mhurhangee/ep-ind-claims huggingface dataset:
Dispenser for an air freshener container holding a perfuming liquid, comprising a wooden cap screwed onto the neck of the container itself, the said cap being associated with a diffusing string or wick for diffusing the perfuming liquid, wherein the wooden cap is provided with an axial central duct of small diameter which communicates with a second transverse duct provided in an upper cylindrical extension housing the corresponding diffusing string or wick for impregnation with the perfuming liquid held by the container after inverting the position of the said container with the wooden cap coupled to its neck, further the diffusing string or wick passes through the transverse duct and protrudes out of the wooden cap; and the diameter of the axial central duct is smaller than the diameter of the internal cavity of the neck of the container.
A screw compressor comprising: a pair of male and female screw rotors (7a, 7b) that meshes with each other; and a casing that stores said pair of screw rotors (7a, 7b), wherein said casing is divided into a discharge opening neighborhood portion comprising at least a discharge opening, and an other portion other than said discharge opening neighborhood portion, and is configured so that said discharge opening neighborhood portion is removable from said other portion, wherein: said casing is divided, by dividing surfaces (9a, 9b) orthogonal to rotor shafts of said pair of screw rotors (7a, 7b), into three portions including a rotor casing around said pair of screw rotors (7a, 7b), a discharge casing on a side of said discharge opening, and a suction casing on a side of a suction opening, characterized in that said discharge opening neighborhood portion is formed by dividing said rotor casing, and is configured so as to be removable from said dividing surface on the side of said discharge opening of said divided rotor casing. a pair of male and female screw rotors (7a, 7b) that meshes with each other; and a casing that stores said pair of screw rotors (7a, 7b), wherein said casing is divided into a discharge opening neighborhood portion comprising at least a discharge opening, and an other portion other than said discharge opening neighborhood portion, and is configured so that said discharge opening neighborhood portion is removable from said other portion, wherein: said casing is divided, by dividing surfaces (9a, 9b) orthogonal to rotor shafts of said pair of screw rotors (7a, 7b), into three portions including a rotor casing around said pair of screw rotors (7a, 7b), a discharge casing on a side of said discharge opening, and a suction casing on a side of a suction opening, characterized in that said discharge opening neighborhood portion is formed by dividing said rotor casing, and is configured so as to be removable from said dividing surface on the side of said discharge opening of said divided rotor casing. said casing is divided, by dividing surfaces (9a, 9b) orthogonal to rotor shafts of said pair of screw rotors (7a, 7b), into three portions including a rotor casing around said pair of screw rotors (7a, 7b), a discharge casing on a side of said discharge opening, and a suction casing on a side of a suction opening, characterized in that said discharge opening neighborhood portion is formed by dividing said rotor casing, and is configured so as to be removable from said dividing surface on the side of said discharge opening of said divided rotor casing.
A method that facilitates implementing antenna virtualization in a wireless communication environment, comprising: partitioning a set of physical transmit antennas (206, 208) into a plurality of groups of physical transmit antennas; formulating a precoding vector for a particular group of physical transmit antennas from the plurality of groups of physical transmit antennas, the particular group of physical transmit antennas forms a particular virtual antenna; establishing a set of virtual antennas from the set of physical transmit antennas; advertising a number of the virtual antennas in the set of virtual antennas to a legacy UE; and advertising a number of physical transmit antennas in the set of physical transmit antennas to a non-legacy UE; and applying the precoding vector to a signal for transmission over the particular virtual antenna, wherein the set of physical transmit antennas is associated with a base station, and the signal is for transmission over a downlink to a user equipment, UE,. partitioning a set of physical transmit antennas (206, 208) into a plurality of groups of physical transmit antennas; formulating a precoding vector for a particular group of physical transmit antennas from the plurality of groups of physical transmit antennas, the particular group of physical transmit antennas forms a particular virtual antenna; establishing a set of virtual antennas from the set of physical transmit antennas; advertising a number of the virtual antennas in the set of virtual antennas to a legacy UE; and advertising a number of physical transmit antennas in the set of physical transmit antennas to a non-legacy UE; and applying the precoding vector to a signal for transmission over the particular virtual antenna, wherein the set of physical transmit antennas is associated with a base station, and the signal is for transmission over a downlink to a user equipment, UE,.
A dosing apparatus for medical use, comprising at least one device for guiding at least one cable or conductor, wherein the dosing apparatus comprises at least one movable section, wherein the device is connected to the at least one movable section of the dosing apparatus so as to move with it, wherein the device is introduced within a connection aperture of the dosing apparatus, wherein the connection aperture is arranged in a housing section of the dosing apparatus and connects an interior of the dosing apparatus with an exterior of the dosing apparatus; characterized in that the device and/or the connection aperture is/are configured as sleeve or comprise(s) one sleeve.
A method of treating an elastomer surface of a fluid dispenser device, characterized in that said method comprises a step of modifying at least one elastomer surface to be treated of said device by ionic implantation using multi-charged and multi-energy ion beams, such that said modified elastomer surface limits adhesion of the elastomer surfaces during the manufacturing and/or assembly stages, ionic implantation being carried out to a depth of 0 μm to 3 μm, said ion beams being constituted by multi-energy ions X + and X 2+, where X is the atomic symbol of the ion selected from the list comprising helium (He), nitrogen, oxygen, neon (Ne), argon (Ar), krypton (Kr), and xenon (Xe), wherein RX = X + /X 2+, with X + and X 2+, expressed as atomic percentages, being less than or equal to 100, for example less than 20, and wherein the movement speed of the beam is equal to the lowest movement speed of the beam that does not cause thermal degradation of the polymer, as manifested by an increase in pressure of 10 -5 mbar, as identified in a prior step.
Riding or sports arena floor, comprising an arrangement of essentially plate-shaped ground preparation elements being arranged adjacent to each other which is laid on an underground, characterized in that an elasticity layer made of parings of textiles or plastics is dumped between said underground and said arrangement of ground preparation elements, wherein said elasticity layer is a component being discrete relative to the ground preparation elements.
A computer-implemented method for facilitating secure communications between a client and a vehicle integration platform, the method comprising: receiving, by a computing system comprising one or more computing devices, a client certificate forwarded to the vehicle integration platform by the client; validating, by the computing system, the client certificate; determining, by the computing system, an identity of the client and an origin of a request associated with the client certificate; generating, by the computing system, a certificate signing request associated with the client certificate based in part on the identity of the client; and obtaining, by the computing system, an operational certificate for the client based in part on the certificate signing request to establish an ability for client authentication within the vehicle integration platform. receiving, by a computing system comprising one or more computing devices, a client certificate forwarded to the vehicle integration platform by the client; validating, by the computing system, the client certificate; determining, by the computing system, an identity of the client and an origin of a request associated with the client certificate; generating, by the computing system, a certificate signing request associated with the client certificate based in part on the identity of the client; and obtaining, by the computing system, an operational certificate for the client based in part on the certificate signing request to establish an ability for client authentication within the vehicle integration platform.
An oral dosage form in the form of a capsule, said dosage form comprising: Compound A (3-(5-amino-2-methyl-4-oxo-4H-quinazolin-3-yl)-piperidine-2,6-dione), or an enantiomer or a mixture of enantiomers thereof, a pharmaceutically acceptable salt, solvate, hydrate, co-crystal, clathrate, or polymorph thereof, at an amount of 0.5 to 5 weight percent of the total weight of the composition; a binder or filler selected from microcrystalline cellulose, starch, and mannitol at an amount of 90 to 98 weight percent of total weight of the composition, stearic acid as lubricant in an amount of 0.75 weight percent of total weight of the composition, and a disintegrant selected from crospovidone Type A and colloidal silicon dioxide at an amount of 1 to 5 weight percent of total weight of the composition, wherein the lubricant is not magnesium stearate.
A process for manufacturing a ceramic powder with binder comprising at least one additional element or compound, said ceramic powder with binder being in particular based on zirconia and/or alumina and/or strontium aluminate, characterized in that it comprises a step of depositing at least one additional element or compound on a ceramic powder with binder, made of a ceramic powder and a binder intended for the shaping of a part and consisting of one or more organic compounds, by a physical vapour deposition and/or by a chemical vapour deposition and/or by an atomic layer deposition.
A floating gastroretentive dosage form comprising: a) a matrix core that is a sustained release swellable matrix core comprising an active agent, a superdisintegrant, a swellable water-soluble polymer, an acid, and a gas-generating agent; b) a water-insoluble permeable elastic membrane surrounding the matrix core; and c) an orifice running through the membrane and matrix core, wherein the gas-generating agent is calcium carbonate and/or sodium bicarbonate, wherein the water-insoluble permeable elastic membrane surrounding the matrix core comprises a plasticizer and a copolymer of ethyl acrylate, methyl methacrylate, and methacrylic acid ester with quaternary ammonium groups, and wherein the dosage form provides sustained release of the active agent for a period of at least 8 hours. a) a matrix core that is a sustained release swellable matrix core comprising an active agent, a superdisintegrant, a swellable water-soluble polymer, an acid, and a gas-generating agent; b) a water-insoluble permeable elastic membrane surrounding the matrix core; and c) an orifice running through the membrane and matrix core, wherein the gas-generating agent is calcium carbonate and/or sodium bicarbonate, wherein the water-insoluble permeable elastic membrane surrounding the matrix core comprises a plasticizer and a copolymer of ethyl acrylate, methyl methacrylate, and methacrylic acid ester with quaternary ammonium groups, and wherein the dosage form provides sustained release of the active agent for a period of at least 8 hours.
A method of inducting items to a sorter from a stream of items (IT1, IT2) arriving at a feeding conveyor, the method comprising - providing a plurality of input parameters (I_1, I_A) comprising at least information regarding the stream of items arriving at the feeding conveyor (I_1), - processing said input parameters (I_1, I_A) in a processor according to a control algorithm (C_A), wherein the control algorithm (C_A) is arranged to generate at least one output, in response to said input parameters (I_1. I_A), indicating where to place an item, selecting between at least two of: - a first induction arranged for transporting items to the sorter, - an empty space (E_S) on the sorter, - the feeding conveyor, but at a different position and/or orientation than where it was picked up, and - a weighing unit arranged for weighing items, and - controlling at least a first robot in accordance with the output of the control algorithm (C_A), wherein the first robot is arranged to pick up an item from the feeding conveyor, and to place the item in accordance with the output of the control algorithm (C_A). - providing a plurality of input parameters (I_1, I_A) comprising at least information regarding the stream of items arriving at the feeding conveyor (I_1), - processing said input parameters (I_1, I_A) in a processor according to a control algorithm (C_A), wherein the control algorithm (C_A) is arranged to generate at least one output, in response to said input parameters (I_1. I_A), indicating where to place an item, selecting between at least two of: - a first induction arranged for transporting items to the sorter, - an empty space (E_S) on the sorter, - the feeding conveyor, but at a different position and/or orientation than where it was picked up, and - a weighing unit arranged for weighing items, and - a first induction arranged for transporting items to the sorter, - an empty space (E_S) on the sorter, - the feeding conveyor, but at a different position and/or orientation than where it was picked up, and - a weighing unit arranged for weighing items, and - controlling at least a first robot in accordance with the output of the control algorithm (C_A), wherein the first robot is arranged to pick up an item from the feeding conveyor, and to place the item in accordance with the output of the control algorithm (C_A).
A polyether polyamide elastomer comprising a diamine constituent unit derived from a polyether diamine compound (A-1) represented by the following formula and a xylylenediamine (A-2) and a dicarboxylic acid constituent unit derived from an α,ω-linear aliphatic dicarboxylic acid having a carbon number of from 4 to 20: wherein (x + z) represents a numerical value of from 1 to 30; y represents a numerical value of from 1 to 50; and R 1 represents a propylene group, wherein a proportion of the constituent unit derived from the xylylenediamine (A-2) in the diamine constituent unit is in the range of from 50 to 99.8% by mole, and wherein a melting point of the polyether polyamide elastomer is from 170 to 270°C.
A server for single sign on comprising: a storage unit configured to store user information of a plurality of second devices; characterized in that it comprises a controller configured to identify, based on the stored user information, a second device among the plurality of second devices, which is accessed by a same user as a user of a first device and which stores account information, if the first device requests the account information for a content provider, and to provide the first device with the account information stored in the identified second device. a storage unit configured to store user information of a plurality of second devices;
A gap junction inhibitor for use in treating a subject having a cancer, wherein administration of the gap junction inhibitor inhibits metastatic progression of the cancer in the brain of the subject.
A method for machine generation of content names in an information centric network, ICN, the method comprising: obtaining content, by a string predictor; obtaining a content feature set from the content; invoking, by the string predictor, an inference engine as part of the string predictor by providing the content feature set and a constraint to produce a name for the content; and wherein the first inference engine is a spiking artificial neural network that implements spike timing dependent plasticity to train the spiking neural network while it is in operation to adapt the name over time, predicting which name will arrive for the content, wherein the constraint of the inference engine comprises a hierarchically named naming structure; wherein the artificial neural network is trained with a constraint that limits a form of the name, wherein the constraint limits a length of the name at least on one level of the hierarchy, by ordering possible names and selecting the shortest one; and responding to an interest packet that includes the name with a data packet that includes the content, wherein the name in the interest packet is generated with a second inference engine with the same design and training of the first inference engine. obtaining content, by a string predictor; obtaining a content feature set from the content; invoking, by the string predictor, an inference engine as part of the string predictor by providing the content feature set and a constraint to produce a name for the content; and wherein the first inference engine is a spiking artificial neural network that implements spike timing dependent plasticity to train the spiking neural network while it is in operation to adapt the name over time, predicting which name will arrive for the content, wherein the constraint of the inference engine comprises a hierarchically named naming structure; wherein the artificial neural network is trained with a constraint that limits a form of the name, wherein the constraint limits a length of the name at least on one level of the hierarchy, by ordering possible names and selecting the shortest one; and wherein the first inference engine is a spiking artificial neural network that implements spike timing dependent plasticity to train the spiking neural network while it is in operation to adapt the name over time, predicting which name will arrive for the content, wherein the constraint of the inference engine comprises a hierarchically named naming structure; wherein the artificial neural network is trained with a constraint that limits a form of the name, wherein the constraint limits a length of the name at least on one level of the hierarchy, by ordering possible names and selecting the shortest one; and responding to an interest packet that includes the name with a data packet that includes the content, wherein the name in the interest packet is generated with a second inference engine with the same design and training of the first inference engine.
A specimen processing system, including a specimen processing device, which is configured to perform preprocessing and analysis of a specimen, comprising: a specimen position acquiring device configured to acquire specimen information in the specimen processing system and to detect, together with sensors (5a, 5b), a driving state of a driving device installed in the specimen processing system; and an abnormality detecting part configured to determine from signal waveforms detected by the sensors (5a, 5b) whether an abnormality occurs in the driving device, wherein the specimen processing system includes a recording device (9a, 9b) which is configured to sequentially record the signal waveforms detected by the sensors (5a, 5b), and configured to store a sensor signal waveform before or after the occurrence of an operation abnormality when the abnormality is determined to have occurred in the abnormality detecting part, wherein the recording device (9a, 9b) is configured to sequentially record the specimen information acquired in the specimen position acquiring device, and configured to store specimen information before or after the occurrence of an operation abnormality into an unerasable area when the abnormality is determined to have occurred in the abnormality detecting part. a specimen position acquiring device configured to acquire specimen information in the specimen processing system and to detect, together with sensors (5a, 5b), a driving state of a driving device installed in the specimen processing system; and an abnormality detecting part configured to determine from signal waveforms detected by the sensors (5a, 5b) whether an abnormality occurs in the driving device, wherein the specimen processing system includes a recording device (9a, 9b) which is configured to sequentially record the signal waveforms detected by the sensors (5a, 5b), and configured to store a sensor signal waveform before or after the occurrence of an operation abnormality when the abnormality is determined to have occurred in the abnormality detecting part, wherein the recording device (9a, 9b) is configured to sequentially record the specimen information acquired in the specimen position acquiring device, and configured to store specimen information before or after the occurrence of an operation abnormality into an unerasable area when the abnormality is determined to have occurred in the abnormality detecting part.
A method for processing resource reservation protocol-traffic engineer (RSVP-TE) signaling, comprising: extending an object using unnumbered resources within an RSVP-TE signaling, characterized by, representing link resources in the signaling with a triple consisted of an area identifier, a router ID and an interface; when configuring network resources, configuring each area ID to be different, while an intra-area router ID to be unique; and, representing resources in a signaling message with the triple when applying cross-area services. extending an object using unnumbered resources within an RSVP-TE signaling, characterized by, representing link resources in the signaling with a triple consisted of an area identifier, a router ID and an interface; when configuring network resources, configuring each area ID to be different, while an intra-area router ID to be unique; and, representing resources in a signaling message with the triple when applying cross-area services.
SPIM microscope, comprising - an imaging objective for imaging a sample onto a detector and means for illuminating the sample with a light sheet in the focus plane of the imaging objective, perpendicular to the optical axis of the imaging objective, comprising an illumination source emitting coherent light, wherein the means for illuminating comprise - an optical element, with which a rotationally symmetric Bessel beam is generated from the light beam, - a first and a second lens (10, 14), wherein the optical element and the first and second lenses (10, 14) are embodied and arranged having a focal plane, which is common to the first and second lenses (10, 14), as a Fourier plane between the two lenses (10, 14), as a result of which the Bessel beam is imaged into the focus plane of the imaging objective, and - scanning means, with which the Bessel beam scans the sample in the focus plane of the imaging objective. - an imaging objective for imaging a sample onto a detector and means for illuminating the sample with a light sheet in the focus plane of the imaging objective, perpendicular to the optical axis of the imaging objective, comprising an illumination source emitting coherent light, wherein the means for illuminating comprise - an optical element, with which a rotationally symmetric Bessel beam is generated from the light beam, - a first and a second lens (10, 14), wherein the optical element and the first and second lenses (10, 14) are embodied and arranged having a focal plane, which is common to the first and second lenses (10, 14), as a Fourier plane between the two lenses (10, 14), as a result of which the Bessel beam is imaged into the focus plane of the imaging objective, and - scanning means, with which the Bessel beam scans the sample in the focus plane of the imaging objective.