mhurhangee/ep-ind-claims huggingface dataset:
Set including a weaving matrix to receive sheets (7,8) to be applied together, a tool to be applied to move along the periphery of sheets (7,8) to be applied, a holding medium to maintain at least one sheet (7.8) on the matrix, characterized that the holding medium includes a first part, a second part, and a means of linking between the said first and second parts, the means of linking being a means of mechanical training, the first part being mobile between a holding position in which the said first part is in contact with one of the edges (of the periphery of at least one sheet (7,8) so as to position and maintain at least one sheet plates (7,8) in the position on the matrix, and a disassembled position in which that part is distant from the said edge, the means of holding being configured so that when the part moves from the holding position to the disassembled position the other part moves from a disassembled position to a holding position, and in so far as the movement of the portion of the holding position to the position being removed is generated by the tool to be applied, when the tool to be applied along the edge of the sheet (7,8).
A method for obtaining lactic acid from glycerol, comprising the following steps: i) obtaining of supported mono-metallic platinum containing catalyst by following consecutive steps: a) obtaining of platinum-containing organic precursor by extraction of platinum compound from hydrochloric acid solution with trioctylamine ((C 8 H 17) 3 N) solution in toluene, wherein the concentration of platinum containing precursor solution is in the range between 0.03 and 0.4 mol/L, b) impregnation of carrier with platinum-containing organic precursor solution obtained in the previous step, wherein the carrier is selected from the group consisting of Al 2 O 3, Y 2 O 3, C or ZrO 2 nanopowders with surface area between 20 and 337 m 2 /g, c) drying of the impregnated carrierat temperature in the range between 20 and 100 °C during time interval between 3 and 120 minutes, d) pyrolytic reduction of platinum; ii) glycerol oxidation by molecular oxygen in the presence of supported platinum-containing catalysts in alkaline aqueous solution, wherein Pt content in catalysts is in the range between 0.6 wt% and 5.0 wt%. i) obtaining of supported mono-metallic platinum containing catalyst by following consecutive steps: a) obtaining of platinum-containing organic precursor by extraction of platinum compound from hydrochloric acid solution with trioctylamine ((C 8 H 17) 3 N) solution in toluene, wherein the concentration of platinum containing precursor solution is in the range between 0.03 and 0.4 mol/L, b) impregnation of carrier with platinum-containing organic precursor solution obtained in the previous step, wherein the carrier is selected from the group consisting of Al 2 O 3, Y 2 O 3, C or ZrO 2 nanopowders with surface area between 20 and 337 m 2 /g, c) drying of the impregnated carrierat temperature in the range between 20 and 100 °C during time interval between 3 and 120 minutes, d) pyrolytic reduction of platinum; a) obtaining of platinum-containing organic precursor by extraction of platinum compound from hydrochloric acid solution with trioctylamine ((C 8 H 17) 3 N) solution in toluene, wherein the concentration of platinum containing precursor solution is in the range between 0.03 and 0.4 mol/L, b) impregnation of carrier with platinum-containing organic precursor solution obtained in the previous step, wherein the carrier is selected from the group consisting of Al 2 O 3, Y 2 O 3, C or ZrO 2 nanopowders with surface area between 20 and 337 m 2 /g, c) drying of the impregnated carrierat temperature in the range between 20 and 100 °C during time interval between 3 and 120 minutes, d) pyrolytic reduction of platinum; ii) glycerol oxidation by molecular oxygen in the presence of supported platinum-containing catalysts in alkaline aqueous solution, wherein Pt content in catalysts is in the range between 0.6 wt% and 5.0 wt%.
Workpiece holder with a base part and at least one supporting element, wherein the base part has a first rectilinear guide element and a second rectilinear guide element which is spaced apart from the first rectilinear guide element, and in that there is at least one first support block, which is arranged in a linearly displaceable manner on the first rectilinear guide element, and in that there is at least one second support block, which is arranged in a linearly displaceable manner on the second rectilinear guide element, characterized in that a. the supporting element is connected both to the first support block in a movable manner, namely in a pivotable manner relative to the first rectilinear guide element, and to the second support block in a movable manner, namely in a pivotable manner relative to the second rectilinear guide element, and/or in that b. the supporting element is connected both to the first support block and to the second support block in such a manner that the support blocks (9, 10) are linearly displaceable independently of each other. a. the supporting element is connected both to the first support block in a movable manner, namely in a pivotable manner relative to the first rectilinear guide element, and to the second support block in a movable manner, namely in a pivotable manner relative to the second rectilinear guide element, and/or in that b. the supporting element is connected both to the first support block and to the second support block in such a manner that the support blocks (9, 10) are linearly displaceable independently of each other.
Aircraft comprising an optical spectroscopic sensor apparatus (34; 140; 150; 182, 184) for ascertaining flight-relevant characteristic variables of an ambient atmosphere of the aircraft (10; 180), in particular the temperature, the pressure and/or the humidity, comprising a transmitting device (36; 152), and a detection device (38; 152), the sensor apparatus (34; 140; 150; 182, 184) being designed as an absorption measuring apparatus and comprising or defining a measuring section between the transmitting device and the detection device, which section is configured to be arranged outside an outer skin of the aircraft (10; 180), the sensor apparatus (34; 140; 150; 182, 184) being configured to identify a relative speed of the aircraft (10; 180) with respect to the ambient atmosphere, with a Doppler shift of at least one transition of a gas contained in the ambient atmosphere being ascertained, characterized in that the sensor apparatus (34; 140; 150; 182, 184) comprises a reference measurement section having a housing and a gas or gas mixture contained therein, the reference measurement section being configured such that some radiation emitted by the transmitting device (36; 152) to the detection device (38; 152) is guided through the reference measurement section, and the gas or gas mixture of the reference measurement section being used as a non-Doppler-shifted reference of transitions in the gas or gas mixture.
Method for transmitting a signal from a transmitter over a channel to a receiver on a Power Line Network, wherein said signal is OFDM modulated on a set of sub-carriers, comprising: determining an OFDM tonemap for said set of sub-carriers based on a channel estimation; generating a tonemap feedback signal, which is descriptive of said OFDM tonemap; and transmitting said tonemap feedback signal from said receiver to said transmitter; characterized by determining an eigenbeamforming encoding matrix for said set of sub-carriers based on a channel estimation; generating an eigenbeamforming feedback signal, which is descriptive of said eigenbeamforming encoding matrix; and transmitting said eigenbeamforming feedback signal from said receiver to said transmitter in cases, when said eigenbeamforming feedback signal is different from the last eigenbeamforming feedback signal. determining an OFDM tonemap for said set of sub-carriers based on a channel estimation; generating a tonemap feedback signal, which is descriptive of said OFDM tonemap; and transmitting said tonemap feedback signal from said receiver to said transmitter; characterized by determining an eigenbeamforming encoding matrix for said set of sub-carriers based on a channel estimation; generating an eigenbeamforming feedback signal, which is descriptive of said eigenbeamforming encoding matrix; and transmitting said eigenbeamforming feedback signal from said receiver to said transmitter in cases, when said eigenbeamforming feedback signal is different from the last eigenbeamforming feedback signal.
Apparatus for monitoring a conductive fluid conduit arranged to carry a fluid stream, the apparatus comprising: a power supply having a reference mode of operation and a sample mode of operation, wherein in the reference mode of operation the power supply is configured to supply an alternating electric current through the fluid conduit at a high frequency such that the current is confined near the surface of the fluid conduit due to the skin effect, and wherein in the sample mode of operation the power supply is configured to supply an electric current through a full thickness of the fluid conduit; a plurality of electrical contact points (153, 157, 159, 155, 163, 161) connected to the fluid conduit; a voltage measurement device configured to measure the voltage between pairs of said electrical contact points so as to obtain reference values of electrical resistance of the fluid conduit when the power supply is in the reference mode of operation and so as to obtain sample values of electrical resistance of the fluid conduit when the power supply is in the sample mode of operation; and a processor configured to modify the sample values of electrical resistance based on the corresponding reference values of electrical resistance so as to compensate for temperature variations. a power supply having a reference mode of operation and a sample mode of operation, wherein in the reference mode of operation the power supply is configured to supply an alternating electric current through the fluid conduit at a high frequency such that the current is confined near the surface of the fluid conduit due to the skin effect, and wherein in the sample mode of operation the power supply is configured to supply an electric current through a full thickness of the fluid conduit; a plurality of electrical contact points (153, 157, 159, 155, 163, 161) connected to the fluid conduit; a voltage measurement device configured to measure the voltage between pairs of said electrical contact points so as to obtain reference values of electrical resistance of the fluid conduit when the power supply is in the reference mode of operation and so as to obtain sample values of electrical resistance of the fluid conduit when the power supply is in the sample mode of operation; and a processor configured to modify the sample values of electrical resistance based on the corresponding reference values of electrical resistance so as to compensate for temperature variations.
Shelf, in particular drawer shelf, comprising a rectangular base plate and a rectangular profile frame which surrounds the base plate and has a base leg which is at least in sections circumferential on the inside and on which the base plate is supported and can be fastened, and an outer leg which adjoins the base leg on the outside, is at least in sections circumferential, has an upper leg section extending above the base leg and a lower leg section extending below the base leg, and is preferably aligned at right angles to the base leg, wherein between the upper leg section and the base plate there is an upwardly open, circumferential joint for fastening, in particular inserting or guiding, structural elements (9, 18), wherein the profile frame is formed by a single profile part, which is connected to form a frame, or by a plurality of profile parts each having the same or different profile cross-sections, which are connected to form a frame, characterised in that the profile part or the plurality of profile parts are each formed by a folded sheet metal which is bent by approximately 180° at the lower edge of the lower leg section in order to form the lower leg section in a double layer with an inner and an outer sheet metal layer (7 1, 7 2), or which is bent by approximately 180° at the upper edge of the upper leg section in order to form the upper leg section in a double layer with an inner and an outer sheet metal layer.
A control and display system for a tractor fitted with two or more axles which carry wheels (13,14) and which is set up to pull an implement or trailer, the system having a display means for displaying to a tractor operator tractor performance parameters and having sensors to determine the current pull force applied to the implement or trailer and the current wheel load, the system also having a processing unit which determines the real time current ratio pull force and tractor weight by measuring a plurality of individual values of pull force over a sample period and calculating in the processing unit the respective ratios therefrom, eliminating extreme and/or clearly incorrect or unrepresentative individual ratio values, averaging the ratio values in individual ratio zones and plotting these averaged zonal ratio values recorded in the sample period to generate a best fit curve for these plotted values, then selecting as the current real time value either the average ratio value for the ratio zone in which the tractor is operating for the longest time or the ratio on the curve with the highest value of tractive efficiency.
An intra-oral scanning system comprising: • a replaceable scanning-tip; • a scanner device configured to replaceably mount the replaceable scanning-tip; • an infrared light source configured to emit infrared light, the infrared light source residing in or on the replaceable scanning-tip, whereby the scanning tip provides the infrared light to the teeth; and • an optical element located at the distal end of the scanning-tip with a reflective surface inside the scanning-tip such that when the optical element receives light from a white light source located in the scanning device, the scanning tip provides white light to the teeth, wherein the optical element is configured for receiving the white light as back-reflected from the teeth, such that when the optical element receives the white light from teeth, the scanning-tip provides the white light to a first image sensor in the scanning device, CHARACTERIZED IN THAT the optical element is configured to reflect the white light such that it passes to a first set of pixels on a first image sensor, and the optical element is configured to reflect the infrared light such that it passes to a second set of pixels on the first image sensor. • a replaceable scanning-tip; • a scanner device configured to replaceably mount the replaceable scanning-tip; • an infrared light source configured to emit infrared light, the infrared light source residing in or on the replaceable scanning-tip, whereby the scanning tip provides the infrared light to the teeth; and • an optical element located at the distal end of the scanning-tip with a reflective surface inside the scanning-tip such that when the optical element receives light from a white light source located in the scanning device, the scanning tip provides white light to the teeth, wherein the optical element is configured for receiving the white light as back-reflected from the teeth, such that when the optical element receives the white light from teeth, the scanning-tip provides the white light to a first image sensor in the scanning device,
A method comprising: receiving, by an access and mobility management function, AMF, from a unified data management, UDM, a value for a time duration associated with inactivity of a network slice for a wireless device; and sending, by the AMF to the wireless device and upon expiration of the time duration, an indication of removal of the network slice. receiving, by an access and mobility management function, AMF, from a unified data management, UDM, a value for a time duration associated with inactivity of a network slice for a wireless device; and sending, by the AMF to the wireless device and upon expiration of the time duration, an indication of removal of the network slice.
Use of a continuous-filament thread (100; 200) for the production of different barbed sutures, wherein the continuous-filament thread (100; 200) comprises a continuous-filament thread body (110; 210) comprising a plurality of barbs (115; 215) projecting from the thread body (110; 210), wherein the continuous-filament thread body (110; 210) is unprocessed at least in view of its length, wherein the barbs (115; 215) have an alternating or random configuration in view of barb design, and the barbs (115; 215) are arranged in an alternating or random disposition on the continuous-filament thread body (110; 210), wherein the disposition is selected from the group consisting of a row disposition, a staggered disposition, an overlapping disposition, an offset disposition, an offset and partially overlapping disposition, a zigzag disposition, a random or arbitrary disposition, a meander-like disposition, a serpentine-like disposition, a sinus-like disposition, a spiral disposition, a helical disposition, and combinations thereof, and wherein the continuous-filament thread body (110; 210) is a hollow continuous-filament thread body.
A method comprising: receiving, at a client device, third-party content (530, 630) from an online system, the third-party content (530, 630) originating from a third-party system and including a pointer (520, 620) to a third-party application associated with the third-party system; receiving, at the client device, an interaction by a user with the third-party content (530, 630) presented through a client application executing on the client device, wherein the interaction includes selection of the third-party content (530, 630); obtaining an attribution identifier corresponding to the client device and the third-party content (530, 630), the attribution identifier generated (330, 440) using a hash function taking as input data describing the received interaction; transmitting, from the client device to the online system, the attribution identifier and information describing the interaction; storing the attribution identifier in a storage location of the client device accessible by the third-party application; executing the third-party application to present the third-party content (530, 630) in response to receiving the interaction; determining information describing interactions by the user with the third-party application; and transmitting, from the client device to the third-party system, the information describing interactions by the user with the third-party application in association with the attribution identifier retrieved from the storage location by the third-party application. receiving, at a client device, third-party content (530, 630) from an online system, the third-party content (530, 630) originating from a third-party system and including a pointer (520, 620) to a third-party application associated with the third-party system; receiving, at the client device, an interaction by a user with the third-party content (530, 630) presented through a client application executing on the client device, wherein the interaction includes selection of the third-party content (530, 630); obtaining an attribution identifier corresponding to the client device and the third-party content (530, 630), the attribution identifier generated (330, 440) using a hash function taking as input data describing the received interaction; transmitting, from the client device to the online system, the attribution identifier and information describing the interaction; storing the attribution identifier in a storage location of the client device accessible by the third-party application; executing the third-party application to present the third-party content (530, 630) in response to receiving the interaction; determining information describing interactions by the user with the third-party application; and transmitting, from the client device to the third-party system, the information describing interactions by the user with the third-party application in association with the attribution identifier retrieved from the storage location by the third-party application.
A chlorine production process comprising oxidizing hydrogen chloride with oxygen in a fluidized-bed reactor in the presence of a chlorine production catalyst, wherein the chlorine production catalyst is in the form of spherical particles having an average sphericity of 0.90 or more in which a copper element, an alkali metal element and a lanthanoid element as active components are supported on a porous silica carrier, wherein the lanthanoid element is one or more selected from praseodymium (Pr), neodymium (Nd), promethium (Pm), samarium (Sm), europium (Eu), gadolinium (Gd), terbium (Tb), dysprosium (Dy), holmium (Ho), erbium (Er), thulium (Tm) and lutetium (Lu), wherein the content of the copper element in the catalyst is 0.3 wt.% to 4.5 wt.%, the content of the alkali metal element in the catalyst is 0.1 to 5.0 wt.%, the content of the lanthanoid element in the catalyst is 0.3 to 10.0 wt.%, and the carrier content is 98 to 65 wt%, based on 100 wt% of the chlorine production catalyst, and wherein the catalyst particles show a fluidity such that the temperature difference is less than ±2°C, when tested under the following conditions: - quartz sand is placed in a bottom portion of a glass reaction tube 16 mm in inner diameter in which a 3 mm thick glass filter is provided in a hollow section; - 21.5 ml of the catalyst is packed on the glass filter in the glass reaction tube; - hydrogen chloride and oxygen are supplied at 90.0 Nml/min and 45.0 Nml/min, respectively, from the bottom of the glass reaction tube; - while the catalyst is fluidized by the gas, the reaction is carried out at atmospheric pressure and a reaction temperature of 360°C; - the temperature difference is measured between the lower part of the catalyst layer, namely the part in contact with the glass filter, and the part that is 40 mm above the glass filter. - quartz sand is placed in a bottom portion of a glass reaction tube 16 mm in inner diameter in which a 3 mm thick glass filter is provided in a hollow section; - 21.5 ml of the catalyst is packed on the glass filter in the glass reaction tube; - hydrogen chloride and oxygen are supplied at 90.0 Nml/min and 45.0 Nml/min, respectively, from the bottom of the glass reaction tube; - while the catalyst is fluidized by the gas, the reaction is carried out at atmospheric pressure and a reaction temperature of 360°C; - the temperature difference is measured between the lower part of the catalyst layer, namely the part in contact with the glass filter, and the part that is 40 mm above the glass filter.
Key issuer (130a, 130b) for an access system, the key issuer (130a, 130b) being arranged to issue user keys for access to one or a plurality of access units (110a, 110b, 110c), each user key comprising a signature for validation of the key issuer and credential information for verification of the user of the user key, wherein the key issuer (130a, 130b) is arranged to provide the signature using a private encryption key of the key issuer, characterized in that the key issuer (130a, 130b) is arranged to form the credential information encrypted using a public key of the access unit (110a, 110b, 110c).