastening part and the horizontal arm forms the covering part ; and in that said profile comprises a groove (104 3 ), formed between an inner edge (104 1 ) and an outer edge (104 2 ) of said profile, and provided for receiving the first fastening part of said fastening device (102;202;302;402;802), said profile having between its outer edge (104 2 ) and the groove (104 3 ) a thickness (E 2 ) less than its thickness (E 1 ) between its inner edge (104 1 ) and the groove (104 3 ). - a frame structure, - a fabric (T), - a fastening device (102;202;302;402;802) for fastening, in a removable or detachable manner, said fabric (T) to a profile (104;702) of said frame structure, comprising an inner edge (104 1 ) and an outer edge opposite said inner edge (104 1 ), such that once fastened, said fabric (T) extends to the side of said inner edge (104 1 ) ; said fastening device (102;202;302;402;802) comprising: - a first fastening part , for fastening said device (102;202;302;402;802) to said profile (104;702), - a part , called covering part, provided to be covered by said fabric , said covering part extending beyond said fastening part to the outer edge , in the direction from the inner edge (104 1 ) towards the outer edge ; - a first fastening part , for fastening said device (102;202;302;402;802) to said profile (104;702), - a part , called covering part, provided to be covered by said fabric , said covering part extending beyond said fastening part to the outer edge , in the direction from the inner edge (104 1 ) towards the outer edge ; characterized in that said fastening device is in the shape of a " Γ " or of a " T " the vertical arm of which forms said first fastening part and the horizontal arm forms the covering part ; and in that said profile comprises a groove (104 3 ), formed between an inner edge (104 1 ) and an outer edge (104 2 ) of said profile, and provided for receiving the first fastening part of said fastening device (102;202;302;402;802), said profile having between its outer edge (104 2 ) and the groove (104 3 ) a thickness (E 2 ) less than its thickness (E 1 ) between its inner edge (104 1 ) and the groove (104 3 ).
A crystalline salt having a structure: wherein X - is monomaleate and has an X-ray powder diffraction ("XRPD") pattern comprising peaks at 6.9, 17.3, and 17.8 ± 0.2° 2θ, and optionally at 4.9, 6.8, 7.7, 10.9, 12.4, 13.5, 14.2, 16.1, 16.4, 18.5, 21.0, 22.0, 23.4, 23.7, 24.5, and 25.2 ± 0.2° 2θ, using Cu Kα radiation ("Form A").
A method of performing, by a user equipment, UE , a sidelink transmission in a sidelink transmission mode 3 in a wireless communication system, the method comprising: receiving, from a base station, BS , uplink-downlink configuration for a time division duplex, TDD, operation; receiving (S2910), from the BS , a sidelink grant to be used for scheduling of the sidelink transmission based on the uplink-downlink configuration for the TDD operation on a first carrier, wherein the sidelink grant includes control information indicating an offset of a specific subframe associated with the sidelink grant; determining (S2920) the specific subframe on a second carrier based on an offset value indicated by the control information and a value of a fixed offset corresponding to each subframe set to downlink subframe or special subframe by the uplink-downlink configuration for the TDD; and performing (S2930) the sidelink transmission in the specific subframe on the second carrier, wherein the value of the fixed offset corresponds to '4', '5' or '6' according to the each subframe, wherein a size of the control information is 2 bits, and wherein, based on the control information being set to '00', '01', '10', or '11', the value indicated by the control information is '0', '1', '2', or '3', respectively. receiving, from a base station, BS , uplink-downlink configuration for a time division duplex, TDD, operation; receiving (S2910), from the BS , a sidelink grant to be used for scheduling of the sidelink transmission based on the uplink-downlink configuration for the TDD operation on a first carrier, wherein the sidelink grant includes control information indicating an offset of a specific subframe associated with the sidelink grant; determining (S2920) the specific subframe on a second carrier based on an offset value indicated by the control information and a value of a fixed offset corresponding to each subframe set to downlink subframe or special subframe by the uplink-downlink configuration for the TDD; and performing (S2930) the sidelink transmission in the specific subframe on the second carrier, wherein the value of the fixed offset corresponds to '4', '5' or '6' according to the each subframe, wherein a size of the control information is 2 bits, and wherein, based on the control information being set to '00', '01', '10', or '11', the value indicated by the control information is '0', '1', '2', or '3', respectively.
Method of producing a cutting plate made of hard metal, in particular of sintered carbide, by multiaxial pressing a powder mixture of a hard metal component and a binder to form a green body , followed by sintering the green body, which after pressing comprises two substantially parallel main surfaces and a peripheral edge surface extending between the main surfaces at the periphery thereof and connecting the same, which main surfaces include depressions (4a,b; 5a,b) extending at least partly to the edge surface such that cutting edges are formed at the intersection of the bottom of said depressions and at least a part of said edge surface wherein the powder mixture is supplied to a compression mold comprising a cavity which is defined by side punches moveable along at least a first direction for forming said edge surfaces and at least one heading punch moveable substantially perpendicular to the first direction for compacting the powder mixture to form a cutting plate green body, wherein a heading tool is used which is moveable perpendicular to and towards said main surfaces, wherein the heading tool comprises two parts, one of which is a main punch (23,a,b) and the other being an independently moveable form punch (24a,b), characterized in that in a first pressing step the form punch (24a,b) is moved towards the powder mixture to form a preliminarily compressed portion of the green body adjacent the edge surface and including an area designated to become an area of a minimal final thickness of the green body, while in a second step the main punch (23a,b) and the form punch (24a,b) are both moved towards their final position to provide the green body with its final dimensions of the parallel main surfaces including the depressions (4a,b, 5a,b).
Wound care article comprising at least one planar layer containing an absorbent material, the absorbent material containing super-absorbent polymers and the wound care article additionally containing at least one active element which provides it, at least in portions, with plastic deformability or sculptability; characterized in that the active element contains a reinforcement in the form of a composite material arranged in planar form which does not appear on the surface of the wound care article, and in that the active element consists of a plastic or paper band in which two wires are integrated laterally as reinforcements.
A field device case that is a metal field device case where a lead-in part for drawing a cable including an outer shield is provided on a tubular circumferential wall , the field device case comprising: a first inner surface which is formed away from an opening end surface of the field device case in an axial direction orthogonal to the opening end surface ; a second inner surface which is formed farther away from the opening end surface than the first inner surface in the axial direction; and a cable fixing member which is fixed to the first inner surface and allows the outer shield of the cable drawn by the lead-in part to be in contact with the second inner surface , characterized in that the cable fixing member comprises at least a second contact point (P2) and a third contact point (P3) that come into contact with the outer shield while a center line (L) is interposed between the second contact point (P2) and the third contact point (P3) in the cross-sectional view of the cable , the center line (L) passing through a first contact point (P1), where the outer shield and the second inner surface come into contact with each other, and a center point (O) of the cable . a first inner surface which is formed away from an opening end surface of the field device case in an axial direction orthogonal to the opening end surface ; a second inner surface which is formed farther away from the opening end surface than the first inner surface in the axial direction; and a cable fixing member which is fixed to the first inner surface and allows the outer shield of the cable drawn by the lead-in part to be in contact with the second inner surface , characterized in that the cable fixing member comprises at least a second contact point (P2) and a third contact point (P3) that come into contact with the outer shield while a center line (L) is interposed between the second contact point (P2) and the third contact point (P3) in the cross-sectional view of the cable , the center line (L) passing through a first contact point (P1), where the outer shield and the second inner surface come into contact with each other, and a center point (O) of the cable .
An anti-CD47 agent for use in a method of treating a subject for atherosclerosis, the method comprising: administering to the subject an effective dose of an anti-CD47 agent and an anti-TNFa agent, wherein the anti-TNFa agent is a soluble TNF receptor, or an anti-TNFa antibody, and wherein the anti-CD47 agent is a high affinity SIRPα reagent, wherein the high affinity SIRPα reagent comprises a d1 domain of human SIRPα, with at least one amino acid change relative to the wild-type sequence within the d1 domain, wherein the anti-CD47 agent reduces the binding of CD47 on an apoptotic cell to SIRPα on a phagocytic cell. administering to the subject an effective dose of an anti-CD47 agent and an anti-TNFa agent, wherein the anti-TNFa agent is a soluble TNF receptor, or an anti-TNFa antibody, and wherein the anti-CD47 agent is a high affinity SIRPα reagent, wherein the high affinity SIRPα reagent comprises a d1 domain of human SIRPα, with at least one amino acid change relative to the wild-type sequence within the d1 domain, wherein the anti-CD47 agent reduces the binding of CD47 on an apoptotic cell to SIRPα on a phagocytic cell.
Method for providing an interactive display of the current operating mode of a vehicle with different drive energy sources, comprising a first drive energy source designed as a storage battery and a second drive energy source designed as a tank for storing fossil fuel or hydrogen, on a display and operating device , the following being shown at the same time on the display and operating device : - a user-selectable first item of information in the form of a button relating to the activation or deactivation of a first operating mode, in which the vehicle can be operated with just a first drive energy source, - a user-selectable second item of information in the form of a button relating to the activation or deactivation of a second operating mode, in which the vehicle can be operated with at least the first and the second drive energy source, - a third item of information concerning a state of at least the first of the different drive energy sources, wherein, in response to the first item of information being selected by a user, the first operating mode is activated and the first item of information is changed so as to indicate the activation of the first operating mode; wherein, in response to the second item of information being selected by a user, the second operating mode is activated and the second item of information is changed so as to indicate the activation of the second operating mode; wherein the third item of information is an actual state of the first drive energy source, such as for example a state of charge of the first drive energy source or a maximum achievable range with only the first drive energy source; wherein at least one means for influencing at least part of the third item of information by a user is also displayed at the same time on the display and operating device ; wherein the at least one means can be used to preselect a desired state of the first drive energy source, which is indicated as part of the third item of information . - a user-selectable first item of information in the form of a button relating to the activation or deactivation of a first operating mode, in which the vehicle can be operated with just a first drive energy source, - a user-selectable second item of information in the form of a button relating to the activation or deactivation of a second operating mode, in which the vehicle can be operated with at least the first and the second drive energy source, - a third item of information concerning a state of at least the first of the different drive energy sources,
A method of forming a composite feature having discontinuous reinforcement fibers, comprising: producing a plurality of resin infused fiber segments each having unidirectional reinforcing fibers , wherein the fibers extend substantially parallel to each other, and wherein producing the resin infused fiber segments comprises chopping fiber pre-preg into individual resin infused fiber segments; placing the resin infused fiber segments on a substrate by introducing the resin infused fiber segments into an airstream and using the airstream to stream the resin infused fiber segments from an applicator onto the substrate; and after the resin infused fiber segments have been placed on the substrate, rotating the resin infused fiber segments so as to arrange the resin infused fiber segments such that the reinforcing fibers of the resin infused fiber segments placed on the substrate are substantially aligned relative to a desired reference orientation. producing a plurality of resin infused fiber segments each having unidirectional reinforcing fibers , wherein the fibers extend substantially parallel to each other, and wherein producing the resin infused fiber segments comprises chopping fiber pre-preg into individual resin infused fiber segments; placing the resin infused fiber segments on a substrate by introducing the resin infused fiber segments into an airstream and using the airstream to stream the resin infused fiber segments from an applicator onto the substrate; and after the resin infused fiber segments have been placed on the substrate, rotating the resin infused fiber segments so as to arrange the resin infused fiber segments such that the reinforcing fibers of the resin infused fiber segments placed on the substrate are substantially aligned relative to a desired reference orientation.