mhurhangee/ep-ind-claims huggingface dataset:
Drive unit, comprising an electric machine and a gearbox, wherein the gearbox has a shift assembly, wherein the shift assembly has a first sun gear, a second sun gear, a plurality of first planet gears, a plurality of second planet gears and a first ring gear, wherein the first sun gear meshes with the first planet gears, the second sun gear meshes with the second planet gears, characterized in that the second planet gears mesh with the first planet gears and the first planet gears mesh with the first ring gear, wherein the second planet gears and the first planet gears are coupled to each other by means of a first planet carrier, wherein the gearbox has a transmission assembly, wherein the transmission assembly has a third sun gear, a plurality of third planet gears, a second ring gear and a second planet carrier, wherein the third sun gear meshes with the third planet gears and the third planet gears mesh with the second ring gear, wherein the first sun gear is coupled to the electric machine in such a way that the first sun gear can be driven by means of the electric machine, and the third sun gear is coupled to the first planet carrier in such a way that the third sun gear can be driven by means of the first planet carrier, or wherein the first sun gear is coupled to the second planet carrier in such a way that the first sun gear can be driven by means of the second planet carrier, and the third sun gear is coupled to the electric machine in such a way that the third sun gear can be driven by means of the electric machine. wherein the gearbox has a shift assembly, wherein the shift assembly has a first sun gear, a second sun gear, a plurality of first planet gears, a plurality of second planet gears and a first ring gear, wherein the first sun gear meshes with the first planet gears, the second sun gear meshes with the second planet gears, characterized in that the second planet gears mesh with the first planet gears and the first planet gears mesh with the first ring gear, wherein the second planet gears and the first planet gears are coupled to each other by means of a first planet carrier, wherein the gearbox has a transmission assembly, wherein the transmission assembly has a third sun gear, a plurality of third planet gears, a second ring gear and a second planet carrier, wherein the third sun gear meshes with the third planet gears and the third planet gears mesh with the second ring gear, wherein the first sun gear is coupled to the electric machine in such a way that the first sun gear can be driven by means of the electric machine, and the third sun gear is coupled to the first planet carrier in such a way that the third sun gear can be driven by means of the first planet carrier, or wherein the first sun gear is coupled to the second planet carrier in such a way that the first sun gear can be driven by means of the second planet carrier, and the third sun gear is coupled to the electric machine in such a way that the third sun gear can be driven by means of the electric machine.
A mammalian expression vector for Chinese Hamster Ovary host cells comprising at least a first transcription unit containing a first nucleotide sequence encoding the light chain of an antibody and a second transcription unit containing a second nucleotide sequence encoding the heavy chain of an antibody, characterized in that the codon composition of both the first and second nucleotide sequence is adapted to the codon bias of Chinese Hamster Ovary host cells.
A composition comprising processed microvascular tissue, wherein the processed microvascular tissue comprises isolated multipotent cells or a cell membrane obtained from or derived from multipotent cells or from the microvascular tissue, wherein the composition has angiogenic or anti-inflammatory activity, wherein the composition is sterilized by irradiation and viruses within the composition are inactivated, and wherein sterilization by irradiation is performed by exposing the composition to gamma radiation or electron beam radiation at a dosage in the range of 0.5 Mrad to 5.0 Mrad.
A water-based ink for ink-jet recording, the water-based ink comprising a pigment, a pigment-dispersing agent, a binder, and water, wherein the pigment-dispersing agent includes a styrene-acrylic copolymer and the binder includes a polyolefin resin, wherein the polyolefin resin has a weight-average molecular weight of 10,000 or more and 1,000,000 or less and an acid value of 1 to 200 mgKOH/g.
A non-transitory computer-readable medium having instructions stored thereon executable by a processor to: - receive an image of a portion of a facility captured by an imaging device, the image defined by a field of view; - determine a first area of interest and a second area of interest in the field of view, wherein the first area of interest is associated with an occlusion object; - monitor the first and second area of interest for a period of time to detect motion which determines a motion detection event; characterised to - set a first occupancy detection threshold for the first area of interest, and set a different second occupancy detection threshold for the second area of interest, the occupancy detection threshold indicating a time period between motion detection events for determination of occupancy when detecting movement within the time period. - receive an image of a portion of a facility captured by an imaging device, the image defined by a field of view; - determine a first area of interest and a second area of interest in the field of view, wherein the first area of interest is associated with an occlusion object; - monitor the first and second area of interest for a period of time to detect motion which determines a motion detection event; characterised to - set a first occupancy detection threshold for the first area of interest, and set a different second occupancy detection threshold for the second area of interest, the occupancy detection threshold indicating a time period between motion detection events for determination of occupancy when detecting movement within the time period.
A pharmaceutical composition, comprising: an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein the first uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 65:35 to 90:10, an intrinsic viscosity of 0.4-0.9 dl/g; the second uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 50:50 to 75:25, an intrinsic viscosity of 0.1-0.35 dl/g; wherein a weight ratio of the first uncapped poly(lactide-coglycolide) to the second uncapped poly(lactide-co-glycolide) is:; wherein a weight content of the active ingredient in the pharmaceutical composition is within a range from 10% to 60%, and a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%; wherein the pharmaceutical composition is present in the form of microspheres. an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein the first uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 65:35 to 90:10, an intrinsic viscosity of 0.4-0.9 dl/g; the second uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 50:50 to 75:25, an intrinsic viscosity of 0.1-0.35 dl/g; wherein a weight ratio of the first uncapped poly(lactide-coglycolide) to the second uncapped poly(lactide-co-glycolide) is:; wherein a weight content of the active ingredient in the pharmaceutical composition is within a range from 10% to 60%, and a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%; wherein the pharmaceutical composition is present in the form of microspheres.
Method for detecting the fertility or/and fertility restoration or/and restorer genes in a wheat plant or parts of a wheat plant, wherein one of the genetic markers QTL B (QTL B = SEQ ID NO: 3) or QTL W (QTL W = SEQ ID NO: 2) is used, or a combination of two or three genetic markers is used, wherein the marker gene or genes are selected from the group consisting of QTL T (QTL T = SEQ ID NO: 1), QTL B (QTL B = SEQ ID NO: 3) and QTL W (QTL W = SEQ ID NO: 2), and fertility or the degree of fertility is determined by detecting the alleles of these markers.
A molded interior trim installation material for an automobile, comprising: an air permeable design layer that faces an interior surface of the automobile and that has a flow resistance value of less than 500 Nsm -3; a shape-retaining felt layer that can maintain its molded shape and that has a flow resistance value of less than 500 Nsm -3; and a porous adhesive layer that serves to adhere said air permeable design layer and said shape-retaining felt layer and that forms openings therein; wherein openings are formed halfway through said air permeable design layer or said shape-retaining felt layer at positions that face said openings in said porous adhesive layer. an air permeable design layer that faces an interior surface of the automobile and that has a flow resistance value of less than 500 Nsm -3; a shape-retaining felt layer that can maintain its molded shape and that has a flow resistance value of less than 500 Nsm -3; and a porous adhesive layer that serves to adhere said air permeable design layer and said shape-retaining felt layer and that forms openings therein; wherein openings are formed halfway through said air permeable design layer or said shape-retaining felt layer at positions that face said openings in said porous adhesive layer.
A laser diode projecting apparatus which comprises: at least two laser diodes each emitting radiation towards a respective focal point at a pre-defined wavelength, and wherein the at least two respective focal points are separated from each other by at least an offset distance; a power controller operative to control the intensity of the radiation emitted from each of the at least two laser diodes, and wherein the aggregated value of the radiation intensity emitted by all of the at least two laser diodes within a predefined period of time exceeds a threshold value allowed for the maximum permissible exposure to radiation; and a photodetector adapted to measure the light intensity at the surrounding of the laser diode projecting apparatus, and a processor adapted to change the offset distance between the at least two focal points based upon light intensity changes occurring at the surrounding of said laser diode projecting apparatus. at least two laser diodes each emitting radiation towards a respective focal point at a pre-defined wavelength, and wherein the at least two respective focal points are separated from each other by at least an offset distance; a power controller operative to control the intensity of the radiation emitted from each of the at least two laser diodes, and wherein the aggregated value of the radiation intensity emitted by all of the at least two laser diodes within a predefined period of time exceeds a threshold value allowed for the maximum permissible exposure to radiation; and a photodetector adapted to measure the light intensity at the surrounding of the laser diode projecting apparatus, and a processor adapted to change the offset distance between the at least two focal points based upon light intensity changes occurring at the surrounding of said laser diode projecting apparatus.
A method of upgrading a Provider Bridge, PB, based Virtual Local Area Network, VLAN, providing a VLAN service under a first technology into an upgraded VLAN providing the VLAN service under a second technology, the method comprising the steps of: performing in-service upgrading of each Provider Edge Bridge, PEB, supporting the VLAN service under the first technology in the PB-based VLAN into a corresponding upgraded edge node supporting the VLAN service under the second technology in the upgraded VLAN; using a processor, configuring each upgraded edge node to simultaneously support the VLAN service under both of the first and the second technologies until all customer traffic is migrated to the second technology; and using the processor, providing sequential in-service migration of the customer traffic to the second technology on an edge node by edge node basis. performing in-service upgrading of each Provider Edge Bridge, PEB, supporting the VLAN service under the first technology in the PB-based VLAN into a corresponding upgraded edge node supporting the VLAN service under the second technology in the upgraded VLAN; using a processor, configuring each upgraded edge node to simultaneously support the VLAN service under both of the first and the second technologies until all customer traffic is migrated to the second technology; and using the processor, providing sequential in-service migration of the customer traffic to the second technology on an edge node by edge node basis.
A battery packaging material which is used in a battery configured to ensure that when the battery is heated to a set temperature T °C fixed between 100 °C and 160 °C, the packaging material is not unsealed until the ambient temperature reaches T °C, and after the ambient temperature reaches T °C, the packaging material is quickly unsealed, the battery packaging material comprising a laminate including at least a base material layer, a metal layer and a sealant layer in this order, wherein the sealant layer includes a first sealant layer which is situated on the metal layer side and which contains an acid-modified polyolefin, and a second sealant layer which is laminated on the first sealant layer and situated at the innermost layer and which contains a polyolefin, and the first sealant layer and the second sealant layer satisfy the following formulae and: − 10 ≤ T m 1 − T ≤ − 5 − 5 ≤ T m 2 − T ≤ 5 wherein T m1 is a melting point (°C) of the first sealant layer; and T m2 is a melting point (°C) of the second sealant layer. T m1 is a melting point (°C) of the first sealant layer; and T m2 is a melting point (°C) of the second sealant layer.
A hydraulic hammering device, comprising: - a piston slidably fitted into a cylinder, the piston being configured to advance and retract to hammer a rod for hammering; - a front chamber and a rear chamber that are defined between an outer peripheral surface of the piston and an inner peripheral surface of the cylinder and arranged separated from each other in the front and rear direction; and - a switching valve mechanism configured to switch the front chamber into communication with a low pressure circuit when the piston advances and to supply and discharge hydraulic oil so that an advance and a retraction of the piston can be repeated, wherein: - the front chamber has a front-chamber liner that is fitted to an inner surface of the cylinder, - a hydraulic chamber space is formed to the front-chamber liner as a cushion chamber, the hydraulic chamber space communicating with the front chamber to be filled with hydraulic oil, and characterised in that: - the cushion chamber has a second drain circuit (46, 47, 48) that is formed separately from a drain circuit configured to guide hydraulic oil passing a liner bearing section of the front-chamber liner to the low pressure circuit, the second drain circuit (46, 47, 48) passing through portions other than the liner bearing section. - a piston slidably fitted into a cylinder, the piston being configured to advance and retract to hammer a rod for hammering; - a front chamber and a rear chamber that are defined between an outer peripheral surface of the piston and an inner peripheral surface of the cylinder and arranged separated from each other in the front and rear direction; and - a switching valve mechanism configured to switch the front chamber into communication with a low pressure circuit when the piston advances and to supply and discharge hydraulic oil so that an advance and a retraction of the piston can be repeated, - the front chamber has a front-chamber liner that is fitted to an inner surface of the cylinder, - a hydraulic chamber space is formed to the front-chamber liner as a cushion chamber, the hydraulic chamber space communicating with the front chamber to be filled with hydraulic oil, and - the cushion chamber has a second drain circuit (46, 47, 48) that is formed separately from a drain circuit configured to guide hydraulic oil passing a liner bearing section of the front-chamber liner to the low pressure circuit, the second drain circuit (46, 47, 48) passing through portions other than the liner bearing section.
Combustion engine comprising a switching rack and a plurality of connecting rods, where the switching rack comprises a longitudinal body having a face side and a rear side, where the face side comprises a plurality of switching arrangements, where each switching arrangement comprises a first cam and a second cam, where each switching arrangement is adapted to interact with a switch on a connecting rod, wherein the switching rack is arranged in a gliding manner in a groove between a cylinder block and an engine bedplate of the combustion engine.
A solar energy generation system comprising: a solar cell for photovoltaic generation; a thermoelectric module unit for thermoelectric generation; and a lens part including a filter and a lens, the filter reflecting a first solar energy an incident solar energy having a first spectrum range suitable for photovoltaic generation to the solar cell, the lens collecting a second solar energy having a second spectrum range except for the first spectrum range of the incident solar energy to the thermoelectric module unit, wherein a collecting surface of the solar cell faces an incident surface of the lens part, and a collecting surface of the thermoelectric module unit faces a transmitting surface of the lens part, wherein the filter is coated on the incident surface of the lens, wherein the thermoelectric module unit comprises an absorbing plate having a first surface on which the collecting surface for the second solar energy is disposed, characterized in that said first surface is protruded into an incident direction of the second solar energy, to uniformly distribute the incident second solar energy on a second surface opposite to the first surface, wherein the thickness of said absorbing plate is increased at the central portion thereof and decreased further away from said central portion. a solar cell for photovoltaic generation; a thermoelectric module unit for thermoelectric generation; and a lens part including a filter and a lens, the filter reflecting a first solar energy an incident solar energy having a first spectrum range suitable for photovoltaic generation to the solar cell, the lens collecting a second solar energy having a second spectrum range except for the first spectrum range of the incident solar energy to the thermoelectric module unit, wherein a collecting surface of the solar cell faces an incident surface of the lens part, and a collecting surface of the thermoelectric module unit faces a transmitting surface of the lens part, wherein the filter is coated on the incident surface of the lens, wherein the thermoelectric module unit comprises an absorbing plate having a first surface on which the collecting surface for the second solar energy is disposed, characterized in that said first surface is protruded into an incident direction of the second solar energy, to uniformly distribute the incident second solar energy on a second surface opposite to the first surface, wherein the thickness of said absorbing plate is increased at the central portion thereof and decreased further away from said central portion.
A baked product characterized in that it is obtained by adding, to the ingredients of the baked product, microalgal flour comprising at least partially lysed cells in the form of granules having the three following characteristics: - a monomodal particle size distribution, measured on a Coulter® LS laser particle size analyzer, of between 2 and 400 μm, centered on a particle diameter (D mode) between 5 and 15 μm, - flow grades, determined according to a test A, between 0.5% and 60% by weight for the oversize at 2000 μm, between 0.5% and 60% by weight for the oversize at 1400 μm and between 0.5% and 95 % by weight for the oversize at 800 μm, - a degree of wettability, expressed according to a test B, by the height of the product decanted in a beaker, at a value of between 0 and 4 cm, preferably between 0 and 2 cm, and more preferentially between 0 and 0.5 cm. - a monomodal particle size distribution, measured on a Coulter® LS laser particle size analyzer, of between 2 and 400 μm, centered on a particle diameter (D mode) between 5 and 15 μm, - flow grades, determined according to a test A, between 0.5% and 60% by weight for the oversize at 2000 μm, between 0.5% and 60% by weight for the oversize at 1400 μm and between 0.5% and 95 % by weight for the oversize at 800 μm, - a degree of wettability, expressed according to a test B, by the height of the product decanted in a beaker, at a value of between 0 and 4 cm, preferably between 0 and 2 cm, and more preferentially between 0 and 0.5 cm.
A system, comprising: an aircraft having a seat, the seat having a seat back defining a surface; a pocket member having a top portion, a bottom portion, an exterior side, and an interior side; and two spring members, each of the two spring members being positioned vertically between the surface and the interior side of the pocket member, each of the two spring members having a spring top portion and a spring bottom portion, each of the spring top portions being attached to the top portion of the pocket member, each of the spring bottom portions being attached to the surface at a location corresponding to a vertical position of the bottom portion of the pocket member; wherein each of the spring top portions are not attached to the surface, wherein each of the spring bottom portions are not attached to the bottom portion of the pocket member; wherein the surface, the pocket member, and the two spring members form a pocket configured to, at a given time, be one of: open at the top portion of the pocket member, open at the bottom portion of the pocket member, or closed; wherein the two spring members are configured to maintain the pocket as closed when an external force is not acting on the pocket member. an aircraft having a seat, the seat having a seat back defining a surface; a pocket member having a top portion, a bottom portion, an exterior side, and an interior side; and two spring members, each of the two spring members being positioned vertically between the surface and the interior side of the pocket member, each of the two spring members having a spring top portion and a spring bottom portion, each of the spring top portions being attached to the top portion of the pocket member, each of the spring bottom portions being attached to the surface at a location corresponding to a vertical position of the bottom portion of the pocket member; wherein each of the spring top portions are not attached to the surface, wherein each of the spring bottom portions are not attached to the bottom portion of the pocket member; wherein the surface, the pocket member, and the two spring members form a pocket configured to, at a given time, be one of: open at the top portion of the pocket member, open at the bottom portion of the pocket member, or closed; wherein the two spring members are configured to maintain the pocket as closed when an external force is not acting on the pocket member.