mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a laser scanner for a LIDAR system scanning in a scanning direction, wherein the laser scanner has a laser source, which is embodied to emit a plurality of individual light beams (108, 110, 112) in a plurality of angle regions (114, 116, 118) arranged next to one another transversely to the scanning direction, wherein a reception optical unit of the laser scanner is embodied to concentrate reflected components of the emitted light beams (108, 110, 112) at exposure regions (122, 124, 126) of a sensor plane of the laser scanner that are arranged next to one another transversely to the scanning direction, wherein a plurality of sensor pixels (300, 302, 304, 306) of the laser scanner are arranged in the sensor plane next to one another transversely to the scanning direction, wherein the sensor pixels (300, 302, 304, 306) are arranged with an offset with respect to the exposure regions (122, 124, 126) transversely to the scanning direction, wherein a control electronic unit of the laser scanner is embodied to control the laser source such that a plurality of light beams (108, 110, 112) are emitted with a temporal offset such that at most the reflected component of one of the light beams (108, 110, 112) is incident on one sensor pixel (300, 302, 304, 306) at the same time, characterized in that, in a transmission step, the laser source is controlled to emit a light beam (108, 110, 112) into one of the angle regions (114, 116, 118) at a transmission time point, wherein reflected components of the emitted light beam (108, 110, 112) are guided by the reception optical unit onto an exposure region (122, 124, 126) assigned to the angle region (114, 116, 118), and, in a reception step, in each case one reception time point is read from the two sensor pixels (300, 302, 304, 306) that are assigned to the exposure region (122, 124, 126) when the reflected components are incident on the respective sensor pixel (300, 302, 304, 306).
Material antibiotic-loaded, biocompatible and implantable in the human body, for the obtainment of a device that can be implanted in the human body or a spacer device in order to treat a bone or a joint location, wherein said material antibiotic-loaded is a solid-on-solid dispersion comprising a plastic material comprising ultra high molecular weight polyethylene (UHMWPE) or polyethylene or low density polyethylene or high density polyethylene or a mixture of the above, characterized in that it comprises at least one pharmaceutical or medical substance, in the form of powder or granules, comprising at least one antibiotic, wherein said antibiotic is gentamicin sulphate to be eluted in the treatment area during use, in that said plastic material is in form of granules or powder, wherein said pharmaceutical or medical substance in the form of powder or granules is uniformly distributed in the plastic material in the form of powder or granules, in that said biocompatible antibiotic-loaded material is moldable at a temperature lower than 180°C, in order to avoid gentamicin degradation and in that said biocompatible material comprises a radio-opacifying agent and a further additive, wherein said further additive comprises a soluble and/or resorbable ceramic material, in form of powder or granules, that is tricalcium phosphate or calcium sulphate or hydroxyapatite, or alumina in its chemical forms, or coloring substances of the biocompatible type and adapted to be introduced in the human body.
A polyunsaturated substance for use in a method of treating or inhibiting an impaired energy processing disorder or mitochondrial deficiency, wherein the impaired energy processing disorder or mitochondrial deficiency is selected from Co-enzyme Q deficiency; Diabetes mellitus and deafness, Maternally Inherited Diabetes and Deafness (MIDD); Friedreich's ataxia; Leber's congenital amaurosis; Leber's hereditary optic neuropathy (LHON); Leigh syndrome; Mitochondrial myopathy, encephalopathy, lactic acidosis, and stroke (MELAS) syndrome; Mitochondrial neurogastrointestinal encephalomyopathy (MNGIE); Myoclonus Epilepsy Associated with Ragged-Red Fibers (MERRF) syndrome; Myoneurogenetic gastrointestinal encephalopathy (MNGIE); Neuropathy, ataxia, retinitis pigmentosa, and ptosis (NARP); optic neuropathies and opthalmoplegias; Wolff-Parkinson-White syndrome; cardiomyopathies; X-linked Adrenoleukodystrophy (X-ALD); lipid myopathies; chronic fatigue; fibromyalgia syndrome; Fanconi's syndrome; glomerulonephropathies; Pearson's syndrome; migraines; seizures; and strokes; wherein the polyunsaturated substance comprises a fatty acid or fatty acid ester that is isotopically modified with deuterium at one or more positions; wherein the polyunsaturated substance is incorporated into a patient's body following administration; and wherein the amount of the isotopically modified fatty acid or fatty acid ester comprises between 5% to 75% of the total amount of fatty acids or fatty acid esters administered to or ingested by the patient.
A data packet transmission method, comprising: simultaneously sending, by a centralized unit, CU, a data packet to a first distributed unit, DU1, and a second distributed unit, DU2; receiving, by the centralized unit, CU, from the first distributed unit, DU1, a delivery status of the data packet and a sequence number of a next new data packet to be transmitted; generating, by the centralized unit, CU, an indication information according to the delivery status, wherein the indication information comprises a sequence number of the data packet and a list of sequence numbers for data packets to be discarded, and wherein the indication information comprises the sequence number of the next new data packet to be transmitted; and sending, by the centralized unit, CU, to the second distributed unit, DU2, the indication information that instructs the second distributed unit, DU2, to discard one or more data packets indicated by the indication information and to transmit the next new data packet. simultaneously sending, by a centralized unit, CU, a data packet to a first distributed unit, DU1, and a second distributed unit, DU2; receiving, by the centralized unit, CU, from the first distributed unit, DU1, a delivery status of the data packet and a sequence number of a next new data packet to be transmitted; generating, by the centralized unit, CU, an indication information according to the delivery status, wherein the indication information comprises a sequence number of the data packet and a list of sequence numbers for data packets to be discarded, and wherein the indication information comprises the sequence number of the next new data packet to be transmitted; and sending, by the centralized unit, CU, to the second distributed unit, DU2, the indication information that instructs the second distributed unit, DU2, to discard one or more data packets indicated by the indication information and to transmit the next new data packet.
System adapted to measure multiple biophysical characteristics of cells, the system comprising: a microfluidic chip provided with a microfluidic channel which allows cells to flow through, the microfluidic channel having an inlet, an outlet, and a lateral opening situated between the inlet and the outlet; and a capacitive sensor integrated in the microfluidic chip, having a pair of sensor elements (31, 32), the sensor being adapted to obtain biophysical characteristics of a single cell in the microfluidic channel by directly manipulating the single cell by the sensor elements (31, 32) through the lateral opening of the microfluidic channel, wherein the sensor elements (31, 32) include a pair of arms extending toward each other, tips of the pair of arms being arranged in lateral openings formed on opposite side of the microfluidic channel, the sensor comprising a stationary part and an electrostatically driven movable part which is movable relative to the stationary part, the stationary part being fixed to the microfluidic chip, the movable part being arranged in the lateral opening of the microfluidic channel, wherein the movable part comprises at least one arm of the pair of arms configured to move closer to or away from the other arm, characterized in that the lateral openings and the tips of the arms have a size selected so as to create an interface between fluid and air, so as to allow the tips of the arms to be introduced into the microfluidic channel through the respective opening while preventing a fluid within the microfluidic channel from leaking. a microfluidic chip provided with a microfluidic channel which allows cells to flow through, the microfluidic channel having an inlet, an outlet, and a lateral opening situated between the inlet and the outlet; and a capacitive sensor integrated in the microfluidic chip, having a pair of sensor elements (31, 32), the sensor being adapted to obtain biophysical characteristics of a single cell in the microfluidic channel by directly manipulating the single cell by the sensor elements (31, 32) through the lateral opening of the microfluidic channel, wherein the sensor elements (31, 32) include a pair of arms extending toward each other, tips of the pair of arms being arranged in lateral openings formed on opposite side of the microfluidic channel, the sensor comprising a stationary part and an electrostatically driven movable part which is movable relative to the stationary part, the stationary part being fixed to the microfluidic chip, the movable part being arranged in the lateral opening of the microfluidic channel, wherein the movable part comprises at least one arm of the pair of arms configured to move closer to or away from the other arm, characterized in that the lateral openings and the tips of the arms have a size selected so as to create an interface between fluid and air, so as to allow the tips of the arms to be introduced into the microfluidic channel through the respective opening while preventing a fluid within the microfluidic channel from leaking.
An information processing device comprising: an acquisition unit configured to acquire a series of images captured by an imaging unit in accordance with a predetermined operation mode on the basis of a first instruction from an external device connected via a network; and a transmission control unit configured to transmit a series of thumbnail images corresponding to the series of images to the external device via the network, wherein the transmission control unit transmits at least some of the series of images to the external device via the network in accordance with a second instruction from the external device to which the series of thumbnail images has been transmitted, wherein the predetermined operation mode is a mode in which a moving image is captured as the series of images, the acquisition unit acquires the moving image captured by the imaging unit, and characterised in that the transmission control unit transmits the thumbnail images of at least some image frames in the moving image as the series of thumbnail images to the external device via the network, wherein the transmission control unit receives designation of at least some of the thumbnail images among the series of thumbnail images from the external device to which the series of thumbnail images has been transmitted, extracts a part of the moving image including the image frames corresponding to the at least some of the thumbnail images from the moving image, and transmits the extracted part of the moving image to the external device via the network. an acquisition unit configured to acquire a series of images captured by an imaging unit in accordance with a predetermined operation mode on the basis of a first instruction from an external device connected via a network; and a transmission control unit configured to transmit a series of thumbnail images corresponding to the series of images to the external device via the network, wherein the transmission control unit transmits at least some of the series of images to the external device via the network in accordance with a second instruction from the external device to which the series of thumbnail images has been transmitted, wherein the predetermined operation mode is a mode in which a moving image is captured as the series of images, the acquisition unit acquires the moving image captured by the imaging unit, and characterised in that the transmission control unit transmits the thumbnail images of at least some image frames in the moving image as the series of thumbnail images to the external device via the network, wherein the transmission control unit receives designation of at least some of the thumbnail images among the series of thumbnail images from the external device to which the series of thumbnail images has been transmitted, extracts a part of the moving image including the image frames corresponding to the at least some of the thumbnail images from the moving image, and transmits the extracted part of the moving image to the external device via the network.
A conjugate of a cell-penetrating carrier peptide and an active ingredient, wherein the carrier peptide is a peptide consisting of an amino acid sequence selected from the group consisting of SEQ ID NO: 2 to SEQ ID NO: 178, or a fragment of any thereof, wherein the fragment retains the cell-penetrating ability of any one amino acid sequence of SEQ ID NO: 2 to SEQ ID NO: 178. wherein the carrier peptide is a peptide consisting of an amino acid sequence selected from the group consisting of SEQ ID NO: 2 to SEQ ID NO: 178, or a fragment of any thereof, wherein the fragment retains the cell-penetrating ability of any one amino acid sequence of SEQ ID NO: 2 to SEQ ID NO: 178.
A modular lighting device comprising: - a main body having a section for receiving a light source and an outer surface, wherein the outer surface has a first thread for securing the lighting device in a building part through at least two receiving elements; - at least two receiving elements for receiving said main body, said receiving elements having a threaded receiving part corresponding to the first thread of the main body, and said at least two receiving elements are at least two nuts, and wherein said main body has an inner surface comprising means for fastening the light source and wherein said inner surface comprises a second thread, characterized in that the first thread is along a majority of said outer surface, wherein said main body comprises a first end and a slit extending from the first end, and wherein the slit is adapted with a size allowing a cable, powering the light source, to pass through. - a main body having a section for receiving a light source and an outer surface, wherein the outer surface has a first thread for securing the lighting device in a building part through at least two receiving elements; - at least two receiving elements for receiving said main body, said receiving elements having a threaded receiving part corresponding to the first thread of the main body, and said at least two receiving elements are at least two nuts, and
An integral nuclear reactor having a reactor vessel housing a primary coolant flow path and a pressurizer, characterized by a surge line separator separating the pressurizer from the primary coolant flow path, the surge line separator comprising; two spaced, generally horizontal plates (40, 42) each having a curved periphery that is supported in an upper portion of the reactor vessel with each plate substantially spanning an inside diameter of the pressure vessel; a plurality of spaced, curved, concentric baffles (66, 68, 70, 72) extending over an arc of 360 degrees or less between the spaced plates (40, 42) with an upper one of the two spaced, generally horizontal plates attached to at least some of the baffles and a lower one of the two spaced, generally horizontal plates attached to at least others of the baffles; a first coolant passage through the lower one of the two spaced, generally horizontal plates (40, 42) in a first area generally proximate one of either a center or the periphery of the lower one of the two spaced, generally horizontal plates; a second coolant passage through the upper one of the two spaced, generally horizontal plates (40, 42) in a second area generally proximate the other of either a center or the periphery of the upper one of the two spaced, generally horizontal plates; and the baffles defining a circuitous coolant flow path between the first coolant passage and the second coolant passage.
A vehicle, in particular an agricultural vehicle, with - first means for determining an actual value of at least one operating parameter of the vehicle, - second means (4, 7) for recording voice messages from a driver, characterized by - third means for determining the current time, - fourth means (7, 10) for comparing the actual value of the at least one operating parameter with a nominal value provided for the current time determined by the third means and for prompting the driver to issue a voice message in the event of a significant discrepancy between the actual value and the nominal value. - first means for determining an actual value of at least one operating parameter of the vehicle, - second means (4, 7) for recording voice messages from a driver, - third means for determining the current time, - fourth means (7, 10) for comparing the actual value of the at least one operating parameter with a nominal value provided for the current time determined by the third means and for prompting the driver to issue a voice message in the event of a significant discrepancy between the actual value and the nominal value.
An organic light emitting diode (OLED) device, comprising a base substrate, and an anode, a cathode, a light emitting layer located between the anode and the cathode, which are provided on the base substrate, wherein the OLED device further comprises a dissociation layer for dissociating excitons which arrive at the dissociation layer into holes and electrons; wherein the dissociation layer is provided between the light emitting layer and the anode in the case where the electron mobility is greater than the hole mobility in the light emitting layer; and the dissociation layer is provided between the light emitting layer and the cathode in the case where the hole mobility is greater than the electron mobility in the light emitting layer, wherein the dissociation layer comprises at least two adjacent layers, and each of the at least two adjacent layers is formed from a donor material or an acceptor material, one of the two adjacent layers is formed from a donor material and the other is formed from an acceptor material; wherein, the LUMO value of the donor material is greater than that of the acceptor material, characterized in that the donor material is a p-type organic hole transport material, and the acceptor material is a n-type organic electron transport material, said p-type organic hole transport material comprising P3HT, MEHPPV, PCDTBT, PTB7, PCPDTBT, and PBDTTT-CF, and said n-type organic electron transport material comprising PCBM and PC 71 BM.
A method comprising: determining (205, 214), by a decrypting receiving apparatus, a time period indicating a predicted time between receptions of latest and next encryption synchronisation information; determining, by the decrypting receiving apparatus, a first time, which is an average time for performing a cell reselection procedure; repeating (205, 303), by the decrypting receiving apparatus, receiving the encryption synchronisation information and tracking a second time that has lapsed after the latest encryption synchronisation information; monitoring (207, 302), by the decrypting receiving apparatus, whether a cell reselection is triggered; if the cell reselection is triggered, the method further comprises: determining, by the decrypting receiving apparatus, on the basis of the time period, the first time and the second time, a starting time of the cell reselection; and starting performing (211, 305) the cell reselection at the starting time. determining (205, 214), by a decrypting receiving apparatus, a time period indicating a predicted time between receptions of latest and next encryption synchronisation information; determining, by the decrypting receiving apparatus, a first time, which is an average time for performing a cell reselection procedure; repeating (205, 303), by the decrypting receiving apparatus, receiving the encryption synchronisation information and tracking a second time that has lapsed after the latest encryption synchronisation information; monitoring (207, 302), by the decrypting receiving apparatus, whether a cell reselection is triggered; if the cell reselection is triggered, the method further comprises: determining, by the decrypting receiving apparatus, on the basis of the time period, the first time and the second time, a starting time of the cell reselection; and starting performing (211, 305) the cell reselection at the starting time. determining, by the decrypting receiving apparatus, on the basis of the time period, the first time and the second time, a starting time of the cell reselection; and starting performing (211, 305) the cell reselection at the starting time.
An aluminium alloy brazing sheet comprising: a core material made of an aluminium alloy; and a cladding material clad on at least one side of the core material and made of an aluminium alloy having a corrosion potential lower than that of the core material, the cladding material being an outermost layer of the brazing sheet, wherein the cladding material is made of an aluminium alloy consisting of 0.8 to 1.3 wt% of Mg, 0.5 to 1.5 wt% of Si, 1.0 to 2.0 wt%, preferably 1.4-1.8% of Mn, ≤0.7wt% of Fe, ≤ 0.1 wt% of Cu, and ≤4 wt% preferably ≤ 1.4 wt%, more preferably ≤ 1.1 wt%, most preferably ≤ 0.4 wt% of Zn, ≤0.3 wt% each of Zr, Ti, Ni, Hf, V, Cr, In, Sn and ≤0.5 wt% total of Zr, Ti, Ni, Hf, V, Cr, In, Sn the remainder being Al and unavoidable impurities.
A method of recovering dicyclopentadiene from pygas, the method comprising: (a) heating the pygas to generate heated pygas, wherein the heating comprises heating the pygas in a thermal reactor for 1 to 3 hours at a temperature of 170°C to 190°C, and wherein the heating further comprises heating the pygas at a pressure of 13 to 16 bar; (b) recovering a C 5 fraction from the heated pygas; and (c) dimerizing cyclopentadiene from the C 5 fraction to form dicyclopentadiene. (a) heating the pygas to generate heated pygas, wherein the heating comprises heating the pygas in a thermal reactor for 1 to 3 hours at a temperature of 170°C to 190°C, and wherein the heating further comprises heating the pygas at a pressure of 13 to 16 bar; (b) recovering a C 5 fraction from the heated pygas; and (c) dimerizing cyclopentadiene from the C 5 fraction to form dicyclopentadiene.