mhurhangee/ep-ind-claims huggingface dataset:
A clamping apparatus (700, 700') for connecting flanges (101a, 102a) of tubes, comprising: a first bracing device; a second bracing device; wherein the first bracing device connects a first mounting device and a second mounting device; wherein the first bracing device has a partially circular shape with a first inner wall and a first outer wall; wherein the second bracing device connects a first connecting device and a second connecting device; wherein the first inner wall of the first bracing device has a first recess; wherein the first outer wall of the first bracing device is adapted to contact the second bracing device; wherein the second bracing device is adapted to contact the first outer wall of the first bracing device in order to apply a substantially radial force on the first outer wall of the first bracing device; wherein the shape of the first recess is adapted to substantially convert the substantially radial force applied to the first outer wall of the first bracing device into an axial force inside the first inner wall; wherein the first mounting device and the second mounting device each comprise at least two attachment devices (714a, 714b, 714c, 714d) for connecting the first connecting device and the second connecting device of the second bracing device. a first bracing device; a second bracing device; wherein the first bracing device connects a first mounting device and a second mounting device; wherein the first bracing device has a partially circular shape with a first inner wall and a first outer wall; wherein the second bracing device connects a first connecting device and a second connecting device; wherein the first inner wall of the first bracing device has a first recess; wherein the first outer wall of the first bracing device is adapted to contact the second bracing device; wherein the second bracing device is adapted to contact the first outer wall of the first bracing device in order to apply a substantially radial force on the first outer wall of the first bracing device; wherein the shape of the first recess is adapted to substantially convert the substantially radial force applied to the first outer wall of the first bracing device into an axial force inside the first inner wall; wherein the first mounting device and the second mounting device each comprise at least two attachment devices (714a, 714b, 714c, 714d) for connecting the first connecting device and the second connecting device of the second bracing device.
An expanded polypropylene resin particle comprising a polypropylene resin as a base resin, the polypropylene resin containing a polypropylene resin in an amount of 85 to 99 weight% and a high density polyethylene resin in an amount of 1 to 15 weight% so that a total amount of the polypropylene resin and the high density polyethylene resin is 100 weight%, and the polypropylene resin having a melt flow rate of 3 g/10min. or more and 20 g/10 min. or less and a melting point of 148°C or above and 160°C or below, and the high density polyethylene resin having a density of 0.93 to 0.97 g/cm 3 and a melt flow rate of 0.1 g/10min. or more and 15 g/10min. or less, wherein no or one foam nucleating agent is contained in the polypropylene resin, wherein a hydrophilic compound is contained in the polypropylene resin, wherein the expanded polypropylene resin particle has an expansion ratio of 10 times or greater and 40 times or less, an average cell diameter of 100 μm or greater and 250 μm or less, and an open cell ratio of 0% or greater and 10% or less, and wherein the melt flow rate of the polypropylene resin is measured with the use of an MFR measuring instrument described in JIS-K7210 and under conditions involving an orifice having a diameter of 2.0959±0.005 mm and a length of 8.000±0.025 mm, a load of 2160 g, and a temperature of 230°C±0.2°C, the melt flow rate of the high density polyethylene resin is measured in accordance with JIS K7210 with a load of 2160 g and a temperature of 190°C±0.2°C, the melting point, the expansion ratio, the average cell diameter and the open cell ratio are measured as set out in the specification.
An infold agent that binds an hemagglutinin polypeptide and comprises a polypeptide less than about 1000 amino acids in length, whose amino acid sequence consists of Infold-1 of SEQ ID NO:1, Infold-2 of SEQ ID NO:2, Infold-3 of SEQ ID NO:3, Infold-4 of SEQ ID NO:4, Infold-5 of SEQ ID NO:5, Infold-6 of SEQ ID NO:6, Infold-7 of SEQ ID NO:7, Infold-8 of SEQ ID NO:8, Infold-9 of SEQ ID NO:9, Infold-10 of SEQ ID NO:10, Infold-11 of SEQ ID NO:11, Infold-12 of SEQ ID NO:12, Infold-13 of SEQ ID NO:13, Infold-14 of SEQ ID NO:14, Infold-15 of SEQ ID NO:15, Infold-16 of SEQ ID NO:16, Infold-17 of SEQ ID NO:17, Infold-18 of SEQ ID NO:18, Infold-19 of SEQ ID NO:19, Infold-20 of SEQ ID NO:20, Infold-21 of SEQ ID NO:21, Infold-22 of SEQ ID NO:22, Infold-23 of SEQ ID NO:23 and SEQ ID NO:24, Infold-24 of SEQ ID NO:25 and SEQ ID NO:24, Infold-25 of SEQ ID NO:26 and SEQ ID NO:24, Infold-26 of SEQ ID NO:27 and SEQ ID NO:24, Infold-27 of SEQ ID NO:28 and SEQ ID NO:24, Infold-28 of SEQ ID NO:29 and SEQ ID NO:24, Infold-29 of SEQ ID NO:30 and SEQ ID NO:24, Infold-30 of SEQ ID NO:31 and SEQ ID NO:24, Infold-31 of SEQ ID NO:32 and SEQ ID NO:24, Infold-32 of SEQ ID NO:33 and SEQ ID NO:24, Infold-33 of SEQ ID NO:34 and SEQ ID NO:24, Infold-34 of SEQ ID NO:35 and SEQ ID NO:24, Infold-35 of SEQ ID NO:36 and SEQ ID NO:24, Infold-36 of SEQ ID NO:37 and SEQ ID NO:24, Infold-37 of SEQ ID NO:38 and SEQ ID NO:24, Infold-38 of SEQ ID NO:39 and SEQ ID NO:24, Infold-39 of SEQ ID NO:40 and SEQ ID NO:24, or Infold-40 of SEQ ID NO:41 and SEQ ID NO:24.
A method for detecting a RAF1 fusion protein or a RAF1 gene fusion in a biological sample, wherein the RAF1 fusion protein or gene fusion is an AGGF1:RAF1, LMNA:RAF1, MPRIP:RAF1, PAPD7:RAF1, CLCN6:RAF1, or TRAK1:RAF1 fusion, and wherein the RAF1 gene fusion comprises: SEQ ID NO:1, 3, 5, 7, 9, or 11, or a portion of SEQ ID NO:1, 3, 5, 7, 9, or 11, wherein the portion comprises a fusion junction between RAF1 and its fusion partner and the gene fusion encodes a polypeptide having RAF1 kinase activity, or wherein the RAF1 fusion protein comprises: SEQ ID NO:2, 4, 6, 8, 10, or 12, or a portion of SEQ ID NO:2, 4, 6, 8, 10, or 12, wherein the portion comprises a fusion junction between RAF1 and its fusion partner and the fusion protein has RAF1 kinase activity said method comprising: a) contacting a biological sample from a patient with a reagent selected from: i) an antibody that binds to the RAF1 fusion protein, but does not recognise wild-type RAF1, AGGF1, LMNA, MPRIP, PAPD7, CLCN6, or TRAK1; or ii) an oligonucleotide that hybridizes to the fusion junction of the RAF1 gene fusion; and b) detecting binding between the RAF1 fusion protein or the RAF1 gene fusion and the reagent. SEQ ID NO:1, 3, 5, 7, 9, or 11, or a portion of SEQ ID NO:1, 3, 5, 7, 9, or 11, wherein the portion comprises a fusion junction between RAF1 and its fusion partner and the gene fusion encodes a polypeptide having RAF1 kinase activity, or SEQ ID NO:2, 4, 6, 8, 10, or 12, or a portion of SEQ ID NO:2, 4, 6, 8, 10, or 12, wherein the portion comprises a fusion junction between RAF1 and its fusion partner and the fusion protein has RAF1 kinase activity a) contacting a biological sample from a patient with a reagent selected from: i) an antibody that binds to the RAF1 fusion protein, but does not recognise wild-type RAF1, AGGF1, LMNA, MPRIP, PAPD7, CLCN6, or TRAK1; or ii) an oligonucleotide that hybridizes to the fusion junction of the RAF1 gene fusion; and i) an antibody that binds to the RAF1 fusion protein, but does not recognise wild-type RAF1, AGGF1, LMNA, MPRIP, PAPD7, CLCN6, or TRAK1; or ii) an oligonucleotide that hybridizes to the fusion junction of the RAF1 gene fusion; and b) detecting binding between the RAF1 fusion protein or the RAF1 gene fusion and the reagent.
A method of modulating a signal to encode information, comprising: (a) modulating the signal in the time domain using a first modulation scheme to encode first information in the signal via at least one of: phase shift keying, frequency shift keying, quadrature amplitude modulation, amplitude modulation, frequency modulation (b) transforming the time-domain modulated signal into the frequency domain via a fast Fourier transform of length N, such that the signal is represented by N frequency bins; (c) subsequently applying spectral notch modulation to encode the signal with a second type of information by selectively nulling M of the N frequency bins, where M is less than N, wherein nulled combinations of M frequency bins respectively correspond to encoded information bits; (d) transforming the selectively nulled signal to the time domain via an inverse fast Fourier transform; and (e) transmitting the selectively nulled signal containing the first and second information. (a) modulating the signal in the time domain using a first modulation scheme to encode first information in the signal via at least one of: phase shift keying, frequency shift keying, quadrature amplitude modulation, amplitude modulation, frequency modulation (b) transforming the time-domain modulated signal into the frequency domain via a fast Fourier transform of length N, such that the signal is represented by N frequency bins; (c) subsequently applying spectral notch modulation to encode the signal with a second type of information by selectively nulling M of the N frequency bins, where M is less than N, wherein nulled combinations of M frequency bins respectively correspond to encoded information bits; (d) transforming the selectively nulled signal to the time domain via an inverse fast Fourier transform; and (e) transmitting the selectively nulled signal containing the first and second information.
A gown, comprising: a body member having integral or attached side panels extending behind a front of the body member; wherein the side panels overlap each other behind the front of the body member; means for attaching together the side panels where they are overlapped; wherein the body member defines a neck opening and left and right arm openings; and wherein the gown comprises left and right sleeves attached at the left and right arm openings, respectively, characterized in that one of the side panels defines a tab to be folded back to reinforce the area where the side panels are attached together by the means for attaching after being folded behind the body and overlapped. a body member having integral or attached side panels extending behind a front of the body member; wherein the side panels overlap each other behind the front of the body member; means for attaching together the side panels where they are overlapped; wherein the body member defines a neck opening and left and right arm openings; and wherein the gown comprises left and right sleeves attached at the left and right arm openings, respectively, characterized in that one of the side panels defines a tab to be folded back to reinforce the area where the side panels are attached together by the means for attaching after being folded behind the body and overlapped.
A rotating electric machine with shaft-seal devices mounted thereon, comprising: - a rotor having a shaft; - a stator disposed in a circumferential surrounding of the rotor; - a sealing ring having a plurality of through holes (1a, 1b) formed therein, being disposed in a circumferential surrounding of the shaft; - a gland seal having an oil supply opening therein, for enclosing a circumferential surrounding of the sealing ring; - a partition plate disposed between the sealing ring and the gland seal; and - a housing on which the gland seal is fixed, for accommodating the rotor and the stator, characterized in that, the partition plate is fixed on the inner side of the gland seal and opposes to the oil supply opening formed in the gland seal. - a rotor having a shaft; - a stator disposed in a circumferential surrounding of the rotor; - a sealing ring having a plurality of through holes (1a, 1b) formed therein, being disposed in a circumferential surrounding of the shaft; - a gland seal having an oil supply opening therein, for enclosing a circumferential surrounding of the sealing ring; - a partition plate disposed between the sealing ring and the gland seal; and - a housing on which the gland seal is fixed, for accommodating the rotor and the stator,
A method for visual search by using a sending means, the method comprising: sending a first query of an image to a receiving means, wherein the first query comprises a first number of feature points which is a subset of a first set of feature points of the image invariant to rotation and scaling in creating the image, and wherein the first set of feature points is a scale-invariant feature transform, SIFT, feature points of the image or a speeded up robust features, SURF, feature points of the image; receiving feedback from the receiving means, wherein the feedback is generated by the receiving means based on searching an image repository using information from the first query; and deciding whether there is a match of the image in the image repository based on the received feedback; sending by the sending means a second query of the image to the receiving means when the sending means decides there is no match of the image in the image repository based on the first query, wherein the second query comprises a second number of feature points which is a subset of the first set of feature points of the image invariant to rotation and scaling in creating the image, wherein a subset of the first set of feature points is not a complete set of the first set of feature points and is not an empty set of feature points, and wherein the first query and second query are disjoint without any common feature point. sending a first query of an image to a receiving means, wherein the first query comprises a first number of feature points which is a subset of a first set of feature points of the image invariant to rotation and scaling in creating the image, and wherein the first set of feature points is a scale-invariant feature transform, SIFT, feature points of the image or a speeded up robust features, SURF, feature points of the image; receiving feedback from the receiving means, wherein the feedback is generated by the receiving means based on searching an image repository using information from the first query; and deciding whether there is a match of the image in the image repository based on the received feedback; sending by the sending means a second query of the image to the receiving means when the sending means decides there is no match of the image in the image repository based on the first query, wherein the second query comprises a second number of feature points which is a subset of the first set of feature points of the image invariant to rotation and scaling in creating the image, wherein a subset of the first set of feature points is not a complete set of the first set of feature points and is not an empty set of feature points, and wherein the first query and second query are disjoint without any common feature point.
A motor-driven appliance system (10, 30, 60), comprising: a motor-driven electric power tool or electric work machine having a motor; at least one control circuit (20; 40; 70) configured to execute a process related to control of the motor-driven electric power tool or electric work machine; and a communication device configured to communicate with an external device, characterized in that the at least one control circuit (20; 40; 70) is further configured to switch, when at least one predetermined sleep condition is satisfied, from an active mode in which the at least one control circuit (20; 40; 70) performs a normal operation to a sleep mode in which the at least one control circuit (20; 40; 70) stops part of the normal operation to thereby suppress power consumption, and to switch to the active mode when the communication device receives an external wakeup signal transmitted from the external device while the at least one control circuit (20; 40; 70) is in the sleep mode. a motor-driven electric power tool or electric work machine having a motor; at least one control circuit (20; 40; 70) configured to execute a process related to control of the motor-driven electric power tool or electric work machine; and a communication device configured to communicate with an external device, characterized in that the at least one control circuit (20; 40; 70) is further configured to switch, when at least one predetermined sleep condition is satisfied, from an active mode in which the at least one control circuit (20; 40; 70) performs a normal operation to a sleep mode in which the at least one control circuit (20; 40; 70) stops part of the normal operation to thereby suppress power consumption, and to switch to the active mode when the communication device receives an external wakeup signal transmitted from the external device while the at least one control circuit (20; 40; 70) is in the sleep mode.
A device for locally applying a medical fluid, comprising a tube, the tube being flexibly deformable and comprising a tube wall, wherein the tube comprises a plurality of openings in the tube wall, the plurality of openings connecting an inner line of the tube to the surroundings of the tube, and the tube being closed at a distal tube end of the tube, wherein a proximal tube end of the tube is liquid-permeably connected or connectable to a container for the medical fluid such that the medical fluid from the container is pushable through the proximal tube end of the tube into the inner line of the tube and can be pushed out through the plurality of openings into the surroundings of the tube, wherein the device comprises an outer sleeve for fluid-tightly closing a subset of the plurality of openings, the outer sleeve being axially movably arranged around the tube, and the outer sleeve being shorter than the tube such that the distal openings that are not part of the closed subset of the plurality of openings are exposed, wherein the tube wall comprises an outer wall that is made of a first material and is arranged radially externally, and the tube wall comprises an inner wall that is made of a second material, is arranged radially internally and delimits the inner line of the tube, wherein the outer wall and the inner wall are rigidly interconnected, preferably interconnected over the entire surface. a tube, the tube being flexibly deformable and comprising a tube wall, wherein the tube comprises a plurality of openings in the tube wall, the plurality of openings connecting an inner line of the tube to the surroundings of the tube, and the tube being closed at a distal tube end of the tube, wherein a proximal tube end of the tube is liquid-permeably connected or connectable to a container for the medical fluid such that the medical fluid from the container is pushable through the proximal tube end of the tube into the inner line of the tube and can be pushed out through the plurality of openings into the surroundings of the tube, wherein the device comprises an outer sleeve for fluid-tightly closing a subset of the plurality of openings, the outer sleeve being axially movably arranged around the tube, and the outer sleeve being shorter than the tube such that the distal openings that are not part of the closed subset of the plurality of openings are exposed, wherein the tube wall comprises an outer wall that is made of a first material and is arranged radially externally, and the tube wall comprises an inner wall that is made of a second material, is arranged radially internally and delimits the inner line of the tube, wherein the outer wall and the inner wall are rigidly interconnected, preferably interconnected over the entire surface.
A method comprising: determining (510; 610), by a wireless node in a cell, a silent resource pattern for each of a plurality of signal waveform types including at least a single carrier waveform type and a multicarrier waveform type, wherein each silent resource pattern identifies one or more resource elements that are indicated as unused by at least one node of the cell for the signal waveform type; determining (514; 620), by the wireless node, whether a signal waveform type, of the plurality of signal waveform types, for channel sensing is known by the wireless node; performing (516; 630), by the wireless node if a signal waveform type for channel sensing is known by the wireless node, channel sensing based on a silent resource pattern for a known signal waveform type for channel sensing of the plurality of signal waveform types; otherwise, performing (518; 640), by the wireless node if the signal waveform type for channel sensing is not known by the wireless node, channel sensing based on a silent resource pattern for each of a plurality of the signal waveform types. determining (510; 610), by a wireless node in a cell, a silent resource pattern for each of a plurality of signal waveform types including at least a single carrier waveform type and a multicarrier waveform type, wherein each silent resource pattern identifies one or more resource elements that are indicated as unused by at least one node of the cell for the signal waveform type; determining (514; 620), by the wireless node, whether a signal waveform type, of the plurality of signal waveform types, for channel sensing is known by the wireless node; performing (516; 630), by the wireless node if a signal waveform type for channel sensing is known by the wireless node, channel sensing based on a silent resource pattern for a known signal waveform type for channel sensing of the plurality of signal waveform types; otherwise, performing (518; 640), by the wireless node if the signal waveform type for channel sensing is not known by the wireless node, channel sensing based on a silent resource pattern for each of a plurality of the signal waveform types.
A battery module comprising: a plurality of battery cells stacked along a first direction, a heat exchange member provided at and being in heat exchange contact with the bottom surfaces of the plurality of battery cells, wherein the heat exchange member comprises at least one groove formed in its surface facing the plurality of battery cells, wherein said groove is configured to guide a condensation fluid away from the battery cells, characterized in that the depth of the groove is increasing along its length, and/or a bottom surface of the groove is downwardly inclined along its length. a plurality of battery cells stacked along a first direction, a heat exchange member provided at and being in heat exchange contact with the bottom surfaces of the plurality of battery cells, wherein the heat exchange member comprises at least one groove formed in its surface facing the plurality of battery cells, wherein said groove is configured to guide a condensation fluid away from the battery cells, characterized in that the depth of the groove is increasing along its length, and/or a bottom surface of the groove is downwardly inclined along its length.