mhurhangee/ep-ind-claims huggingface dataset:
An immunogenic composition comprising at least 2 different N. meningitidis capsular saccharides conjugated separately to the same type of carrier protein, wherein one or more saccharides is/are selected from a first group consisting of MenA and MenC which is/are conjugated to the carrier protein via a first type of chemical group on the protein carrier, and one or more different saccharides is/are selected from a second group consisting of MenC, MenY and MenW which is/are conjugated to the carrier protein via a second type of chemical group on the protein carrier wherein said composition comprises MenA and MenC capsular saccharides conjugated through a linker to a carrier protein(s), and MenY and MenW capsular saccharides directly conjugated to a carrier protein(s), wherein the linker is ADH, and, wherein the carrier protein is TT. wherein said composition comprises MenA and MenC capsular saccharides conjugated through a linker to a carrier protein(s), and MenY and MenW capsular saccharides directly conjugated to a carrier protein(s), wherein the linker is ADH, and, wherein the carrier protein is TT.
A swaddling unit (5,5') for swaddling, supporting and lifting a baby, preferably a premature and/or ill baby, the swaddling unit comprises a lifting cloth (1,1') and a swaddling cloth (2,2') and that the lifting cloth (1,1') and the swaddling cloth (2,2') are only partly connected to each other, and wherein the lifting cloth (1,1') is arranged for lifting the swaddling unit (5,5'), and the swaddling cloth (2,2') is arranged for swaddling the baby, characterized in that the swaddling cloth (2,2') comprises a lower section (11,11') to be wrapped over a lower part of the baby, a side section (12,12') divided up into a lower half side section (12b, 12b') to be wrapped over the lower section (11,11') and a lower part of the baby and an upper half side section (12a,12a') to be wrapped over an upper part of the baby and if desired over at least a part of the head of the baby, whereby a slit (13,13') is formed between the upper and lower side sections (12a,12a',12b,12b') and another slit (14,14') is formed between the lower section (11,11') and the lower half (12b,12b') of the side sections (12,12'), wherein the lifting cloth (1,1') comprises a handle and wherein said handle comprises two opposing lifting openings (3,3') arranged for lifting the lifting cloth (1,1') when the baby is swaddled in the swaddling cloth (2,2').
An actuator element comprising a laminate, the laminate comprising one or more conductive thin films and one or more electrolyte membranes comprising an ionic liquid and a polymer, the conductive thin film comprising a polymer gel containing at least one type of organic molecule selected from the group consisting of electron-donating organic molecules and electron-withdrawing organic molecules, a nano-carbon material, an ionic liquid, and a polymer, wherein at least two conductive thin film layers each comprising the conductive thin film are formed as electrodes so as to be insulated from each other on the surfaces of the electrolyte membrane, and the actuator element can be deformed by application of a potential difference between the conductive thin film layers, the actuator element characterized in that the components of the one or more conductive thin films are homogeneously mixed.
A method of creating a titanium alloy workpiece comprising: a. heating a cast ingot or wrought billet of an alpha-beta titanium alloy to a temperature above its beta transus temperature to yield a heated workpiece; b. initiating extrusion of the heated workpiece while the heated workpiece is above the beta transus temperature, thereby generating an extruded near net shape workpiece, wherein the extruded near net shape workpiece is in the form of a pi-box extrusion, a C-shaped extrusion, a T-shaped extrusion, an H-shaped extrusion, an l-shaped extrusion, or an L-shaped extrusion, wherein a volume of the extruded near net shape workpiece is represented by the formula NNSWP(z); c. cooling the extruded near net shape workpiece to a cooled temperature below the beta transus temperature; and d. rolling the extruded near net shape workpiece one or more times at one or more rolling temperatures to yield a final shape workpiece, wherein the rolling temperature is within 27.8°C (50°F) of the beta transus temperature, wherein the rolling step comprises (i) rolling at a strain rate of from 0.1 s -1 to 100 s -1 and (ii) uniformly reducing the extruded near net shape workpiece by a relative reduction of from 1 % to 95 %, thereby achieving the final shape workpiece, wherein the percentage relative reduction in volume is represented by the formula RR(%), wherein the final shape workpiece comprises the same shape as the extruded near net shape workpiece, wherein a volume of the final shape workpiece is represented by the formula FSWP(z), and wherein NNSWP(z) x (1-RR(%)) = FSWP(z). a. heating a cast ingot or wrought billet of an alpha-beta titanium alloy to a temperature above its beta transus temperature to yield a heated workpiece; b. initiating extrusion of the heated workpiece while the heated workpiece is above the beta transus temperature, thereby generating an extruded near net shape workpiece, wherein the extruded near net shape workpiece is in the form of a pi-box extrusion, a C-shaped extrusion, a T-shaped extrusion, an H-shaped extrusion, an l-shaped extrusion, or an L-shaped extrusion, wherein a volume of the extruded near net shape workpiece is represented by the formula NNSWP(z); c. cooling the extruded near net shape workpiece to a cooled temperature below the beta transus temperature; and d. rolling the extruded near net shape workpiece one or more times at one or more rolling temperatures to yield a final shape workpiece, wherein the rolling temperature is within 27.8°C (50°F) of the beta transus temperature, wherein the rolling step comprises (i) rolling at a strain rate of from 0.1 s -1 to 100 s -1 and (ii) uniformly reducing the extruded near net shape workpiece by a relative reduction of from 1 % to 95 %, thereby achieving the final shape workpiece, wherein the percentage relative reduction in volume is represented by the formula RR(%), wherein the final shape workpiece comprises the same shape as the extruded near net shape workpiece, wherein a volume of the final shape workpiece is represented by the formula FSWP(z), and wherein NNSWP(z) x (1-RR(%)) = FSWP(z).
A system for executing remote atomic operation, RAO, instructions for accessing memory atomically comprising: a cache memory; an RAO instruction queue stored in a memory and having entries grouped by destination cache lines, each entry to enqueue one or more RAO instructions comprising an opcode, specifying an arithmetic or logical operation to be performed, a destination identifier, and source data; optimization circuitry to receive an incoming RAO instruction, scan the RAO instruction queue to detect a matching enqueued RAO instruction identifying a same destination cache line as the incoming RAO instruction, the optimization circuitry further to: responsive to no matching enqueued RAO instruction being detected, enqueue the incoming RAO instruction in the RAO instruction queue; and responsive to a matching enqueued RAO instruction being detected, determine whether the incoming and the enqueued matching RAO instruction have a same opcode to non-overlapping cache line elements, and, if so, spatially combine the incoming with the enqueued matching RAO instruction by storing both RAO instructions in the same destination cache line entry of the enqueued matching RAO instruction at different cache line offsets. a cache memory; an RAO instruction queue stored in a memory and having entries grouped by destination cache lines, each entry to enqueue one or more RAO instructions comprising an opcode, specifying an arithmetic or logical operation to be performed, a destination identifier, and source data; optimization circuitry to receive an incoming RAO instruction, scan the RAO instruction queue to detect a matching enqueued RAO instruction identifying a same destination cache line as the incoming RAO instruction, the optimization circuitry further to: responsive to no matching enqueued RAO instruction being detected, enqueue the incoming RAO instruction in the RAO instruction queue; and responsive to a matching enqueued RAO instruction being detected, determine whether the incoming and the enqueued matching RAO instruction have a same opcode to non-overlapping cache line elements, and, if so, spatially combine the incoming with the enqueued matching RAO instruction by storing both RAO instructions in the same destination cache line entry of the enqueued matching RAO instruction at different cache line offsets. responsive to no matching enqueued RAO instruction being detected, enqueue the incoming RAO instruction in the RAO instruction queue; and responsive to a matching enqueued RAO instruction being detected, determine whether the incoming and the enqueued matching RAO instruction have a same opcode to non-overlapping cache line elements, and, if so, spatially combine the incoming with the enqueued matching RAO instruction by storing both RAO instructions in the same destination cache line entry of the enqueued matching RAO instruction at different cache line offsets.
An optical path switching device configured to selectively direct electromagnetic radiation toward one detector of a plurality of detectors, the switching device comprising: a platform; a limited clocking angle cam profile; a mirror mount rotatably mounted on the platform by a bearing; a mirror coupled to the mirror mount, the mirror comprising a mirror shaft and a pinion gear provided on the mirror shaft; an active actuator configured to rotate the mirror mount with respect to the platform a predetermined amount to direct electromagnetic radiation toward a desired detector; and a passive actuator configured to adjust an angle of the mirror with respect to the mirror mount, the passive actuator including a bracket secured to the mirror base, the bracket having a rack gear portion, wherein the rack gear portion is configured to engage the pinion gear provided on the mirror shaft of the mirror, with the rack gear portion serving as a cam follower during contact with the limited clocking angle cam profile, and the pinion gear serving as a mirror driver. a platform; a limited clocking angle cam profile; a mirror mount rotatably mounted on the platform by a bearing; a mirror coupled to the mirror mount, the mirror comprising a mirror shaft and a pinion gear provided on the mirror shaft; an active actuator configured to rotate the mirror mount with respect to the platform a predetermined amount to direct electromagnetic radiation toward a desired detector; and a passive actuator configured to adjust an angle of the mirror with respect to the mirror mount, the passive actuator including a bracket secured to the mirror base, the bracket having a rack gear portion, wherein the rack gear portion is configured to engage the pinion gear provided on the mirror shaft of the mirror, with the rack gear portion serving as a cam follower during contact with the limited clocking angle cam profile, and the pinion gear serving as a mirror driver.
A fluid cooled photovoltaic, PV, module assembly, the assembly comprising: a photovoltaic, PV, module (1, 10, 13, 16, 24) comprising a plurality of silicon based cells or thin film based cells, a PV front region, and a PV back region; a thermal collector module comprising a thickness of polymer based material having a plurality of tubes extending from a first end to a second end, the thickness of polymer based material having a collector front region and a collector back region, a first manifold coupled to the plurality of tubes on the first end to gather fluid from each of the plurality of tubes, and a second manifold coupled to the plurality of tubes on the second end to gather fluid from each of the plurality of tubes; an interface region characterizing the PV back region and the collector front region, the interface region being characterized by a substantially continuous contact between the PV back region and the collector front region; and a back structure configured to press the thickness of polymer based material against the PV module such that the interface region maintains the substantially continuous contact. a photovoltaic, PV, module (1, 10, 13, 16, 24) comprising a plurality of silicon based cells or thin film based cells, a PV front region, and a PV back region; a plurality of silicon based cells or thin film based cells, a PV front region, and a PV back region; a thermal collector module comprising a thickness of polymer based material having a plurality of tubes extending from a first end to a second end, the thickness of polymer based material having a collector front region and a collector back region, a first manifold coupled to the plurality of tubes on the first end to gather fluid from each of the plurality of tubes, and a second manifold coupled to the plurality of tubes on the second end to gather fluid from each of the plurality of tubes; a thickness of polymer based material having a plurality of tubes extending from a first end to a second end, the thickness of polymer based material having a collector front region and a collector back region, a first manifold coupled to the plurality of tubes on the first end to gather fluid from each of the plurality of tubes, and a second manifold coupled to the plurality of tubes on the second end to gather fluid from each of the plurality of tubes; an interface region characterizing the PV back region and the collector front region, the interface region being characterized by a substantially continuous contact between the PV back region and the collector front region; and a back structure configured to press the thickness of polymer based material against the PV module such that the interface region maintains the substantially continuous contact.
A removable traction cleat for a shoe comprising: a hub having an axis and an outermost peripheral edge radially spaced from said axis, said hub including a top side having connecting structure for removably attaching the cleat along said axis to a receptacle mounted in the shoe, and a bottom side opposite said top side; a dynamic traction portion for engaging the ground; wherein said hub has at least one cut-out area defined through the entire hub thickness between said top and bottom sides and extending radially inward from the hub outermost peripheral edge toward said axis; wherein said dynamic traction portion includes at least one dynamic traction element disposed below the bottom side of said hub and having a proximal end secured to said cleat radially inward from the hub outermost peripheral edge, said dynamic traction element end extending below said bottom side of said hub downward and radially outward from said proximal end and said axis and terminating at a distal end, said dynamic traction element being positioned in underlying alignment with and below said cut out area of said hub, characterized in that said dynamic traction element being sufficiently resiliently flexible to be forced into said cut-out area of said hub in response to being forced upwardly under the weight load of a person wearing said shoe and stepping down on the cleat. a hub having an axis and an outermost peripheral edge radially spaced from said axis, said hub including a top side having connecting structure for removably attaching the cleat along said axis to a receptacle mounted in the shoe, and a bottom side opposite said top side; a dynamic traction portion for engaging the ground; wherein said hub has at least one cut-out area defined through the entire hub thickness between said top and bottom sides and extending radially inward from the hub outermost peripheral edge toward said axis; wherein said dynamic traction portion includes at least one dynamic traction element disposed below the bottom side of said hub and having a proximal end secured to said cleat radially inward from the hub outermost peripheral edge, said dynamic traction element end extending below said bottom side of said hub downward and radially outward from said proximal end and said axis and terminating at a distal end, said dynamic traction element being positioned in underlying alignment with and below said cut out area of said hub,
A coffee machine for preparing Turkish coffee, characterized in that the coffee machine is provided with a coffee grounds fortune teller device adapted to read figures formed by coffee grounds marks settled on a coffee cup or a saucer, wherein the coffee grounds fortune teller device comprises - a camera scanning the inner surface of the cup or the saucer for taking images of the coffee grounds marks on these surfaces, and - a memory with symbols stored therein, each symbol having a different meaning and a significance level, wherein the coffee grounds fortune teller device is adapted to interpret the figures by comparing them to the symbols stored in the memory, and wherein the coffee grounds fortune teller device is adapted to store the interpretation in the memory and present the interpretation to the user. - a camera scanning the inner surface of the cup or the saucer for taking images of the coffee grounds marks on these surfaces, and - a memory with symbols stored therein, each symbol having a different meaning and a significance level, wherein the coffee grounds fortune teller device is adapted to interpret the figures by comparing them to the symbols stored in the memory, and wherein the coffee grounds fortune teller device is adapted to store the interpretation in the memory and present the interpretation to the user.
A method of producing an implantable matrix comprising the steps of: (a) providing an implantable support comprising cross-linked or uncross-linked collagen, and a sample of autologous mammalian chondrocyte cells; and (b) applying said sample of autologous mammalian chondrocyte cells to the surface of said support to produce said implantable matrix; wherein the cells are allowed to incubate for between about 20 minutes to 1 hour 20 minutes before implantation of the matrix; wherein said implantable support comprises a membrane. (a) providing an implantable support comprising cross-linked or uncross-linked collagen, and a sample of autologous mammalian chondrocyte cells; and (b) applying said sample of autologous mammalian chondrocyte cells to the surface of said support to produce said implantable matrix;
A security module comprising a data input port through which information can be entered into the security module and comprising at least two data output ports (DA1, DA2), whereby data can be output via a first data output port and is then transferred to an authentication unit and whereby data can be output via the second data output port and can then be transferred to a document that is to be issued, said module encompassing at least two combination machines (K1, K2), whereby the second combination machine generates a result value for the second data output port, whereby the security module comprises an identification register and a secret generator that generates an unpredictable secret, characterized in that the first combination machine generates a result value for the first data output port and in that the secret generator is connected to the first combination machine and to the second combination machine in such a way that a secret generated by the secret generator is incorporated into the first combination machine and into the second combination machine, and whereby an output value of the identification register is connected to the first combination machine in such a way that a value of the identification register is incorporated into a data combination coming from the first combination machine, and in that an encryption machine contained in the security module is programmed in such a way that it encrypts the result value of the first combination machine.
A transportation frame comprising at least one frame foot having a front orthogonal profile, a rear orthogonal profile positioned in a parallel manner to said front orthogonal profile (21 and a glass seating base connected to said rear orthogonal profile, characterized by comprising; - at least one joining profile extending between the front orthogonal profiles and rear orthogonal profiles in a manner wrapping around the package glasses, in case pluralities of frame feet are positioned side by side in the same alignment; - at least one profile housing embodied on the front orthogonal profile and the rear orthogonal profile such that said joining profile can pass therethrough; - at least one glass separator tab placed thereon in a manner grabbing the packet glasses; - a locking plate interconnecting the upper end sections of the front orthogonal profile and the rear orthogonal profile; - at least one lateral press arm placed to the profile housing from one end of the lateral press arm and connected to a lateral press plate which is positioned at the transverse lateral surface side of the package glasses and has a connection opening in which a protrusion embodied at the other end of the lateral press arm is placed in order to prevent sliding of the package glasses. - at least one joining profile extending between the front orthogonal profiles and rear orthogonal profiles in a manner wrapping around the package glasses, in case pluralities of frame feet are positioned side by side in the same alignment; - at least one profile housing embodied on the front orthogonal profile and the rear orthogonal profile such that said joining profile can pass therethrough; - at least one glass separator tab placed thereon in a manner grabbing the packet glasses; - a locking plate interconnecting the upper end sections of the front orthogonal profile and the rear orthogonal profile; - at least one lateral press arm placed to the profile housing from one end of the lateral press arm and connected to a lateral press plate which is positioned at the transverse lateral surface side of the package glasses and has a connection opening in which a protrusion embodied at the other end of the lateral press arm is placed in order to prevent sliding of the package glasses.
A method of draining water comprising the steps of: - providing a water drainage device (1,100), wherein the water drainage device comprises man-made vitreous fibres (MMVF) bonded with a cured aqueous binder composition; - positioning the water drainage device in contact with the ground, wherein the water drainage device absorbs water and releases water to a recipient; characterised in that the aqueous binder composition prior to curing comprises; - a component (i) in form of one or more oxidized lignins; - a component (ii) in form of one or more cross-linkers; - a component (iii) in form of one or more plasticizers. - providing a water drainage device (1,100), wherein the water drainage device comprises man-made vitreous fibres (MMVF) bonded with a cured aqueous binder composition; - positioning the water drainage device in contact with the ground, wherein the water drainage device absorbs water and releases water to a recipient; - a component (i) in form of one or more oxidized lignins; - a component (ii) in form of one or more cross-linkers; - a component (iii) in form of one or more plasticizers.