mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising black cumin ( Nigella sativa seed) oil in an amount of from 8 to 12% (w/w), olive oil in an amount of from 8 to 12% (w/w), tea tree (Melaleuca alternifolia) oil in an amount of from 0.07 to 0.10% (w/w), cocoa butter in an amount of from 1 to 6% (w/w), at least one of vitamin A or a derivative thereof, selected from the group consisting of retinol, retinal, retinyl palmitate, retinyl acetate, retinoic acid, retinoids, beta-carotene, alpha-carotene, gamma-carotene, beta-cryptoxanthene, and retinyl esters, in an amount of from 0.02 to 0.06% (w/w) and vitamin E or a derivative thereof, selected from the group consisting of alpha-, beta-, gamma-, and delta-tocopherol, as well as alpha-, beta-, gamma-, and delta-tocotrienol, in an amount of from 0.02 to 0.06% (w/w), and at least one of vitamin B12 or a derivative thereof, selected from the group consisting of cobalamin, hydroxycobalamin, cyanocobalamin, methylcobalamin, adenosylcobalamin, 5'-deoxyadenosyl-cobalamin, aquocobalamin, and nitritocobalamin, in an amount of from 0.02 to 0.06% (w/w) and vitamin D or a derivative thereof, selected from the group consisting of vitamin D 1, vitamin D 2 (ergocalciferol), vitamin D 3 (cholecalciferol), vitamin D 4 (22-dihydroergocalciferol), and vitamin D 5 (sitocalciferol), in an amount of from 0.02 to 0.06% (w/w), with respect to the total weight of the composition.
A method of controlling oxygen concentration in III-V compound semiconductor substrate, comprising: providing a plurality of III-V crystal substrates in a sealable container; providing a predetermined amount of material having high oxygen reactivity with oxygen atoms in the container, the material comprising at least one of carbon, aluminum, titanium, and boron; maintaining a predetermined pressure within the sealed container; and annealing the plurality of III-V crystal substrates to yield an oxygen concentration in the crystal substrates, wherein the oxygen concentration is associated with the predetermined amount of material having high oxygen reactivity with oxygen atoms, wherein the annealing further comprises heating the container to a platform temperature between 1000°C and 1100°C at a predetermined heating rate of less than 100°C/hour. providing a plurality of III-V crystal substrates in a sealable container; providing a predetermined amount of material having high oxygen reactivity with oxygen atoms in the container, the material comprising at least one of carbon, aluminum, titanium, and boron; maintaining a predetermined pressure within the sealed container; and annealing the plurality of III-V crystal substrates to yield an oxygen concentration in the crystal substrates, wherein the oxygen concentration is associated with the predetermined amount of material having high oxygen reactivity with oxygen atoms, wherein the annealing further comprises heating the container to a platform temperature between 1000°C and 1100°C at a predetermined heating rate of less than 100°C/hour.
A method for reconstructing full-resolution frames from a line-skipped sequence of fields, each field of the line-skipped sequence of fields having a vertical resolution that is K-fold lower than the vertical resolution of the full-resolution frames, K being an integer larger than 1, said method comprising the steps of: receiving a target field and at least one reference field of the line-skipped sequence; and up-sampling a target block of the target field in the vertical direction by merging the lines of the target block and the lines of a same-size reference block of the at least one reference field, characterized by determining a smoothness value indicating variation in the spatial directions of pixel data of the up-sampled target block; and shifting horizontally and/or vertically (S15-S18) a position of the reference block within the at least one reference field in accordance with the determined smoothness value so as to optimize said smoothness value of the up-sampled target block, whereby the position that yields the smoothest up-sampled block is selected. receiving a target field and at least one reference field of the line-skipped sequence; and up-sampling a target block of the target field in the vertical direction by merging the lines of the target block and the lines of a same-size reference block of the at least one reference field, characterized by determining a smoothness value indicating variation in the spatial directions of pixel data of the up-sampled target block; and shifting horizontally and/or vertically (S15-S18) a position of the reference block within the at least one reference field in accordance with the determined smoothness value so as to optimize said smoothness value of the up-sampled target block, whereby the position that yields the smoothest up-sampled block is selected.
A ballistic resistant composite comprising at least one layer of interconnected fibers, said fibers comprising drawn polyethylene fibers, and said fibers optionally having a polymeric binder material thereon, said optional binder material substantially coating the outer surfaces of each of the fibers and interconnecting said fibers, which fibers comprise monofilament fibers and/or multifilament fibers, said fibers having a diameter of less than 4.6 grams per 9000 m of filament (denier per filament), a tenacity of at least 42 cN/dtex (37 grams per denier), a tensile modulus of at least 1586 cN/dtex (1400 grams per denier), an elongation to break of at least 2% and a fiber areal density of at least 5 grams/m 2.
Nozzle piece for printing a fluid material by means of a continuous jet printing technique, comprising - a nozzle comprising an outflow opening, from which outflow opening, in use, flows a jet of the material breaking up into drops; characterized in that the nozzle piece further comprises - a flow restricting structure having an inlet, in use, in fluid connection with a reservoir, and an outlet, connected to a micro volume directly adjacent an inside of the nozzle, the flow restricting structure arranged for restricting a flow of the material between the reservoir and micro volume by means of a restricted passage through the flow restricting structure; wherein the restricted passage is dimensioned relative to the outflow opening such that, in use, a pressure drop (ΔP1) of the material over the restricted passage between the inlet and outlet is between 0.1 and 10 times a pressure drop (ΔP2) of the material over the outflow opening between the micro volume and an external surroundings of the nozzle; and wherein - the flow restricting structure and the nozzle are arranged to bound the micro volume for the purpose of, guiding or reflecting pressure variations, generated by a pressure regulating mechanism comprising an actuating surface arranged near the nozzle, towards the outflow opening. - a nozzle comprising an outflow opening, from which outflow opening, in use, flows a jet of the material breaking up into drops; characterized in that the nozzle piece further comprises - a flow restricting structure having an inlet, in use, in fluid connection with a reservoir, and an outlet, connected to a micro volume directly adjacent an inside of the nozzle, the flow restricting structure arranged for restricting a flow of the material between the reservoir and micro volume by means of a restricted passage through the flow restricting structure; wherein the restricted passage is dimensioned relative to the outflow opening such that, in use, a pressure drop (ΔP1) of the material over the restricted passage between the inlet and outlet is between 0.1 and 10 times a pressure drop (ΔP2) of the material over the outflow opening between the micro volume and an external surroundings of the nozzle; and wherein - the flow restricting structure and the nozzle are arranged to bound the micro volume for the purpose of, guiding or reflecting pressure variations, generated by a pressure regulating mechanism comprising an actuating surface arranged near the nozzle, towards the outflow opening.
Spreading device for pneumatically dispensing a free-flowing spreading material on rail-mounted vehicles, at least consisting of a sand container having a discharge opening and a connecting pipe at the lower end of the sand container with a further discharge opening at the lower end of the connecting pipe, a mixing container substantially enclosed on all sides with cover and base in an airtight manner and having an internal ventilation floor and an outlet with adjacent discharge device for the spreading material, an air source having an air line, which leads to an air inlet into the mixing container, as well as a sand step, wherein the sand container contains the spreading material as a storage container and the spreading material can trickle through the discharge opening into the connecting pipe and through the further discharge opening into the mixing container due to gravitation, and can be deposited on the ventilation floor, wherein the discharge opening forming the sand step at the lower end of the connecting pipe is situated lower than the outlet of the mixing container, wherein the air inlet is arranged below the ventilation floor and spreading material deposited on the ventilation floor can be flown through from bottom to top by air from the air source, and mobilized spreading material as an air-spreading-material mixture is dischargeable from the spreading device through the discharge device.
A method for initiating a local routing service, comprising: initiating, (101,701,801) by an evolved base station, eNB, a local routing service start notification, wherein the local routing service start notification is used for notifying a user equipment, UE, that the eNB starts a local routing service; receiving (102,702,802), by the eNB, a local routing service request message sent by a first UE; and determining, (103,703,803) according to the local routing service request message, that the first UE supports the local routing service, assigning (103,704,804) an internet protocol, IP, address to the first UE, and sending (104,705,805) a first assignment message to the first UE, wherein the first assignment message comprises the IP address assigned to the first UE. initiating, (101,701,801) by an evolved base station, eNB, a local routing service start notification, wherein the local routing service start notification is used for notifying a user equipment, UE, that the eNB starts a local routing service; receiving (102,702,802), by the eNB, a local routing service request message sent by a first UE; and determining, (103,703,803) according to the local routing service request message, that the first UE supports the local routing service, assigning (103,704,804) an internet protocol, IP, address to the first UE, and sending (104,705,805) a first assignment message to the first UE, wherein the first assignment message comprises the IP address assigned to the first UE.
An endoscope (2A, 2B, 2C), comprising: an image pickup device that is mounted in a distal end portion of an insertion portion; wiring (21, 23, 25) that transmits a power supply having a plurality of different power supply voltages for driving the image pickup device, a drive signal that drives the image pickup device, an image pickup signal that is outputted from the image pickup device that is driven by the drive signal, and a ground level; a substrate (18, 22, 24) on which a connector that relays the wiring (21, 23, 25) is provided; a first voltage comparing portion that compares the plurality of different power supply voltages; and a power supply control portion that controls a supply of power to the image pickup device based on a comparison result of the first voltage comparing portion, characterized in that the endoscope (2A, 2B, 2C) further comprises a power supply generation portion that, based on the plurality of different power supply voltages, generates a plurality of second power supply voltages that are respectively different from the plurality of different power supply voltages; and a second voltage comparing portion that compares the plurality of second power supply voltages, wherein the power supply control portion further controls a supply of power to the image pickup device based on a comparison result of the second voltage comparing portion. an image pickup device that is mounted in a distal end portion of an insertion portion; wiring (21, 23, 25) that transmits a power supply having a plurality of different power supply voltages for driving the image pickup device, a drive signal that drives the image pickup device, an image pickup signal that is outputted from the image pickup device that is driven by the drive signal, and a ground level; a substrate (18, 22, 24) on which a connector that relays the wiring (21, 23, 25) is provided; a first voltage comparing portion that compares the plurality of different power supply voltages; and a power supply control portion that controls a supply of power to the image pickup device based on a comparison result of the first voltage comparing portion, characterized in that the endoscope (2A, 2B, 2C) further comprises a power supply generation portion that, based on the plurality of different power supply voltages, generates a plurality of second power supply voltages that are respectively different from the plurality of different power supply voltages; and a second voltage comparing portion that compares the plurality of second power supply voltages, wherein the power supply control portion further controls a supply of power to the image pickup device based on a comparison result of the second voltage comparing portion.
A submarine optical communication apparatus comprising: an optical component configured to process an optical signal output from an optical communication apparatus; a control unit configured to control the optical component; and a reception unit configured to receive the optical signal and a control signal, convert the control signal into an electric signal, and output the converted signal to the control unit, wherein the control unit switches a control scheme of the optical component in response to the control signal converted into the electric signal, wherein the control unit comprises a programmable logic circuit, the control signal includes a first switching signal instructing to change a circuit configuration of the programmable logic circuit, and the control unit changes the circuit configuration of the programmable logic circuit in response to the switching signal converted into the electric signal to change the control scheme of the optical component. an optical component configured to process an optical signal output from an optical communication apparatus; a control unit configured to control the optical component; and a reception unit configured to receive the optical signal and a control signal, convert the control signal into an electric signal, and output the converted signal to the control unit, wherein the control unit switches a control scheme of the optical component in response to the control signal converted into the electric signal, wherein the control unit comprises a programmable logic circuit, the control signal includes a first switching signal instructing to change a circuit configuration of the programmable logic circuit, and the control unit changes the circuit configuration of the programmable logic circuit in response to the switching signal converted into the electric signal to change the control scheme of the optical component.
A multi-layer unitary absorbent structure, comprising: a first layer comprising a blend of different first and second bicomponent fibers and having a basis weight from about 5 gsm to about 50 gsm, wherein the blend of bicomponent fibers comprises from 50 to 100 percent by weight of the layer; and a second layer, adjacent to the first layer, comprising a third type of bicomponent fibers and having a basis weight from about 5 gsm to about 50 gsm, and wherein the bicomponent fibers of the second layer have a greater dtex value than the bicomponent fibers of the blend forming thefirst layer and comprise from 50 to 100 percent by weight of the layer. a first layer comprising a blend of different first and second bicomponent fibers and having a basis weight from about 5 gsm to about 50 gsm, wherein the blend of bicomponent fibers comprises from 50 to 100 percent by weight of the layer; and a second layer, adjacent to the first layer, comprising a third type of bicomponent fibers and having a basis weight from about 5 gsm to about 50 gsm, and wherein the bicomponent fibers of the second layer have a greater dtex value than the bicomponent fibers of the blend forming thefirst layer and comprise from 50 to 100 percent by weight of the layer.
An underwater foil for a floating marine vessel,, comprising a plurality of upper foil members and a plurality of lower foil members engaged to the upper foil members to form the underwater foil, characterized in that each upper foil member is slidingly engaged to its respective lower foil member and secured offset thereto along the underwater foil.
A pneumatic tire comprising: a tread portion provided with a circumferentially and continuously extending shoulder main groove disposed the nearest side of a tread edge (Te), a plurality of shoulder lateral grooves each extending from the shoulder main groove toward the tread edge (Te), and a plurality of middle lateral grooves each extending from the shoulder main groove toward a tire equatorial plane (Co); the shoulder main groove extending in a zigzag manner through axially innermost points and axially outermost points alternately; each middle lateral groove extending from each innermost point of the shoulder main groove with an angle θm of from 50 to 75 degrees with respect to an axial direction of the tire; and each shoulder lateral groove extending from the shoulder main groove, the shoulder lateral groove having the same inclination direction with the middle lateral groove at an angle θs of from 10 to 25 degrees with respect to the axial direction of the tire, wherein the number "ns" of shoulder lateral grooves is larger than the number "nm" of middle lateral grooves, characterized in that a ratio ns/nm of the number "ns" of shoulder lateral grooves to the number "nm" of middle lateral grooves is 3/2, 4/3, 5/3, 5/4, or 7/4. a tread portion provided with a circumferentially and continuously extending shoulder main groove disposed the nearest side of a tread edge (Te), a plurality of shoulder lateral grooves each extending from the shoulder main groove toward the tread edge (Te), and a plurality of middle lateral grooves each extending from the shoulder main groove toward a tire equatorial plane (Co); the shoulder main groove extending in a zigzag manner through axially innermost points and axially outermost points alternately; each middle lateral groove extending from each innermost point of the shoulder main groove with an angle θm of from 50 to 75 degrees with respect to an axial direction of the tire; and each shoulder lateral groove extending from the shoulder main groove, the shoulder lateral groove having the same inclination direction with the middle lateral groove at an angle θs of from 10 to 25 degrees with respect to the axial direction of the tire, wherein the number "ns" of shoulder lateral grooves is larger than the number "nm" of middle lateral grooves, characterized in that a ratio ns/nm of the number "ns" of shoulder lateral grooves to the number "nm" of middle lateral grooves is 3/2, 4/3, 5/3, 5/4, or 7/4.
An overbased metal salt of an N-substituted 4-carboxypyrrolidin-2-one, wherein the N-substituent is a hydrocarbyl group or a heteroatom-containing hydrocarbyl group, wherein the hydrocarbyl group is an alkyl group of 8 to 24 carbon atoms; and wherein the overbased metal salt is a single phase, homogeneous Newtonian system which has a metal ratio of in excess of 0 and up to 40 or more.
Device for checking the size and/or positioning of a part, the device comprising: - a support for spatially locating, positioning and keeping in a fixed position a part to be checked, - means (20, 30) for acquiring data representing the position of a surface to be checked of the part relative to the support, the acquisition means being adapted to interact contactlessly with the surface of the part, and - computing means adapted to calculate, on the basis of the data provided by the acquisition means (20, 30), a difference in size and/or positioning between the surface to be checked of the part and a predefined theoretical surface, the acquisition means (20, 30) comprise a multi-beam laser sensor which is in a fixed position on the support and which emits a plurality of distinct light beams in the same geometric plane, at least some of which beams intersect the surface to be checked of the part at as many coplanar check points as there are beams and are reflected in the direction towards the multi-beam laser sensor, at which the time taken by said at least some beams to return to the multi-beam laser sensor is measured, the acquisition means (20, 30) are adapted to provide data representing the position of the check points relative to the support, on the basis of which data the computing means are adapted to calculate the difference in size and/or positioning between at least some of the check points of the surface to be checked of the part and corresponding points of the predefined theoretical surface, characterised in that the support is provided fixedly with a calibration surface, the position of which relative to the support is known by the acquisition means (20, 30), in that, of the beams emitted by the multi-beam laser sensor in said geometric plane, some intersect the calibration surface at as many calibration points which are coplanar with the check points as there are beams, and in that the acquisition means (20, 30) are adapted to derive the data representing the position of the check points relative to the support from information relating to the calibration points. - a support for spatially locating, positioning and keeping in a fixed position a part to be checked, - means (20, 30) for acquiring data representing the position of a surface to be checked of the part relative to the support, the acquisition means being adapted to interact contactlessly with the surface of the part, and - computing means adapted to calculate, on the basis of the data provided by the acquisition means (20, 30), a difference in size and/or positioning between the surface to be checked of the part and a predefined theoretical surface,
Arrangement having a first component, having a second component and having a fluid-transfer ring; wherein the first component and the second component are rotatable relative to one another; wherein the first component has a first groove; wherein the fluid-transfer ring is fixed to the second component and, by way of a first wall and a second wall, engages into the first groove in such a way that the fluid-transfer ring and the first groove form a first cavity; wherein the first component has a second groove; and wherein, by way of a third wall, the fluid-transfer ring engages into the second groove in such a way that the fluid-transfer ring and the second groove form a second cavity; characterized in that the fluid-transfer ring engages into the second groove exclusively by way of the third wall. the first component and the second component are rotatable relative to one another; wherein the first component has a first groove; wherein the fluid-transfer ring is fixed to the second component and, by way of a first wall and a second wall, engages into the first groove in such a way that the fluid-transfer ring and the first groove form a first cavity; wherein the first component has a second groove; and wherein, by way of a third wall, the fluid-transfer ring engages into the second groove in such a way that the fluid-transfer ring and the second groove form a second cavity; characterized in that the fluid-transfer ring engages into the second groove exclusively by way of the third wall.