mhurhangee/ep-ind-claims huggingface dataset:
A door system for a platform screen wall comprising a moving leaf that is supported by supporting and linear guide means relative to a fixed screen wall panel that has a side edge adjacent to an access opening, said moving leaf being movable between a closed position, wherein passage through at least part of said access opening is impeded, and an open position, wherein it is substantially overlapping the fixed screen wall panel and allows the passage through at least part of said access opening, characterised in that the moving leaf comprises a sliding leaf section in a leading position relative to a closing direction and a foldable leaf section in a trailing position relative to a closing direction, said sliding and foldable leaf sections (31a, 31b) being connected to each other through a vertical hinge, and said support and guide means comprise support and linear guide elements connected to the sliding leaf section and which guide the movements of the sliding leaf section in parallel to the fixed screen wall panel, and folding guide elements connected to the foldable leaf section and which guide the movements of the foldable leaf section between an extended position, wherein it is coplanar with the sliding leaf section (31 a) when the moving leaf is in said closed position, and a folded position, wherein it subtends an angle with the sliding leaf section when the moving leaf is in said open position.
A coated roofing granule, comprising: a roofing granule having an external surface and a coating on the external surface of the roofing granule, wherein the coating is formed from a composition comprising photocatalytic particles and an alkali metal silicate binder, wherein the alkali metal silicate binder further comprises a boric acid, borate, or combination thereof.
Coaxial electric transmission element comprising an inner conductor with frequency-dependent transmission behavior, an outer conductor which surrounds the inner conductor in the circumferential direction, and an insulating sheath which is arranged between the inner conductor and the outer conductor, the transmission element forming a passive high-frequency filter, the inner conductor comprising at least one line section of enlarged diameter which is adjoined by a line section of reduced diameter, and the inner conductor forming a signal line via which electric high-frequency signals are transmittable, and the outer conductor forming an earth line which shields off the inner conductor to the outside and protects it from interferences, the insulating sheath being made of an electrically non-conductive plastic material and having an inner side facing the inner conductor and an outer side facing the outer conductor, the insulating sheath being configured as injection-molded part and being structured on its inner side and/or its outer side, characterized in that the insulating sheath has on its inner side and/or on its outer side a multiplicity of depressions which extend in the radial direction over only a fraction of the wall thickness of the insulating sheath.
Edge emitting semiconductor laser comprising an active layer that generates laser radiation and is embedded into a first waveguide layer, wherein - the first waveguide layer is arranged between a first cladding layer and a second cladding layer and adjoins side facets, which form a resonator of the semiconductor laser, in a lateral direction, - a second waveguide layer, into which no active layer is embedded, adjoins the second cladding layer, and - a third cladding layer is arranged at a side of the second waveguide layer that is remote from the first waveguide layer, and the first waveguide layer and the second waveguide layer are optically coupled to one another in their entire lateral extent between the side facets, characterized in that - a plurality of contact areas (8a, 8b, 8c) are applied to partial regions of the semiconductor laser at periodic distances, which contact areas serve for electrically pumping the active layer that generates laser radiation, - the periodic distances between the contact areas (8a, 8b, 8c) are in each case equal to twice the transfer length (Lc), wherein the transfer length (Lc) is the distance between an intensity maximum of the laser radiation and an adjacent intensity minimum of the laser radiation within one of the waveguide layers (1, 2), and - the midpoints of the contact areas (8a, 8c) which are adjacent to the side facets of the semiconductor laser are in each case spaced apart from the respective side facet by one transfer length. - the first waveguide layer is arranged between a first cladding layer and a second cladding layer and adjoins side facets, which form a resonator of the semiconductor laser, in a lateral direction, - a second waveguide layer, into which no active layer is embedded, adjoins the second cladding layer, and - a third cladding layer is arranged at a side of the second waveguide layer that is remote from the first waveguide layer, and - a plurality of contact areas (8a, 8b, 8c) are applied to partial regions of the semiconductor laser at periodic distances, which contact areas serve for electrically pumping the active layer that generates laser radiation, - the periodic distances between the contact areas (8a, 8b, 8c) are in each case equal to twice the transfer length (Lc), wherein the transfer length (Lc) is the distance between an intensity maximum of the laser radiation and an adjacent intensity minimum of the laser radiation within one of the waveguide layers (1, 2), and - the midpoints of the contact areas (8a, 8c) which are adjacent to the side facets of the semiconductor laser are in each case spaced apart from the respective side facet by one transfer length.
A display system comprising a carrier system and optionally at least one transport and display container, in particular optionally a foldable fruit and vegetable container, wherein the carrier system comprises a foldable carrier ring with side walls made of plates, in particular web plates, with a bottom and cover region (6, 7) as well as with at least one folding region and with at least one stabilizing element, wherein the at least one stabilizing element has at least one fixing device through which the stabilizing element can be fixed with the side wall of the foldable carrier ring in the bottom and/or in the cover region (6, 7), and the stabilizing element of the carrier system optionally carries the at least one transport and display container, characterized in that the stabilizing element is formed as a frame having at least one projection for holding the transport and display container, webs for increasing the stability of the frame and the carrier ring, and cut-outs.
Process for modifying the morphology and/or polymorphism of an organic substance, wherein the process is for the reduction of crystallite size, which process comprises treating the solid substance, or a solution or dispersion thereof, with one or more amphiphilic proteins, which amphiphilic protein is a hydrophobin, such as a class II hydrophobin or especially a class I hydrophobin, and wherein the process comprises i) combining the solution or dispersion of the protein in a polar solvent, and a solution or dispersion of the organic substance in a polar solvent which is miscible with the solvent of the protein, or ii) contacting the solution or dispersion of the organic substance in a polar solvent with a surface impregnated with the protein. i) combining the solution or dispersion of the protein in a polar solvent, and a solution or dispersion of the organic substance in a polar solvent which is miscible with the solvent of the protein, or ii) contacting the solution or dispersion of the organic substance in a polar solvent with a surface impregnated with the protein.
A handling tool for gripping an object without contact, the tool comprising an ultrasound transducer extending between a reflective face and a gripping face configured for emitting ultrasound forming, in a near-field region of the gripping face, an overpressure wave, and a fluid suction system configured to suck a fluid toward the gripping face, forming in said near-field region a reduced pressure, the fluid suction system comprising at least one fluid suction channel arranged in the ultrasound transducer, the suction channel comprising one or more suction nozzles opening out onto the gripping face, the transducer having a height ( h) defined between the gripping face and the reflective face lying in a range of 80% to 140% of a half wavelength λ/2 of the ultrasound generated in the transducer.
A display and distribution package for eggs, said package being formed of a fibrous material, the package comprising: - a bottom part comprising a plurality of egg-receiving compartments having non-planar side surfaces so as to match at least partially the outer contours of an egg, the plurality of compartments being arranged in at least two parallel rows, - a cover part comprising a top surface, a front surface, a back surface, and two substantially planar end surfaces, - the cover part being permanently connected to the bottom part by a hinge between the back surface of the cover part and the bottom part so as to allow the cover part to move between an open position and a closed position, - said cover part comprising partial ovoid portions extending outwardly from the two substantially planar end surfaces, wherein each of the two substantially planar end surfaces apart from the ovoid portions completely spans the entire end surfaces of the cover part, - the bottom part comprising a back side, a front side, two end sides, and at least one upwardly extending retainment projection extending from the front side of the bottom part, - the cover part being provided with a label covering the top surface and a substantial part of the front surface of the cover part, characterized in that the upwardly extending retainment projection having a downwardly and outwardly extending nose for locking engagement with one or more co-operating apertures in the front surface of the cover part, - the nose not extending beyond the front surface of the cover part when the cover part is in its closed position. - a bottom part comprising a plurality of egg-receiving compartments having non-planar side surfaces so as to match at least partially the outer contours of an egg, the plurality of compartments being arranged in at least two parallel rows, - a cover part comprising a top surface, a front surface, a back surface, and two substantially planar end surfaces, - the cover part being permanently connected to the bottom part by a hinge between the back surface of the cover part and the bottom part so as to allow the cover part to move between an open position and a closed position, - said cover part comprising partial ovoid portions extending outwardly from the two substantially planar end surfaces, wherein each of the two substantially planar end surfaces apart from the ovoid portions completely spans the entire end surfaces of the cover part, - the bottom part comprising a back side, a front side, two end sides, and at least one upwardly extending retainment projection extending from the front side of the bottom part, - the cover part being provided with a label covering the top surface and a substantial part of the front surface of the cover part, characterized in that the upwardly extending retainment projection having a downwardly and outwardly extending nose for locking engagement with one or more co-operating apertures in the front surface of the cover part, - the nose not extending beyond the front surface of the cover part when the cover part is in its closed position.
A method for the cleavage of an oligonucleotide from a solid support, said method comprising the step (i) of treating the oligonucleotide bound to the solid support with a concentrated ammonium hydroxide solution for a period of at least about 30 minutes and no longer than about 6 hours, at a temperature ranging from about 50° to about 60°C, wherein the 3' nucleoside of the oligonucleotide attached to the solid support is a LNA nucleoside, which is covalently attached to the solid support at the 3' position as according to Formula I or II wherein one of A' and A" is SM or L-SM, SM is a support medium; L is a linking moiety, the other of A' and A" is H or a substituent; each of R u, R v, R w, R x, R y and R z is H, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl or substituted alkynyl; Y 1 and Y 2 are each independently of one another O, S, NR 1 CH 2 or CR 1 R 1: R 1 is H, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl or substituted alkynyl; G 1 is O, S, or NR'; wherein R' is H or a substituent, X is O or S, R c is H or cyanoethyl; wherein Base is a nucleobase, and R 3 is the remainder of the oligonucleotide. one of A' and A" is SM or L-SM, SM is a support medium; L is a linking moiety, the other of A' and A" is H or a substituent; each of R u, R v, R w, R x, R y and R z is H, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl or substituted alkynyl; Y 1 and Y 2 are each independently of one another O, S, NR 1 CH 2 or CR 1 R 1: R 1 is H, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl or substituted alkynyl; G 1 is O, S, or NR'; wherein R' is H or a substituent, X is O or S, R c is H or cyanoethyl; wherein Base is a nucleobase, and R 3 is the remainder of the oligonucleotide.
A drug delivery ocular implant comprising: an outer shell having a proximal end, a distal end, said outer shell being shaped to define an interior space; at least a first therapeutic agent positioned within said interior space; a crimp cap (53a, 54a) sealed to the proximal end of said outer shell, wherein said crimp cap (53a, 54a) comprises at least one aperture; a membrane (60, 60a) permeable or semi-permeable to said at least a first therapeutic agent positioned between said crimp cap (53a, 54a) and said proximal end of said outer shell, wherein said membrane (60, 60a) occludes said at least one aperture, thereby allowing elution of said at least a first therapeutic agent to occur only through said membrane (60, 60a); and a retention protrusion on the distal end of said outer shell, wherein said retention protrusion is configured to anchor the ocular implant at a target tissue site in the eye; characterized in that: at least one fluid inflow pathway and one fluid outflow pathway are positioned adjacent the distal end of said outer shell, and wherein said at least one fluid outflow pathway allows ocular fluid to be directed through the implant via at least one fluid inflow pathway to deliver ocular fluid from an anterior chamber to a physiological outflow space. an outer shell having a proximal end, a distal end, said outer shell being shaped to define an interior space; at least a first therapeutic agent positioned within said interior space; a crimp cap (53a, 54a) sealed to the proximal end of said outer shell, wherein said crimp cap (53a, 54a) comprises at least one aperture; a membrane (60, 60a) permeable or semi-permeable to said at least a first therapeutic agent positioned between said crimp cap (53a, 54a) and said proximal end of said outer shell, wherein said membrane (60, 60a) occludes said at least one aperture, thereby allowing elution of said at least a first therapeutic agent to occur only through said membrane (60, 60a); and a retention protrusion on the distal end of said outer shell, wherein said retention protrusion is configured to anchor the ocular implant at a target tissue site in the eye; characterized in that: at least one fluid inflow pathway and one fluid outflow pathway are positioned adjacent the distal end of said outer shell, and wherein said at least one fluid outflow pathway allows ocular fluid to be directed through the implant via at least one fluid inflow pathway to deliver ocular fluid from an anterior chamber to a physiological outflow space. at least one fluid inflow pathway and one fluid outflow pathway are positioned adjacent the distal end of said outer shell, and wherein said at least one fluid outflow pathway allows ocular fluid to be directed through the implant via at least one fluid inflow pathway to deliver ocular fluid from an anterior chamber to a physiological outflow space.
A method comprising: receiving at a network element, from a client computer, a packet that is associated with initiating a client-server session; in response to receiving the packet that is associated with initiating the client-server session, transmitting a workload request from the network element to a workload orchestrator; the workload orchestrator selecting a selected server, from among a plurality of available geographically or logically distributed servers in network edge computing nodes, to process the client-server session; the workload orchestrator transmitting a request to the selected server to create a workload to process the client-server session; receiving at the network element, from the workload orchestrator, data identifying the selected server; reprogramming forwarding tables of the network element to cause all later packets associated with the same client-server session and received from the client computer at the network element to be forwarded to the selected server such that later packets bypass the workload orchestrator; and forwarding from the network element one or more other packets associated with the same client-server session and received from the client computer to the selected server such that the one or more other packets bypass the workload orchestrator. receiving at a network element, from a client computer, a packet that is associated with initiating a client-server session; in response to receiving the packet that is associated with initiating the client-server session, transmitting a workload request from the network element to a workload orchestrator; the workload orchestrator selecting a selected server, from among a plurality of available geographically or logically distributed servers in network edge computing nodes, to process the client-server session; the workload orchestrator transmitting a request to the selected server to create a workload to process the client-server session; receiving at the network element, from the workload orchestrator, data identifying the selected server; reprogramming forwarding tables of the network element to cause all later packets associated with the same client-server session and received from the client computer at the network element to be forwarded to the selected server such that later packets bypass the workload orchestrator; and forwarding from the network element one or more other packets associated with the same client-server session and received from the client computer to the selected server such that the one or more other packets bypass the workload orchestrator.
An elliptically polarizing plate comprising a linear polarizer, a first retardation film, a second retardation film, a third retardation film and a fourth retardation film sequentially, wherein the first retardation film is a +B plate having an Nz value of less than 0 in the following Equation 1, or a +C plate satisfying the following Expression 1, the second retardation film is a -B plate having an Nz value of more than 1 in the following Equation 1, the third retardation film has an Nz value of 0.8 to 1.2 in the following Equation 1, where its in-plane slow axis forms 43 degrees to 47 degrees with the absorption axis of the linear polarizer, and the fourth retardation film is a +B plate having a Nz value of -4.0 or less in the following Equation 1, or a +C plate satisfying the following Expression 1, and wherein the sum of the thickness direction retardation value of the first retardation film and the thickness direction retardation value of the second retardation film is in a range of -20 nm to 200 nm and the thickness direction retardation value (Rth) is defined by the following Equation 2: Nz = nx − nz / nx − ny Rth = nz − ny × d nx = ny < nz wherein nx, ny and nz are refractive indexes of a retardation film in x-axis, y-axis and z-axis directions, respectively, the x-axis is the direction parallel to the in-plane slow axis of a retardation film, the y-axis is the direction parallel to the in-plane fast axis of a retardation film, the z-axis is the thickness direction of a retardation film, and d is the thickness of a retardation film. wherein the first retardation film is a +B plate having an Nz value of less than 0 in the following Equation 1, or a +C plate satisfying the following Expression 1, the second retardation film is a -B plate having an Nz value of more than 1 in the following Equation 1, the third retardation film has an Nz value of 0.8 to 1.2 in the following Equation 1, where its in-plane slow axis forms 43 degrees to 47 degrees with the absorption axis of the linear polarizer, and the fourth retardation film is a +B plate having a Nz value of -4.0 or less in the following Equation 1, or a +C plate satisfying the following Expression 1, and wherein the sum of the thickness direction retardation value of the first retardation film and the thickness direction retardation value of the second retardation film is in a range of -20 nm to 200 nm and the thickness direction retardation value (Rth) is defined by the following Equation 2: Nz = nx − nz / nx − ny Rth = nz − ny × d nx = ny < nz wherein nx, ny and nz are refractive indexes of a retardation film in x-axis, y-axis and z-axis directions, respectively, the x-axis is the direction parallel to the in-plane slow axis of a retardation film, the y-axis is the direction parallel to the in-plane fast axis of a retardation film, the z-axis is the thickness direction of a retardation film, and d is the thickness of a retardation film.
A rear seat structure of an all terrain vehicle, said all terrain vehicle comprising a main seat cushion and a rear storage rack disposed at the back of said main seat cushion, characterized in that: said rear seat structure comprises a seat cushion locking mechanism disposed on said rear storage rack, and a passenger seat cushion dismountably disposed on the back portion of said main seat cushion and in front of said rear storage rack, said seat cushion locking mechanism having a locking element and a releasing element, said releasing element is connected to said locking element with a pulling element, a hook element is disposed under said passenger seat cushion, said hook element is buckled with said locking element to assemble, so that said passenger seat cushion is fixed on said main seat cushion in front of said rear storage rack.