mhurhangee/ep-ind-claims huggingface dataset:
A robot cleaner comprising: a body (110, 210) having a module location portion (119, 219); a traveling module configured to move the body (110, 210); and a sliding module (130, 230) having a body location portion (132, 232) detachably coupled to the module location portion (119, 219), and being configured to slide along a floor when the body (110, 210) is moved, wherein a mop fixing unit (134, 234) for fixing a replaceable mop is provided between the module location portion (119, 219) and the body location portion (132, 232), characterized in that the sliding module (130, 230) comprises a collection portion (133, 233) recessed in front of a lower side thereof so as to form a space spaced apart from the floor. a body (110, 210) having a module location portion (119, 219); a traveling module configured to move the body (110, 210); and a sliding module (130, 230) having a body location portion (132, 232) detachably coupled to the module location portion (119, 219), and being configured to slide along a floor when the body (110, 210) is moved, wherein a mop fixing unit (134, 234) for fixing a replaceable mop is provided between the module location portion (119, 219) and the body location portion (132, 232),
An anticancer agent for use in the killing of cancer cells of triple-negative breast cancer, the anticancer agent containing a complex produced by making an iron-salen complex compound, which includes a central iron atom and N, N, O, O as a quadridentate ligand and is magnetic, the iron-salen complex compound being bound to a paclitaxel molecule, wherein the anticancer agent is to kill cancer cells in which phase transition occurs between phases including Gap1, Synthesis, Gap2, and Mitosis and Cytokinesis, and wherein the killing comprises killing triple-negative breast cancer cells at an affected site tissue by applying a magnetic field to the affected site tissue upon administration of the complex and making the complex continuously indwell at the affected site tissue. wherein the anticancer agent is to kill cancer cells in which phase transition occurs between phases including Gap1, Synthesis, Gap2, and Mitosis and Cytokinesis, and wherein the killing comprises killing triple-negative breast cancer cells at an affected site tissue by applying a magnetic field to the affected site tissue upon administration of the complex and making the complex continuously indwell at the affected site tissue.
A drive carriage for a sliding wall element of a sliding wall installation including a carriage housing, a first running wheel, a second running wheel, a drive unit as well as a suspension element, wherein at least one bearing device allows for the running wheels (11, 12) to be rotatably supported about at least one running wheel axis with regard to the carriage housing, and at least one of the running wheels (11, 12) is drivable by the drive unit, and wherein furthermore the suspension element is disposed in the carriage housing as protruding from the carriage housing and/or such that a sliding wall element is attachable to the suspension element, wherein the drive unit includes an electric drive, which is disposed at least partially within the first running wheel and for driving the first running wheel is mechanically coupled to the first running wheel by means of a first coupling element, characterized in that the electric drive is torque-proof fastened to the suspension element, wherein the electric drive torque-proof fastened extends through the suspension element.
A method for producing a sealing tape comprising the steps of: - providing a foam carrier and transporting it at least temporarily in a predetermined transport direction, - applying a coating to a first surface of the foam carrier; - cutting said foam carrier into at least two and preferably a plurality of strips (22, 24, 26, 28); - displacing and/or offsetting at least some of the cut strips with respect to each other in such a way that their side surfaces along which the cuts have been made become accessible for the application of a self-adhesive; - applying a self-adhesive to a further surface (22b, 24b) of the individual strips. - providing a foam carrier and transporting it at least temporarily in a predetermined transport direction, - applying a coating to a first surface of the foam carrier; - cutting said foam carrier into at least two and preferably a plurality of strips (22, 24, 26, 28); - displacing and/or offsetting at least some of the cut strips with respect to each other in such a way that their side surfaces along which the cuts have been made become accessible for the application of a self-adhesive; - applying a self-adhesive to a further surface (22b, 24b) of the individual strips.
An ultrasound system for imaging a volumetric region comprising a region of interest comprising: - a probe suitable for intracavity imaging and having an array of CMUT transducers adapted to steer ultrasound beams in a variable frequency range over the volumetric region; - a beamformer coupled to the array and adapted to control ultrasound beam steering and provide ultrasound image data of the volumetric region; - a transducer frequency controller coupled to the beamformer and adapted in operation to vary operation frequencies of the CMUT transducers within the frequency range; which frequency controller is arranged to set the operation frequency to a first frequency for the ultrasound beam steered in the volumetric region, - an image processor responsive to the ultrasound image data, based on which it is adapted to produce an ultrasound image; - a region of interest, ROI, identifier enabling to identify a region of interest on the basis of the ultrasound image data, and which identifier is adapted to generate identification data indicating the region of interest within the volumetric region; - a drive mechanism coupled to the probe and the ROI identifier which acts to move the probe during operation; wherein the transducer frequency controller is further adapted to change, based on the identification data, the operation frequency to a second frequency for the ultrasound beams steered within the region of interest, the second frequency being higher than the first frequency; and the drive mechanism is adapted to move the probe, based on the identification data, enabling a distance variation between the probe and the ROI. - a probe suitable for intracavity imaging and having an array of CMUT transducers adapted to steer ultrasound beams in a variable frequency range over the volumetric region; - a beamformer coupled to the array and adapted to control ultrasound beam steering and provide ultrasound image data of the volumetric region; - a transducer frequency controller coupled to the beamformer and adapted in operation to vary operation frequencies of the CMUT transducers within the frequency range; which frequency controller is arranged to set the operation frequency to a first frequency for the ultrasound beam steered in the volumetric region, - an image processor responsive to the ultrasound image data, based on which it is adapted to produce an ultrasound image; - a region of interest, ROI, identifier enabling to identify a region of interest on the basis of the ultrasound image data, and which identifier is adapted to generate identification data indicating the region of interest within the volumetric region; - a drive mechanism coupled to the probe and the ROI identifier which acts to move the probe during operation;
Method for operating a vacuum melting system for metallurgical treatment of a steel melt in which, with at least one structure-borne sound pick-up (30-1, 30-2, 30-3, 30-4) coupled acoustically indirectly or directly to a pan accommodating the steel melt, the acoustic signals generated in the pan are picked up and employed for determining the height or the depth (d) of the foamed slag located in the pan above the melt bath of the steel melt.
A semiconductor device manufacturing method comprising: forming a base conductive member on a surface of a substrate, and in a hole section formed in the substrate; forming a resist on a part of the base conductive member; removing the resist until the remaining resist has a thickness of 1 μm, after forming a conductive layer (209, 210) on a part, including the hole section, except for a part at which the resist is formed and before forming the mask metal on the conductive layer; forming a mask metal on the conductive layer (209, 210) with a surface of the conductive layer (209, 210) protected by the remaining resist; removing the remaining resist after forming the mask metal; and etching the base conductive member using the mask metal as a mask to form the conductive layer (209, 210) into a predetermined shape, resulting in formation of an electrode pad section for three-dimensional packaging. forming a base conductive member on a surface of a substrate, and in a hole section formed in the substrate; forming a resist on a part of the base conductive member; removing the resist until the remaining resist has a thickness of 1 μm, after forming a conductive layer (209, 210) on a part, including the hole section, except for a part at which the resist is formed and before forming the mask metal on the conductive layer; forming a mask metal on the conductive layer (209, 210) with a surface of the conductive layer (209, 210) protected by the remaining resist; removing the remaining resist after forming the mask metal; and etching the base conductive member using the mask metal as a mask to form the conductive layer (209, 210) into a predetermined shape, resulting in formation of an electrode pad section for three-dimensional packaging.
System comprising an oculometer for measuring movements of at least one eye of the operator, a display for displaying, for the eye, a frame of at least one isolated point performing a blinking, so that the operator can carry out at least one smooth tracking motion of the eye while looking at the display in operation.
A method for supporting a contention based uplink channel for a user communication device, comprising: receiving a downlink packet from a base station; determining whether a data transmission buffer is empty upon receiving the downlink packet, wherein the data transmission buffer holds data for transmission by the device; receiving contention based grant data, wherein the contention based grant data includes a long term contention based grant data set received from a long term persistent contention based grant allocation message and a short term contention based grant data set received from a short term persistent contention based grant allocation message; storing the contention based grant data if the data transmission buffer is empty; and sending an uplink packet based on at least one of the short term contention based grant data set and the long term contention based grant data set. receiving a downlink packet from a base station; determining whether a data transmission buffer is empty upon receiving the downlink packet, wherein the data transmission buffer holds data for transmission by the device; receiving contention based grant data, wherein the contention based grant data includes a long term contention based grant data set received from a long term persistent contention based grant allocation message and a short term contention based grant data set received from a short term persistent contention based grant allocation message; storing the contention based grant data if the data transmission buffer is empty; and sending an uplink packet based on at least one of the short term contention based grant data set and the long term contention based grant data set.
A method for extracting and separating rare earth elements, comprising the steps of: contacting an organic phase containing a diglycolamic acid having the general formula: wherein R 1 and R 2 are alkyl groups independent of each other, at least one of R 1 and R 2 is a straight or branched alkyl group of at least 6 carbon atoms as an extractant and an organic solvent with an aqueous phase containing at least first and second rare earth elements under acidic conditions of pH 3 or below, for extracting the first rare earth element into the organic phase, back-extracting from the organic phase with an aqueous acid solution for recovering the first rare earth element once extracted into the organic phase, and recovering the second rare earth element which has not been extracted into the organic phase and has remained in the aqueous phase, wherein provided that C 0 is a concentration of the diglycolamic acid extractant in the organic phase and C A is a concentration of rare earth elements in the aqueous phase, the extraction step is effected under the condition that a ratio of C 0 to C A is 2 ≤ C 0 /C A ≤ 10, C 0 is 0.1 mol/L ≤ C 0 ≤ 1.5 mol/L and C A is 0.01 mol/L ≤ C A ≤ 0.7 mol/L. contacting an organic phase containing a diglycolamic acid having the general formula: wherein R 1 and R 2 are alkyl groups independent of each other, at least one of R 1 and R 2 is a straight or branched alkyl group of at least 6 carbon atoms as an extractant and an organic solvent with an aqueous phase containing at least first and second rare earth elements under acidic conditions of pH 3 or below, for extracting the first rare earth element into the organic phase, back-extracting from the organic phase with an aqueous acid solution for recovering the first rare earth element once extracted into the organic phase, and recovering the second rare earth element which has not been extracted into the organic phase and has remained in the aqueous phase, wherein provided that C 0 is a concentration of the diglycolamic acid extractant in the organic phase and C A is a concentration of rare earth elements in the aqueous phase, the extraction step is effected under the condition that a ratio of C 0 to C A is 2 ≤ C 0 /C A ≤ 10, C 0 is 0.1 mol/L ≤ C 0 ≤ 1.5 mol/L and C A is 0.01 mol/L ≤ C A ≤ 0.7 mol/L.
A method comprising: analyzing, by a vehicle apparatus, sensor data collected as the vehicle apparatus traverses at least a portion of a road network, the sensor data captured by one or more sensors onboard a vehicle, the vehicle apparatus being onboard the same vehicle, the sensor data being analyzed in at least near real time with respect to the capturing of the sensor data by the one or more sensors; detecting, based on the analyzing of the sensor data and by the vehicle apparatus, an inconsistency between the sensor data and map data stored in a memory; responsive to the detected inconsistency satisfying a vehicle-to-vehicle criterion, generating, by the vehicle apparatus, a notification message comprising an indication of the detected inconsistency, wherein the detected inconsistency satisfies the vehicle-to-vehicle criterion, if the detected inconsistency is likely to affect the performance and/or result of one or more navigation functions that could be performed by a vehicle apparatus (20, 20A, 20B) if the vehicle apparatus (20, 20A, 20B) was in the vicinity of the detected inconsistency; and continuously and/or periodically transmitting, by the vehicle apparatus and via a short or medium range communication protocol, the notification message for a predefined period of time and/or within a predefined distance of the location of the detected inconsistency. analyzing, by a vehicle apparatus, sensor data collected as the vehicle apparatus traverses at least a portion of a road network, the sensor data captured by one or more sensors onboard a vehicle, the vehicle apparatus being onboard the same vehicle, the sensor data being analyzed in at least near real time with respect to the capturing of the sensor data by the one or more sensors; detecting, based on the analyzing of the sensor data and by the vehicle apparatus, an inconsistency between the sensor data and map data stored in a memory; responsive to the detected inconsistency satisfying a vehicle-to-vehicle criterion, generating, by the vehicle apparatus, a notification message comprising an indication of the detected inconsistency, wherein the detected inconsistency satisfies the vehicle-to-vehicle criterion, if the detected inconsistency is likely to affect the performance and/or result of one or more navigation functions that could be performed by a vehicle apparatus (20, 20A, 20B) if the vehicle apparatus (20, 20A, 20B) was in the vicinity of the detected inconsistency; and continuously and/or periodically transmitting, by the vehicle apparatus and via a short or medium range communication protocol, the notification message for a predefined period of time and/or within a predefined distance of the location of the detected inconsistency.
A method of preparing an antibody suitable for use in a feline comprising the steps of: - providing a donor antibody from a species other than a feline, wherein the donor antibody has binding specificity for a target antigen present in felines; - comparing each amino acid residue of the amino acid sequence of framework regions of the donor antibody with each amino acid residue present at a corresponding position in the amino acid sequence of framework regions of a plurality of feline antibodies to identify one or more amino acid residues within the amino acid sequence of the framework regions of the donor antibody that differ from one or more amino acid residues at the corresponding position within the amino acid sequence of framework regions of the plurality of feline antibodies; and - substituting the one or more identified amino acid residues in the donor antibody with the one or more amino acid residues present at the corresponding position in the plurality of feline antibodies to produce a modified antibody, wherein the modified antibody does not contain any amino acid in any position within the framework regions which would be foreign at the corresponding position in feline; wherein the modified antibody is capable of specifically binding to feline nerve growth factor and inhibiting the ability of feline NGF to bind to the p75 or TrkA feline NGF receptor; and wherein substitution of an amino acid residue in the donor antibody is undertaken using the principle of conservative substitution. - providing a donor antibody from a species other than a feline, wherein the donor antibody has binding specificity for a target antigen present in felines; - comparing each amino acid residue of the amino acid sequence of framework regions of the donor antibody with each amino acid residue present at a corresponding position in the amino acid sequence of framework regions of a plurality of feline antibodies to identify one or more amino acid residues within the amino acid sequence of the framework regions of the donor antibody that differ from one or more amino acid residues at the corresponding position within the amino acid sequence of framework regions of the plurality of feline antibodies; and - substituting the one or more identified amino acid residues in the donor antibody with the one or more amino acid residues present at the corresponding position in the plurality of feline antibodies to produce a modified antibody,
A radar system comprising: a transmitter configured to transmit a plurality of chirps, each comprising a frequency-modulated continuous wave electromagnetic radiation signal, at a region of interest; a receiver front-end configured to receive electromagnetic radiation reflected from the region of interest for each chirp at each of a plurality of antennas and generate a time series of beat-signal samples for each chirp at each antenna of the plurality of antennas; and a signal processor configured to detect objects within the region of interest by providing a frequency domain representation of each time series of beat-signal samples as sample values for a set of range bins representing respective distances from the system, correcting the sample values for each of the set of range bins to provide a set of clutter corrected samples for each range bin, and determining an angular spectrum for each of a subset of the set of range bins from the clutter corrected samples. a transmitter configured to transmit a plurality of chirps, each comprising a frequency-modulated continuous wave electromagnetic radiation signal, at a region of interest; a receiver front-end configured to receive electromagnetic radiation reflected from the region of interest for each chirp at each of a plurality of antennas and generate a time series of beat-signal samples for each chirp at each antenna of the plurality of antennas; and a signal processor configured to detect objects within the region of interest by providing a frequency domain representation of each time series of beat-signal samples as sample values for a set of range bins representing respective distances from the system, correcting the sample values for each of the set of range bins to provide a set of clutter corrected samples for each range bin, and determining an angular spectrum for each of a subset of the set of range bins from the clutter corrected samples.
°/ Device for separation of two liquid phases having different densities or different specific weights, by coalescence on a set of corrugated plates, incorporating: - a fixed tank (1, 2) equipped with: ∘ at least one inlet for the liquid to be treated; ∘ at least one outlet for the "heavy" fraction of the said liquid; and ∘ at least one outlet for the "light" fraction of the said liquid; - at least one rotating structure installed within the fixed tank (1, 2) bearing at least one set of corrugated plates, which are separated from each other by a distance that is essentially constant and which are parallel in relation to each other, with the said plates being corrugated in the vertical direction and laid flat and horizontal during the separation phase, with the said mobile structure being equipped with means allowing the rotation of the said structure within the said tank (1, 2), and with means of partitioning able to direct the flow of the liquid to be treated - preferably through the set of corrugated plates; - a drive system able to apply rotation to the said rotating structure bearing the set of corrugated plates within the tank (1, 2). - a fixed tank (1, 2) equipped with: ∘ at least one inlet for the liquid to be treated; ∘ at least one outlet for the "heavy" fraction of the said liquid; and ∘ at least one outlet for the "light" fraction of the said liquid; ∘ at least one inlet for the liquid to be treated; ∘ at least one outlet for the "heavy" fraction of the said liquid; and ∘ at least one outlet for the "light" fraction of the said liquid; - at least one rotating structure installed within the fixed tank (1, 2) bearing at least one set of corrugated plates, which are separated from each other by a distance that is essentially constant and which are parallel in relation to each other, with the said plates being corrugated in the vertical direction and laid flat and horizontal during the separation phase, with the said mobile structure being equipped with means allowing the rotation of the said structure within the said tank (1, 2), and with means of partitioning able to direct the flow of the liquid to be treated - preferably through the set of corrugated plates; - a drive system able to apply rotation to the said rotating structure bearing the set of corrugated plates within the tank (1, 2).