mhurhangee/ep-ind-claims huggingface dataset:
Upper part for a spice mill, consisting at least partly of plastics material and comprising the following: - an upper cover surface having at least two openings, in particular throughopenings for ground spices, arranged along an imaginary circle about an axis of rotation, - a circumferential curved surface, and - a milling element or a holder for the milling element, characterised in that a preferably elastically deformable snap-action element, by means of which the upper part can be rotatably connected to a lower part, is provided in alignment with the at least two openings in plan view, the snap-action elements each comprising a projecting piece which protrudes from each opening in the direction of the milling element or the holder and having a snap-action lug which points inwards towards the axis of rotation. - an upper cover surface having at least two openings, in particular throughopenings for ground spices, arranged along an imaginary circle about an axis of rotation, - a circumferential curved surface, and - a milling element or a holder for the milling element,
Module for emitting at least one light beam along an optical axis for automobile vehicles, said device comprising at least a first and at least a second light sources, at least a first and at least a second optical collectors designed to collect the light emitted by said at least a first and said at least a second light sources, respectively, and to redirect the light collected in convergent directions (D5, D6); where: • at least one of said at least a first and said at least a second light sources is oriented, in such a manner as to emit light in an overall direction of emission (D3, D4) moving away from the optical axis; and • the collector associated with the or with said oriented light sources have, at least partially, an asymmetrical configuration elongating the collector along the optical axis, the module being characterized in that: - said overall direction of emission (D3, D4) forms an angle of emission (α e3, α e4; α e) with the optical axis in the range between 5° and 15°; - said at least a first and at least a second collectors are adapted for redirecting the light onto the same focal region; and - said at least a first and/or at least a second collectors comprise an exit surface forming an optical interface, said surface being configured for focusing the collimated light toward said focal region. • at least one of said at least a first and said at least a second light sources is oriented, in such a manner as to emit light in an overall direction of emission (D3, D4) moving away from the optical axis; and • the collector associated with the or with said oriented light sources have, at least partially, an asymmetrical configuration elongating the collector along the optical axis, - said overall direction of emission (D3, D4) forms an angle of emission (α e3, α e4; α e) with the optical axis in the range between 5° and 15°; - said at least a first and at least a second collectors are adapted for redirecting the light onto the same focal region; and - said at least a first and/or at least a second collectors comprise an exit surface forming an optical interface, said surface being configured for focusing the collimated light toward said focal region.
An electroconductive filler comprising: powder and granules of a glass fiber, wherein the glass fiber is equipped with a metal coating in a longitudinal direction thereof, wherein the glass fiber has a fiber length distribution, wherein L10 (a fiber length at 10% in a number-basis cumulative distribution) is 20 μm to 200 μm, wherein L97 (a fiber length at 97% in a number-basis cumulative distribution) is 400 μm to 1000 μm, and wherein a glass fiber mean fiber diameter which is obtained by B-method of JIS R 3420 is 1 to 40 μm. powder and granules of a glass fiber, wherein the glass fiber is equipped with a metal coating in a longitudinal direction thereof, wherein the glass fiber has a fiber length distribution, wherein L10 (a fiber length at 10% in a number-basis cumulative distribution) is 20 μm to 200 μm, wherein L97 (a fiber length at 97% in a number-basis cumulative distribution) is 400 μm to 1000 μm, and wherein a glass fiber mean fiber diameter which is obtained by B-method of JIS R 3420 is 1 to 40 μm.
A method for pattern transfer, comprising: exposing a first portion of a phase change material layer provided on a substrate to a first dose of radiation from a patterned radiation beam, the first dose of radiation being sufficient to change the phase of the first portion to an amorphous state; exposing a second portion of the phase change material layer, separate from the first portion, to a second dose of radiation from a patterned radiation beam, the second dose of radiation being sufficient to change the phase of the second portion to an amorphous state; and removing a portion of the phase change material layer other than the first and second portions such that the first and second portions are substantially intact and define a pattern. exposing a first portion of a phase change material layer provided on a substrate to a first dose of radiation from a patterned radiation beam, the first dose of radiation being sufficient to change the phase of the first portion to an amorphous state; exposing a second portion of the phase change material layer, separate from the first portion, to a second dose of radiation from a patterned radiation beam, the second dose of radiation being sufficient to change the phase of the second portion to an amorphous state; and removing a portion of the phase change material layer other than the first and second portions such that the first and second portions are substantially intact and define a pattern.
Longitudinal member for a load conveyor, said member comprising a main body comprising a plurality of orifices which are each adapted to receive one end of a load-bearing element, characterised in that the main body possesses a "C"-shaped profile defining a cavity which is intended to receive at least one cable and/or at least one element for controlling the conveyor, the said "C"-shaped profile comprising: a central part, a first lateral arm which extends substantially perpendicularly from a first end of the central part, and a second lateral arm which extends substantially perpendicularly from a second end of said central part, the main body comprising, in the central part of the "C"-shaped profile: - a first set of orifices which open into the cavity and are situated at a first predetermined distance (H1') from the second lateral arm of the main body; and - a second set of orifices which open into the cavity and are situated at a second predetermined distance (H2') from the first lateral arm of the main body; characterised in that the longitudinal member comprises a guiding element which extends out of the cavity from the second lateral arm of the main body, and in that the longitudinal member is reversible and possesses two mounting directions: - a first direction in which: the guiding element is located above the main body; the cavity opens opposite the load-bearing elements; and each of the orifices belonging to the first set is capable of receiving one end of one of the load-bearing elements; - a second direction in which: the guiding element is located below the main body; the cavity opens opposite the load-bearing elements; and each of the orifices belonging to the second set is capable of receiving one end of one of the load-bearing elements. - a first set of orifices which open into the cavity and are situated at a first predetermined distance (H1') from the second lateral arm of the main body; and - a second set of orifices which open into the cavity and are situated at a second predetermined distance (H2') from the first lateral arm of the main body; - a first direction in which: the guiding element is located above the main body; the cavity opens opposite the load-bearing elements; and each of the orifices belonging to the first set is capable of receiving one end of one of the load-bearing elements; - a second direction in which: the guiding element is located below the main body; the cavity opens opposite the load-bearing elements; and each of the orifices belonging to the second set is capable of receiving one end of one of the load-bearing elements.
Cryogenic smoking process, said process comprising the steps of: - arranging the products to be subjected to cryogenic smoking inside an isolated smoking chamber, preferably on positioning grids; - introducing in said chamber inert cryogenic gas, until a pre-determined smoking temperature is reached; - introducing the smoking smoke, said smoking smoke being cooled by the cryogenic gas previously introduced in said chamber; - once the smoking of the product is finished, discharging the cryogenic gas from inside the chamber and extracting the smoked product. - arranging the products to be subjected to cryogenic smoking inside an isolated smoking chamber, preferably on positioning grids; - introducing in said chamber inert cryogenic gas, until a pre-determined smoking temperature is reached; - introducing the smoking smoke, said smoking smoke being cooled by the cryogenic gas previously introduced in said chamber; - once the smoking of the product is finished, discharging the cryogenic gas from inside the chamber and extracting the smoked product.
A method for scanning an object in an X-ray security inspection system, wherein the X-ray security inspection system comprises an ingoing tunnel equipped with radiation-shielding curtains, an X-ray section and an outgoing tunnel equipped with radiation-shielding curtains, the method comprising: passing the object through the ingoing tunnel at a first rate of speed and with a first extent of separation between successive objects; passing the object through the X-ray section at a second rate of speed and with a second extent of separation between successive objects; and passing the object through the outgoing tunnel at a third rate of speed and with a third extent of separation between successive objects; characterized in that the second rate of speed is less than the first rate of speed and the third rate of speed, and wherein the second extent of separation between successive objects is less than the first extent of separation between successive objects and the third extent of separation between successive objects. passing the object through the ingoing tunnel at a first rate of speed and with a first extent of separation between successive objects; passing the object through the X-ray section at a second rate of speed and with a second extent of separation between successive objects; and passing the object through the outgoing tunnel at a third rate of speed and with a third extent of separation between successive objects; characterized in that the second rate of speed is less than the first rate of speed and the third rate of speed, and wherein the second extent of separation between successive objects is less than the first extent of separation between successive objects and the third extent of separation between successive objects.
A method implemented in a wireless transmit/receive unit, WTRU, for performing a handover from a source cell to a target cell, the method comprising initiating reception and processing of a primary broadcast channel, P-BCH, of the target cell after receiving a handover command from an evolved Node B, eNB, associated with the source cell; sending a random access preamble to an eNB associated with the target cell, wherein the random access preamble is sent using a contention-based random access channel, RACH, procedure on condition that no dedicated RACH preamble is indicated in the handover command; receiving a random access response from the eNB associated with the target cell; sending a handover complete message to the eNB associated with the target cell; implementing a configuration for the WTRU to the extent that a system frame number, SFN, of the target cell is not required, prior to acquiring the SFN of the target cell; and further implementing the configuration for the WTRU utilizing the SFN on the target cell upon acquiring the SFN of the target cell.
An autonomous vehicle remote monitoring and control center (RMCC) apparatus, comprising: at least one processing device, the RMCC programmed and configured to: receive sensor data captured by a plurality of sensors distributed across a plurality of independently governed autonomous vehicles operating remotely from the RMCC, the sensor data including data of vehicles not operating under control of the RMCC; simultaneously determine an incident risk level of each of the plurality of independently governed autonomous vehicles operating remotely from the RMCC, wherein the incident risk level is determined by the RMCC as a function of sensor data independently captured from at least two different vehicles; in response to the incident risk level determined as not safe by the RMCC for one or more of the plurality of independent vehicles, take control of the one or more of the plurality of autonomous vehicles operating at the incident risk level that is not safe, to restore the vehicles operating at the incident risk level that is not safe to a safe incident risk level; and, in response to determining the incident risk has been restored to the safe incident risk level, return control to the one or more autonomous vehicle that were operating at the incident risk level that was not safe. receive sensor data captured by a plurality of sensors distributed across a plurality of independently governed autonomous vehicles operating remotely from the RMCC, the sensor data including data of vehicles not operating under control of the RMCC; simultaneously determine an incident risk level of each of the plurality of independently governed autonomous vehicles operating remotely from the RMCC, wherein the incident risk level is determined by the RMCC as a function of sensor data independently captured from at least two different vehicles; in response to the incident risk level determined as not safe by the RMCC for one or more of the plurality of independent vehicles, take control of the one or more of the plurality of autonomous vehicles operating at the incident risk level that is not safe, to restore the vehicles operating at the incident risk level that is not safe to a safe incident risk level; and, in response to determining the incident risk has been restored to the safe incident risk level, return control to the one or more autonomous vehicle that were operating at the incident risk level that was not safe.
A semiconductor comprised of at least one of the compounds according to, and to: wherein in the formulae and, R' is independently at least one of hydrogen, alkyl, alkoxy, and aryl; R is at least one of alkyl, alkoxy, aryl, a halogen, and hydrogen; m and n represent the number of substituents and are 0, 1, 2, 3 or 4; Ar is selected from the group consisting of phenyl, alkylphenyl, halophenyl and alkoxyphenyl; and x and y represent the number of repeating units, wherein x is from 1 to 6 and y is from 1 to 4, wherein in the formulae and, R' is independently at least one of hydrogen, alkyl, alkoxy, and aryl; R is at least one of alkyl, alkoxy, aryl, a halogen, and hydrogen; m and n represent the number of substituents and are 0, 1, 2, 3 or 4; Ar is selected from the group consisting of phenyl, alkylphenyl, halophenyl and alkoxyphenyl; and x, y and z represent the number of repeating units, wherein x is from 1 to 6, y is from 0 to 4 and z is from 1 to 3, wherein in the formulae to, R' is independently at least one of hydrogen, alkyl, alkoxy, and aryl; R is at least one of alkyl, alkoxy, aryl, a halogen, and hydrogen; m and n represent the number of substituents and are 0, 1, 2, 3 or 4; Ar is selected from the group consisting of phenyl, alkylphenyl, halophenyl and alkoxyphenyl; and x, y and z represent the number of repeating units, wherein x is from 1 to 6, y is from 0 to 4 and z is from 0 to 3; wherein the compounds according to and are not any of the following compounds: and wherein the compounds according to and are not the following compound: wherein in the formulae to, R' is independently at least one of hydrogen, alkyl, alkoxy, and aryl; R is at least one of alkyl, alkoxy, aryl, a halogen, and hydrogen; m and n represent the number of substituents and are 0, 1, 2, 3 or 4; Ar is selected from the group consisting of phenyl, alkylphenyl, halophenyl and alkoxyphenyl; and x, y and z represent the number of repeating units, wherein x is from 1 to 6, y is from 0 to 4 and z is from 0 to 3; wherein the compounds according to and are not any of the following compounds: and wherein the compounds according to and are not the following compound:
Fire-safety-training device for simulating a liquid fire, having - at least one first burner device, and having - a second burner device which has at least one gas line with multiple exit openings, characterized - in that the gas line of the second burner device is arranged at least partially in a channel which is configured to be filled, in the position of use, with water such that the at least one gas line is situated underwater. - at least one first burner device, and having - a second burner device which has at least one gas line with multiple exit openings, characterized - in that the gas line of the second burner device is arranged at least partially in a channel which is configured to be filled, in the position of use, with water such that the at least one gas line is situated underwater.
An ophthalmic pump system, comprising: a housing defining a cavity; a rotating element positioned within the cavity of the housing; a flexible tubular structure positioned within the housing adjacent to the rotating element such that rotation of the rotation element urges a fluid through the flexible tubular structure; and a lubricating solution positioned within the cavity around the rotating element and at least a portion of the flexible tubular structure, characterized in that the flexible tubular structure includes a plurality of components at least partially positioned adjacent to the rotating element such that the rotating element is simultaneously in contact with more than one of the plurality of components, wherein the plurality of components includes a first tubular element and a second tubular element, the first and the second tubular elements being disposed around the housing, and further comprising a channel extending annularly around the housing, the channel being in fluid communication with the first and the second tubular elements. a housing defining a cavity; a rotating element positioned within the cavity of the housing; a flexible tubular structure positioned within the housing adjacent to the rotating element such that rotation of the rotation element urges a fluid through the flexible tubular structure; and a lubricating solution positioned within the cavity around the rotating element and at least a portion of the flexible tubular structure, characterized in that the flexible tubular structure includes a plurality of components at least partially positioned adjacent to the rotating element such that the rotating element is simultaneously in contact with more than one of the plurality of components, wherein the plurality of components includes a first tubular element and a second tubular element, the first and the second tubular elements being disposed around the housing, and further comprising a channel extending annularly around the housing, the channel being in fluid communication with the first and the second tubular elements. characterized in that the flexible tubular structure includes a plurality of components at least partially positioned adjacent to the rotating element such that the rotating element is simultaneously in contact with more than one of the plurality of components, wherein the plurality of components includes a first tubular element and a second tubular element, the first and the second tubular elements being disposed around the housing, and further comprising a channel extending annularly around the housing, the channel being in fluid communication with the first and the second tubular elements.
A method of transferring dry nanoparticles onto a substrate comprising the steps of: providing a roller comprising an elastomeric stamp; transferring nanoparticles in a dry state, and which contact the surface of a donor substrate, from the donor substrate onto the elastomeric stamp; and depositing the dry nanoparticles from the elastomeric stamp onto a receiver substrate by rolling the elastomeric stamp onto the receiver substrate. providing a roller comprising an elastomeric stamp; transferring nanoparticles in a dry state, and which contact the surface of a donor substrate, from the donor substrate onto the elastomeric stamp; and depositing the dry nanoparticles from the elastomeric stamp onto a receiver substrate by rolling the elastomeric stamp onto the receiver substrate.
A polymer blend comprising: - from 50% to 85% by weight, preferably from 60% to 80% by weight, more preferably from 65% to 75% by weight of at least a modified ethylene- alpha -olefin copolymer; - from 50% to 15% by weight, preferably from 40% to 20% by weight, more preferably from 35% to 25% by weight, of at least a modified ethylene and vinyl acetate copolymer, said modified ethylene and vinyl acetate copolymer having a percentage by weight of vinyl acetate between 6% and 15%, preferably between 8% and 13%. - from 50% to 85% by weight, preferably from 60% to 80% by weight, more preferably from 65% to 75% by weight of at least a modified ethylene- alpha -olefin copolymer; - from 50% to 15% by weight, preferably from 40% to 20% by weight, more preferably from 35% to 25% by weight, of at least a modified ethylene and vinyl acetate copolymer, said modified ethylene and vinyl acetate copolymer having a percentage by weight of vinyl acetate between 6% and 15%, preferably between 8% and 13%.