mhurhangee/ep-ind-claims huggingface dataset:
Base transceiver system configured to communicate with user entity transceivers (142 1, 142 2, 142 3, 142 4) via one or more carriers (151, 152), the base transceiver system being configured to allocate transmission resources of the one or more carriers (151, 152) to the user entity transceivers (142 1, 142 2, 142 3, 142 4) for communication with the user entity transceivers (142 1, 142 2, 142 3, 142 4) in units of transmission time intervals, TTIs, into which the one or more carriers (151, 152) are temporally subdivided, and temporally adjust, by means of a time offset (153 CC), the beginning and/or end of transmission time intervals of at least one of the one or more carriers (151 152) depending on at least one signal received from one of the user entity transceivers (142 1, 142 2, 142 3, 142 4), characterized in that the base transceiver system is further configured to determine the time offset (135 CC) depending on a time offset between receipt of the at least one signal on a physical resource channel and the beginning of said physical resource channel in a state of synchronization between the base transceiver system and the user entity transceiver. allocate transmission resources of the one or more carriers (151, 152) to the user entity transceivers (142 1, 142 2, 142 3, 142 4) for communication with the user entity transceivers (142 1, 142 2, 142 3, 142 4) in units of transmission time intervals, TTIs, into which the one or more carriers (151, 152) are temporally subdivided, and temporally adjust, by means of a time offset (153 CC), the beginning and/or end of transmission time intervals of at least one of the one or more carriers (151 152) depending on at least one signal received from one of the user entity transceivers (142 1, 142 2, 142 3, 142 4), characterized in that the base transceiver system is further configured to determine the time offset (135 CC) depending on a time offset between receipt of the at least one signal on a physical resource channel and the beginning of said physical resource channel in a state of synchronization between the base transceiver system and the user entity transceiver.
An isolated functional fragment of a major royal jelly protein (MRJP), wherein the functional fragment has anti-inflammatory capacity, consists of up to 20 amino acids, and has been isolated, enriched, synthesized, or recombinantly produced, wherein a lysine or arginine amino acid residue of the functional fragment has been chemically modified by methylglyoxal; and wherein: the functional fragment comprises 4 to 20 amino acids of the last 20 amino acids at the C-terminus of the protein and the major royal jelly protein (MRJP) is selected from the group consisting of MRJP1 (SEQ ID NO: 1) and MRJP3 (SEQ ID NO: 3). the functional fragment comprises 4 to 20 amino acids of the last 20 amino acids at the C-terminus of the protein and the major royal jelly protein (MRJP) is selected from the group consisting of MRJP1 (SEQ ID NO: 1) and MRJP3 (SEQ ID NO: 3).
A bipolar secondary battery current collector having electrical conductivity comprising a first resin layer and a second resin layer, each having electrical conductivity, and an adhesive layer having electrical conductivity that expands in a thickness direction of the current collector when heated at a temperature which is lower than a melting point of the adhesive layer, the adhesive layer including a thermally expandable microcapsule comprising an expansion material enclosed in a gel containing a thermoplastic macromolecular material, wherein the adhesive layer is stacked on the first resin layer, characterized in that the bipolar secondary battery current collector further comprises an ion blocking layer with one surface of the adhesive layer and one surface of the ion blocking layer being joined to each other, wherein the second resin layer is arranged on the other surface of the ion blocking layer.
An aerosol container of plastic with a neck whose opening is closable or closed in a pressure-tight manner by way of a valve unit which can be actuated by a push button, said aerosol container being fillable or filled with a liquid or gaseous propellant and a liquid which is to be sprayed, wherein the aerosol container is designed as an injection-moulded preform with an elongate, tube-like preform body (2, 2'), said preform body comprising a convex, dome-shaped preform base, beyond which a standing region which is integrally formed as one piece projects in the axial direction and at its opposite axial longitudinal end comprising a neck with an opening, said neck connecting onto the preform body (2, 2').
A motor oil-cooling structure for cooling coils with use of oil, wherein the coils are wound around split stator cores of a motor, wherein the motor includes a motor case, a rotor rotatably supported by the motor case to rotate about a motor axis, and a stator including the split stator cores fixed to the motor case and arranged along a cylindrical outer periphery of the rotor, the motor oil-cooling structure comprising: injection holes arranged in a circumferential direction of the split stator cores on a plane orthogonal to the motor axis so as to axially face the split stator cores, wherein: each of the injection holes is structured to inject oil toward a corresponding one of coil gaps each of which is formed between two of the split stator cores adjacent to each other; characterized in that each of the injection holes is structured to inject oil in a direction inclined by a circumferential inclination angle ( θ 1) with respect to a direction of the motor axis, wherein oil injected to the coil gaps in the direction of the motor axis passes straight through the coil gaps. injection holes arranged in a circumferential direction of the split stator cores on a plane orthogonal to the motor axis so as to axially face the split stator cores, wherein: each of the injection holes is structured to inject oil toward a corresponding one of coil gaps each of which is formed between two of the split stator cores adjacent to each other; characterized in that each of the injection holes is structured to inject oil in a direction inclined by a circumferential inclination angle ( θ 1) with respect to a direction of the motor axis, wherein oil injected to the coil gaps in the direction of the motor axis passes straight through the coil gaps. each of the injection holes is structured to inject oil toward a corresponding one of coil gaps each of which is formed between two of the split stator cores adjacent to each other; characterized in that each of the injection holes is structured to inject oil in a direction inclined by a circumferential inclination angle ( θ 1) with respect to a direction of the motor axis, wherein oil injected to the coil gaps in the direction of the motor axis passes straight through the coil gaps.
A chlorine-free, electron-beam curable composition for offset printing, comprising: - 10-40% of one or more acrylate monomers; - 5-30% of one or more acrylate oligomers; - 5-30% of one or more chlorine-free inert resins; - 5-30% of one or more acrylated epoxidized vegetable oils; and - 0-60% of one or more white pigment. - 10-40% of one or more acrylate monomers; - 5-30% of one or more acrylate oligomers; - 5-30% of one or more chlorine-free inert resins; - 5-30% of one or more acrylated epoxidized vegetable oils; and - 0-60% of one or more white pigment.
Process for the preparation of N-(benzyl)cyclopropanamines of the general formula in which Z is hydrogen, C 1 -C 8 -alkyl, C 1 -C 4 -haloalkyl or C 3 -C 7 -cycloalkyl, X 1 is halogen or C 1 -C 8 -haloalkyl having up to 9 identical or different halogen atoms, X is C 1 -C 8 -alkyl or C 1 -C 8 -haloalkyl having up to 9 identical or different halogen atoms, n is 1, 2, 3, or 4, characterized in that N-[(aryl)methylene]cyclopropanamine derivatives of the general formula in which Z, X, X 1 and n have the meanings given above, are catalytically hydrogenated, and wherein the hydrogenation catalyst is a platinum catalyst. Z is hydrogen, C 1 -C 8 -alkyl, C 1 -C 4 -haloalkyl or C 3 -C 7 -cycloalkyl, X 1 is halogen or C 1 -C 8 -haloalkyl having up to 9 identical or different halogen atoms, X is C 1 -C 8 -alkyl or C 1 -C 8 -haloalkyl having up to 9 identical or different halogen atoms, n is 1, 2, 3, or 4,
A portable working machine comprising: a driving source; a main body including the driving source; a handle (10, 15, 40) joined with the main body; a fixing portion (3, 4) provided to one of the main body or the handle (10, 15, 40); and a vibration-proofing mechanism including an elastic body, the handle (10, 15, 40) joined with the main body with the vibration-proofing mechanism and the fixing portion (3, 4) interposed therebetween; wherein the elastic body of the vibration-proofing mechanism is fixed to a first side of the fixing portion (3, 4), and a stopper portion (23d, 35) configured to come into contact with the other of the main body or the handle (10, 15, 40) to regulate a movement amount of the handle (10, 15, 40) is provided at a second side of the fixing portion (3, 4), which is opposite to the first side of the fixing portion (3, 4), characterized by the handle (10, 15, 40) including a supporting portion (12, 42), and the elastic body being disposed inside the supporting portion (12, 42), and one end of the elastic body being fixed to the fixing portion (3, 4) of the main body by a fixing member, and an other end of the elastic body being fixed to the supporting portion (12, 42) of the handle (10, 15, 40) by an attaching member. a driving source; a main body including the driving source; a handle (10, 15, 40) joined with the main body; a fixing portion (3, 4) provided to one of the main body or the handle (10, 15, 40); and a vibration-proofing mechanism including an elastic body, the handle (10, 15, 40) joined with the main body with the vibration-proofing mechanism and the fixing portion (3, 4) interposed therebetween; wherein the elastic body of the vibration-proofing mechanism is fixed to a first side of the fixing portion (3, 4), and a stopper portion (23d, 35) configured to come into contact with the other of the main body or the handle (10, 15, 40) to regulate a movement amount of the handle (10, 15, 40) is provided at a second side of the fixing portion (3, 4), which is opposite to the first side of the fixing portion (3, 4), characterized by the handle (10, 15, 40) including a supporting portion (12, 42), and the elastic body being disposed inside the supporting portion (12, 42), and one end of the elastic body being fixed to the fixing portion (3, 4) of the main body by a fixing member, and an other end of the elastic body being fixed to the supporting portion (12, 42) of the handle (10, 15, 40) by an attaching member.
An oven assembly, comprising: a plurality of shelves aligned vertically relative to one another, said shelves providing a plurality of chambers therebetween, and each of said chambers including an entry opening along a first side and an exit opening along a second side, wherein each of said shelves includes an upper platen, a lower platen, and a middle platen disposed therebetween, said platens (22a, 22b, 22c) are spaced from one another to provide a pair of chambers (24a, 24b), said middle platen is disposed in a fixed vertical position, and said upper platen and said lower platen are movable vertically related to said middle platen; at least one heating device for heating each of said chambers; an entry side platform movable vertically along said entry openings of said chambers (24, 24a, 24b) and an exit side platform movable vertically along said exit openings of said chambers (24, 24a, 24b); and a conveyor extending along said platforms (36, 38) and through said chambers (24, 24a, 24b) for moving the blanks from said entry opening to said exit opening. a plurality of shelves aligned vertically relative to one another, said shelves providing a plurality of chambers therebetween, and each of said chambers including an entry opening along a first side and an exit opening along a second side, wherein each of said shelves includes an upper platen, a lower platen, and a middle platen disposed therebetween, said platens (22a, 22b, 22c) are spaced from one another to provide a pair of chambers (24a, 24b), said middle platen is disposed in a fixed vertical position, and said upper platen and said lower platen are movable vertically related to said middle platen; at least one heating device for heating each of said chambers; an entry side platform movable vertically along said entry openings of said chambers (24, 24a, 24b) and an exit side platform movable vertically along said exit openings of said chambers (24, 24a, 24b); and a conveyor extending along said platforms (36, 38) and through said chambers (24, 24a, 24b) for moving the blanks from said entry opening to said exit opening.
A method of improving pollination of lettuce ( Lactuca sativa) by using a Megachile bee, comprising the steps of: providing the Megachile bee in a field where a pollen parent lettuce plant and a seed parent lettuce plant are present, characterized in that a minor nectar plant is further planted in the field, wherein the minor nectar plant is the plant for which preference in flower visiting by the Megachile bee is equivalent to or less than preference in flower visiting by the Megachile bee for the pollen parent lettuce plant and the seed parent lettuce plant, and wherein the Megachile bee is Megachile rotundata, and the minor nectar plant used is one or more genera selected from the group consisting of dyers chamomile (Anthemis tinctoria), coriander (Coriandrum sativum), hyssop ( Hyssopus officinalis), bergamot (Monarda didyma), catnip (Nepeta cataria), midday flower (Pentapetes phoenicea), blue sage (Salvia azurea), mexican fleabane ( Eriaeron karvinskianus), fennel ( Foeniculum vulgare), gold medallion flower (Melampodium paludosum), moss-rose purslane (Portulaca grandiflora), and bluewings (Torenia fournieri). a minor nectar plant is further planted in the field, wherein the minor nectar plant is the plant for which preference in flower visiting by the Megachile bee is equivalent to or less than preference in flower visiting by the Megachile bee for the pollen parent lettuce plant and the seed parent lettuce plant, and wherein the Megachile bee is Megachile rotundata, and the minor nectar plant used is one or more genera selected from the group consisting of dyers chamomile (Anthemis tinctoria), coriander (Coriandrum sativum), hyssop ( Hyssopus officinalis), bergamot (Monarda didyma), catnip (Nepeta cataria), midday flower (Pentapetes phoenicea), blue sage (Salvia azurea), mexican fleabane ( Eriaeron karvinskianus), fennel ( Foeniculum vulgare), gold medallion flower (Melampodium paludosum), moss-rose purslane (Portulaca grandiflora), and bluewings (Torenia fournieri).
A method of evaluating stent expansion in a blood vessel defining a lumen comprising: receiving a first set of blood vessel image data of a stented blood vessel from a first imaging system; storing the first set of blood vessel image data in an electronic memory device in electronic communication with the first imaging system; detecting stent struts along a length of the stented vessel using one more software modules; generating a first representation of a segment of the blood vessel indicative of a level of stent expansion; determining, using the detected stent struts, a first end of the stent and a second end of the stent; characterized in defining a first offset distance, D1, from the first end of the stent and a second offset distance, D2, from the second end of the stent; generating a second representation of the segment of the blood vessel using D1 and D2 in combination with a tapering profile of the segment; and determining level of target stent expansion along blood vessel segment by comparing a first value associated with the first representation with a second value associated with the second representation at different positions along the length of the segment. receiving a first set of blood vessel image data of a stented blood vessel from a first imaging system; storing the first set of blood vessel image data in an electronic memory device in electronic communication with the first imaging system; detecting stent struts along a length of the stented vessel using one more software modules; generating a first representation of a segment of the blood vessel indicative of a level of stent expansion; determining, using the detected stent struts, a first end of the stent and a second end of the stent; defining a first offset distance, D1, from the first end of the stent and a second offset distance, D2, from the second end of the stent; generating a second representation of the segment of the blood vessel using D1 and D2 in combination with a tapering profile of the segment; and determining level of target stent expansion along blood vessel segment by comparing a first value associated with the first representation with a second value associated with the second representation at different positions along the length of the segment.
A process for selectively and continuously extracting a series of desired species from a matrix, comprising the steps of: - injecting a plasma in an extraction chamber by means of a plasma torch, the matrix being disposed on a support within the extraction chamber, said plasma causing: ∘ formation of molecules, at the surface of the matrix, from chemical elements contained in the matrix and in the plasma, ∘ evaporation of said molecules from the matrix, ∘ destruction of some molecules and excitation of chemical elements contained in the molecules and extracted from the matrix, - continuously monitoring the excited elements extracted from the matrix and contained in the plasma by optical emission spectroscopy, and for each species of the series, - setting a distance between the support and the plasma torch, and the composition of the injected plasma as a function of the monitored excited elements so that only one desired species of the series of species is being extracted from the matrix under molecular form, and - providing a plate in the extraction chamber, exterior to the plasma, causing: ∘ reformation of said molecules previously destroyed by the plasma comprising the desired species extracted from the matrix, ∘ collection of said molecules comprising said desired species by deposition onto the surface of the plate. - injecting a plasma in an extraction chamber by means of a plasma torch, the matrix being disposed on a support within the extraction chamber, said plasma causing: ∘ formation of molecules, at the surface of the matrix, from chemical elements contained in the matrix and in the plasma, ∘ evaporation of said molecules from the matrix, ∘ destruction of some molecules and excitation of chemical elements contained in the molecules and extracted from the matrix, ∘ formation of molecules, at the surface of the matrix, from chemical elements contained in the matrix and in the plasma, ∘ evaporation of said molecules from the matrix, ∘ destruction of some molecules and excitation of chemical elements contained in the molecules and extracted from the matrix, - continuously monitoring the excited elements extracted from the matrix and contained in the plasma by optical emission spectroscopy, and - setting a distance between the support and the plasma torch, and the composition of the injected plasma as a function of the monitored excited elements so that only one desired species of the series of species is being extracted from the matrix under molecular form, and - providing a plate in the extraction chamber, exterior to the plasma, causing: ∘ reformation of said molecules previously destroyed by the plasma comprising the desired species extracted from the matrix, ∘ collection of said molecules comprising said desired species by deposition onto the surface of the plate. ∘ reformation of said molecules previously destroyed by the plasma comprising the desired species extracted from the matrix, ∘ collection of said molecules comprising said desired species by deposition onto the surface of the plate.
A system comprising: an implantable transdermal medical device; and a device comprising a mesh having at least one bioresorbable polymer coating comprising a tyrosine-derived polyesteramide, said coating comprising at least one active agent which is eluted over time, and said device at least partially covering at least a portion of the implantable transdermal medical device, wherein the implantable transdermal medical device is a laparoscopic adjustable gastric band, and the device is positioned to deliver the active agent to an area in and/or around an injection port of the laparoscopic adjustable gastric band; and wherein said active agent comprises rifampin and minocycline and the amount of each of rifampin and minocycline in the coating is between 0.6 and 1.4 micrograms/cm 2. an implantable transdermal medical device; and a device comprising a mesh having at least one bioresorbable polymer coating comprising a tyrosine-derived polyesteramide, said coating comprising at least one active agent which is eluted over time, and said device at least partially covering at least a portion of the implantable transdermal medical device, wherein the implantable transdermal medical device is a laparoscopic adjustable gastric band, and the device is positioned to deliver the active agent to an area in and/or around an injection port of the laparoscopic adjustable gastric band; and wherein said active agent comprises rifampin and minocycline and the amount of each of rifampin and minocycline in the coating is between 0.6 and 1.4 micrograms/cm 2.
A bituminous membrane production system comprising a cooling/finishing station designed to: receive a bituminous strip made from at least one semisolid bituminous mix; feed the bituminous strip in a given travelling direction; and cool at least one of the two major surfaces of the bituminous strip as it moves forward; said cooling/finishing station comprises at least one strip cooling device, in turn comprising: - at least one cooling roller, which rotates about an axis crosswise to said travelling direction of the bituminous strip and is positioned so that its outer cooling surface is slightly spaced from a major surface of the bituminous strip; - a cooling fluid source, which cooperates with said cooling roller to wet the outer cooling surface of the cooling roller with cooling fluid; and - rotation means for rotating the cooling roller about said crosswise axis, so that, as the cooling roller rotates, the cooling fluid on said outer cooling surface is brought into contact with the major surface of the bituminous strip; and - an electronic control system, which controls said rotation means to rotate the cooling roller at such a rotation speed (v 1) that the cooling fluid adheres to and forms on said outer cooling surface a surface layer (s) of cooling fluid, which, as the cooling roller rotates, is brought into contact with the major surface of the bituminous strip; said system being characterized in that the said electronic control system controls the rotation means so that the rotation speed (v 1) of the cooling roller is lower than the travelling speed of the bituminous strip - at least one cooling roller, which rotates about an axis crosswise to said travelling direction of the bituminous strip and is positioned so that its outer cooling surface is slightly spaced from a major surface of the bituminous strip; - a cooling fluid source, which cooperates with said cooling roller to wet the outer cooling surface of the cooling roller with cooling fluid; and - rotation means for rotating the cooling roller about said crosswise axis, so that, as the cooling roller rotates, the cooling fluid on said outer cooling surface is brought into contact with the major surface of the bituminous strip; and - an electronic control system, which controls said rotation means to rotate the cooling roller at such a rotation speed (v 1) that the cooling fluid adheres to and forms on said outer cooling surface a surface layer (s) of cooling fluid, which, as the cooling roller rotates, is brought into contact with the major surface of the bituminous strip;