mhurhangee/ep-ind-claims huggingface dataset:
A hollow profile (1, 15), in particular a crane girder for a crane, wherein the hollow profile (1, 15) has a hollow space and an outer wall, bounding the hollow space, and at least one securing member, projecting from the outer wall, for the preferably re-detachable securing of at least one attachment to the hollow profile (1, 15), characterised in that the outer wall has at least one through opening, opening into the hollow space, for the securing member, and an intermediate space between the portion, bounding the through opening, of the outer wall and the securing member, passed through the through opening, is sealed with a sealant.
A handheld device comprising: a processor, being configured to generate an uplink signal according to a transmission type; and a transceiver, being electrically connected to the processor and configured to transmit the uplink signal to a base station and to receive a downlink signal; wherein the uplink signal comprises an uplink dedicated physical data channel,UL DPDCH, and an uplink dedicated physical control channel, UL DPCCH; characterized by that the UL DPDCH has only first 15 non-transmission gap,non-TG, data slots within two radio frames of UL DPDCH to carry user data, and the two radio frames are constructed by 30 slots; wherein the UL DPCCH has at least first 15 non-TG control slots within the two radio frames of UL DPCCH, and the number of the at least first 15 non-TG control slots depends on when the processor has decoded the downlink signal successfully to fill acknowledgement, ACK, information with an ACK indication for downlink data frame early termination into a non-TG control slot of the at least first 15 non-TG control slots. a processor, being configured to generate an uplink signal according to a transmission type; and a transceiver, being electrically connected to the processor and configured to transmit the uplink signal to a base station and to receive a downlink signal; wherein the uplink signal comprises an uplink dedicated physical data channel,UL DPDCH, and an uplink dedicated physical control channel, UL DPCCH; characterized by that the UL DPDCH has only first 15 non-transmission gap,non-TG, data slots within two radio frames of UL DPDCH to carry user data, and the two radio frames are constructed by 30 slots; wherein the UL DPCCH has at least first 15 non-TG control slots within the two radio frames of UL DPCCH, and the number of the at least first 15 non-TG control slots depends on when the processor has decoded the downlink signal successfully to fill acknowledgement, ACK, information with an ACK indication for downlink data frame early termination into a non-TG control slot of the at least first 15 non-TG control slots.
A device for converting dry carbonaceous raw materials (DCRM) into a synthesis gas comprising, and in particular consisting of, CO and H 2, said device comprising: - a DCRM pyrolysis chamber which is open at the top and bottom, and intended to receive DCRM, - an opening for inserting DCRM into said pyrolysis chamber, at the top, and - an opening for extracting synthesis gas from said pyrolysis chamber, at the bottom; - a central chamber, arranged in said pyrolysis chamber, and comprising: ▪ at least one opening allowing only gaseous communication between said central chamber and pyrolysis chamber, and ▪ at least one opening for injecting oxygen into said central chamber to oxidize therein at least part of the pyrolysis gas passing from the pyrolysis chamber to the central chamber; characterized in that: - the at least one opening for injecting oxygen is located in a so-called cracking chamber, at the bottom of said central chamber;and - the gaseous communication openings are located at the top and on the sides of said central chamber. - a DCRM pyrolysis chamber which is open at the top and bottom, and intended to receive DCRM, - an opening for inserting DCRM into said pyrolysis chamber, at the top, and - an opening for extracting synthesis gas from said pyrolysis chamber, at the bottom; - a central chamber, arranged in said pyrolysis chamber, and comprising: ▪ at least one opening allowing only gaseous communication between said central chamber and pyrolysis chamber, and ▪ at least one opening for injecting oxygen into said central chamber to oxidize therein at least part of the pyrolysis gas passing from the pyrolysis chamber to the central chamber; ▪ at least one opening allowing only gaseous communication between said central chamber and pyrolysis chamber, and ▪ at least one opening for injecting oxygen into said central chamber to oxidize therein at least part of the pyrolysis gas passing from the pyrolysis chamber to the central chamber; - the at least one opening for injecting oxygen is located in a so-called cracking chamber, at the bottom of said central chamber;and - the gaseous communication openings are located at the top and on the sides of said central chamber.
A guide information display apparatus, comprising: a data display section; a data acquisition section that acquires image data of a suspended load region, and point cloud data, the image data being taken by a camera, the point cloud data being acquired by scanning an object from a top surface, the object including a suspended load and a grounded object in the suspended load region; and a data processing section that creates a guide frame corresponding to the top surface of the object estimated from the point cloud data and causes the guide frame to be displayed on the data display section while superimposing the created guide frame on the object in the image data, wherein the data processing section creates the guide frame by grouping the point cloud data within a predetermined thickness of a region in a distance direction from the laser scanner, calculating a center of gravity of a plurality of points for which an inter-point distance is equal to or smaller than a threshold in the point cloud data belonging to a same group, and deeming, to be the top surface of the object, point data for which a distance with the center of gravity is equal to or smaller than a threshold. a data display section; a data acquisition section that acquires image data of a suspended load region, and point cloud data, the image data being taken by a camera, the point cloud data being acquired by scanning an object from a top surface, the object including a suspended load and a grounded object in the suspended load region; and a data processing section that creates a guide frame corresponding to the top surface of the object estimated from the point cloud data and causes the guide frame to be displayed on the data display section while superimposing the created guide frame on the object in the image data, wherein the data processing section creates the guide frame by grouping the point cloud data within a predetermined thickness of a region in a distance direction from the laser scanner, calculating a center of gravity of a plurality of points for which an inter-point distance is equal to or smaller than a threshold in the point cloud data belonging to a same group, and deeming, to be the top surface of the object, point data for which a distance with the center of gravity is equal to or smaller than a threshold.
A memory (124-1; 124-2), comprising: a plurality of memory cells arranged in a memory array area of a memory array size; a wordline (WL) coupled to the plurality of memory cells; a sense amplifier coupled to one of the plurality of memory cells; and a timing circuit coupled to a wordline clock independent of a wordline decoder, configured to enable (1116; SAEN) the sense amplifier, and comprising a delay stage and a dummy wordline arranged in series; wherein the dummy wordline is configured to emulate at least one first portion of the wordline (WL), and wherein the delay stage is configured to emulate a loading corresponding to a loading of at least one of the plurality of memory cells and at least a second portion of the wordline (WL), wherein the second portion accounts for a wordline loading in a memory (124-2; 124-1) of a different memory array size. a plurality of memory cells arranged in a memory array area of a memory array size; a wordline (WL) coupled to the plurality of memory cells; a sense amplifier coupled to one of the plurality of memory cells; and a timing circuit coupled to a wordline clock independent of a wordline decoder, configured to enable (1116; SAEN) the sense amplifier, and comprising a delay stage and a dummy wordline arranged in series; coupled to a wordline clock independent of a wordline decoder, configured to enable (1116; SAEN) the sense amplifier, and comprising a delay stage and a dummy wordline arranged in series; wherein the dummy wordline is configured to emulate at least one first portion of the wordline (WL), and wherein the delay stage is configured to emulate a loading corresponding to a loading of at least one of the plurality of memory cells and at least a second portion of the wordline (WL), wherein the second portion accounts for a wordline loading in a memory (124-2; 124-1) of a different memory array size. a loading corresponding to a loading of at least one of the plurality of memory cells and at least a second portion of the wordline (WL), wherein the second portion accounts for a wordline loading in a memory (124-2; 124-1) of a different memory array size.
A method for selection of the DIS3 PIN domain endonuclease activity inhibitor suitable for use in therapy of cancer cell having the mutation in hDIS3 RNB domain, wherein the method comprises the following steps: a) construction of a model system comprising DIS3, its fragments, homo logs or variants with mutation in RNB domain, preferably by introducing the mutation occurring in hDIS3 in cancer cells, b) contacting the model system obtained in a) with a tested agent, a putative DIS3 PIN domain endonuclease activity inhibitor, c) evaluation of the activity of the PIN domain in the presence and absence of the tested agent, by the way appropriate to the model system; d) selection of the tested agent for which PIN domain activity is changed while contacted with the tested agent and by this obtaining the DIS3 PIN domain endonuclease activity inhibitor. a) construction of a model system comprising DIS3, its fragments, homo logs or variants with mutation in RNB domain, preferably by introducing the mutation occurring in hDIS3 in cancer cells, b) contacting the model system obtained in a) with a tested agent, a putative DIS3 PIN domain endonuclease activity inhibitor, c) evaluation of the activity of the PIN domain in the presence and absence of the tested agent, by the way appropriate to the model system; d) selection of the tested agent for which PIN domain activity is changed while contacted with the tested agent and by this obtaining the DIS3 PIN domain endonuclease activity inhibitor.
A method, comprising: intercepting data from a communication network, wherein the communication network carries data connections conveying the data, wherein the data relates to users of the communication network, and wherein the data comprises encrypted data; determining or identifying plain data from the intercepted data, wherein the plain data comprises unencrypted data; analyzing the plain data by an apparatus with a hardware module comprising a processor, so as to establish one or more selection rules by: detecting predefined criteria, searching the plain data to detect malware received at a specific client device, upon discovering the malware, adding an IP address of the specific client device to a selection rule table; selecting (212, 216) a subset of the multiple data connections based on the selection rules; and configuring the inspection device to decrypt the encrypted data conveyed by the data connections in the selected subset. intercepting data from a communication network, wherein the communication network carries data connections conveying the data, wherein the data relates to users of the communication network, and wherein the data comprises encrypted data; determining or identifying plain data from the intercepted data, wherein the plain data comprises unencrypted data; analyzing the plain data by an apparatus with a hardware module comprising a processor, so as to establish one or more selection rules by: detecting predefined criteria, searching the plain data to detect malware received at a specific client device, upon discovering the malware, adding an IP address of the specific client device to a selection rule table; detecting predefined criteria, searching the plain data to detect malware received at a specific client device, upon discovering the malware, adding an IP address of the specific client device to a selection rule table; selecting (212, 216) a subset of the multiple data connections based on the selection rules; and configuring the inspection device to decrypt the encrypted data conveyed by the data connections in the selected subset.
A device for delivery of a rheumatoid arthritis drug across a dermal barrier, the device comprising: an array of microneedles and a plurality of nanostructures fabricated on a surface of at least one of the microneedles (12;22;120;330;230), the nanostructures being arranged in a predetermined pattern; and characterised by further comprising: a reservoir (112;206;306) that is in fluid communication with the array of microneedles; and a rheumatoid arthritis drug retained within the reservoir (112;206;306). an array of microneedles and a plurality of nanostructures fabricated on a surface of at least one of the microneedles (12;22;120;330;230), the nanostructures being arranged in a predetermined pattern; and characterised by further comprising: a reservoir (112;206;306) that is in fluid communication with the array of microneedles; and a rheumatoid arthritis drug retained within the reservoir (112;206;306). a reservoir (112;206;306) that is in fluid communication with the array of microneedles; and a rheumatoid arthritis drug retained within the reservoir (112;206;306).
A layered structure comprising: a starting material layer that comprises a material having resistivity in a range of 0.1 to 10 ohm-cm; and a fully depleted porous layer directly on the starting material layer, wherein a first band gap of the fully depleted porous layer is greater than a second band gap of the starting material and the fully depleted porous layer is elementally identical to the starting material. a starting material layer that comprises a material having resistivity in a range of 0.1 to 10 ohm-cm; and a fully depleted porous layer directly on the starting material layer,
A non-thermal plasma deposition device, comprising: an ionization chamber configured to: receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; the ionization chamber further comprising an inlet coupled to a restoration material supply: the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site, characterized in that the restoration material is hydroxyapatite, carbonated calcium-deficient hydroxyapatite with acid phosphate substitutions, calcium apatite, nano-scale diamond, flourapatite, chlorapatite, or combinations thereof. an ionization chamber configured to: receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; receive a carrier gas; and excite the carrier gas to form an ionizing plasma stream; the ionization chamber further comprising an inlet coupled to a restoration material supply: the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site, characterized in that the restoration material is hydroxyapatite, carbonated calcium-deficient hydroxyapatite with acid phosphate substitutions, calcium apatite, nano-scale diamond, flourapatite, chlorapatite, or combinations thereof. the inlet intersecting with the ionization chamber in a location after the ionizing plasma stream is formed; the ionization chamber further configured to receive the restoration material and introduce the restoration material into the ionizing plasma stream to form a deposition stream; and a deposition nozzle that is configured to: eject a plume of the deposition stream to deposit the restoration material on an application site, characterized in that the restoration material is hydroxyapatite, carbonated calcium-deficient hydroxyapatite with acid phosphate substitutions, calcium apatite, nano-scale diamond, flourapatite, chlorapatite, or combinations thereof.
A measuring apparatus for determining an attitude by using acceleration data output from an acceleration sensor having at least three axes and magnetic field data output from a magnetic sensor having at least three axes, the acceleration sensor and the magnetic sensor being arranged in an excavating part of an underground excavator, the measuring apparatus comprising: an attitude estimating part adapted to determine an attitude of the excavating part based on the acceleration data and the magnetic field data; and a phase correction amount calculating part adapted to calculate an offset between a gravity tool face and a magnetic force tool face, and set the calculated offset as an estimated offset, characterized in that the attitude estimating part is adapted to set the gravity tool face based on the acceleration data as a measured gravity tool face, the magnetic force tool face based on the magnetic field data as a measured magnetic force tool face, a difference between an offset between the measured gravity tool face and the measured magnetic force tool face and the estimated offset as a phase correction amount, and data obtained by correcting the magnetic field data with the phase correction amount as corrected magnetic field data, and to determine the attitude based on the acceleration data and the corrected magnetic field data. an attitude estimating part adapted to determine an attitude of the excavating part based on the acceleration data and the magnetic field data; and a phase correction amount calculating part adapted to calculate an offset between a gravity tool face and a magnetic force tool face, and set the calculated offset as an estimated offset, characterized in that the attitude estimating part is adapted to set the gravity tool face based on the acceleration data as a measured gravity tool face, the magnetic force tool face based on the magnetic field data as a measured magnetic force tool face, a difference between an offset between the measured gravity tool face and the measured magnetic force tool face and the estimated offset as a phase correction amount, and data obtained by correcting the magnetic field data with the phase correction amount as corrected magnetic field data, and to determine the attitude based on the acceleration data and the corrected magnetic field data.
Aircraft lifting surface having a span direction, the lifting surface comprising: - a stationary part, - a movable part, movable with respect to the stationary part and comprising an end in the span direction, - a portion of a fuselage of an aircraft, - an actuation system configured to actuate the movable part with respect to the stationary part, the actuation system comprising a sliding system joined to: - the end of the movable part, and - joined to a stationary structure of the aircraft, said stationary structure being: • located adjacent in the span direction to the end of the movable part, and • connected with the stationary part of the lifting surface, so that the sliding system allows the movable part to slide with respect to the stationary structure, the stationary structure being the portion of the fuselage of the aircraft and the end of the movable part being located at a root of the aircraft lifting surface in the span direction, characterized by an actuator located in the portion of the fuselage and in connection with the movable part, the actuator being configured to impart a force to the movable part for its movement between at least a first position and a second position. - a stationary part, - a movable part, movable with respect to the stationary part and comprising an end in the span direction, - a portion of a fuselage of an aircraft, - an actuation system configured to actuate the movable part with respect to the stationary part, - the end of the movable part, and - joined to a stationary structure of the aircraft, said stationary structure being: • located adjacent in the span direction to the end of the movable part, and • connected with the stationary part of the lifting surface, • located adjacent in the span direction to the end of the movable part, and • connected with the stationary part of the lifting surface,
A method of manufacturing an article having a ceramic topcoat, comprising: (a) forming the ceramic topcoat on the article; (b) subsequent to said step (a), heating the ceramic topcoat and cooling the article by air impingement cooling; and characterised by (c) a controlled sintering step comprising controlling said heating and said cooling to establish a predetermined thermal gradient through the ceramic topcoat to induce segmentation cracking in at least a portion of the ceramic topcoat, and wherein said predetermined thermal gradient provides the ceramic topcoat with cracks having a predetermined spacing between cracks, a predetermined crack depth, or a predetermined number of cracks per unit surface area, wherein said step (a) includes forming the ceramic topcoat with a nominal thickness of at least 20 mils (0.0005 m), and wherein said step (c) comprises controlled sintering of at least a portion of the ceramic topcoat to induce segmentation cracking in the ceramic topcoat. (a) forming the ceramic topcoat on the article; (b) subsequent to said step (a), heating the ceramic topcoat and cooling the article by air impingement cooling; and characterised by (c) a controlled sintering step comprising controlling said heating and said cooling to establish a predetermined thermal gradient through the ceramic topcoat to induce segmentation cracking in at least a portion of the ceramic topcoat, and wherein said predetermined thermal gradient provides the ceramic topcoat with cracks having a predetermined spacing between cracks, a predetermined crack depth, or a predetermined number of cracks per unit surface area,
COMPOUND presenting the general formula: where, n = 2, R 1 is hydrogen or ethyl and R 2 is selected from the group consisting of 3-trifluormethylphenyl, 2-chlorophenyl, 2-methylphenyl, 2,3-dimethylphenyl, 2-cyanophenyl, and 2-methoxyphenyl, or an appropriate pharmaceutical salt thereof. n = 2, R 1 is hydrogen or ethyl and R 2 is selected from the group consisting of 3-trifluormethylphenyl, 2-chlorophenyl, 2-methylphenyl, 2,3-dimethylphenyl, 2-cyanophenyl, and 2-methoxyphenyl, or an appropriate pharmaceutical salt thereof.