mhurhangee/patent-ind-claim-en huggingface dataset:
An antibacterial glass composition, comprising: 20-45 wt% of SiOz; 1-30 wt% of B 2 O 3 ; 10-30 wt% of ZnO; 5-25 wt% of one or more of Na 2 O, K 2 O and Li 2 O; 0.1-10 wt% of one or more of Al 2 O 3 and TiOz; 0.1-5 wt% of NaF; and 1-10 wt% of one or more of Co 3 O 4 , CuO and Fe 2 O 3 , wherein the antibacterial glass composition respectively comprises 0.5 wt% or greater of Co 3 O 4 and CuO. 20-45 wt% of SiOz; 1-30 wt% of B 2 O 3 ; 10-30 wt% of ZnO; 5-25 wt% of one or more of Na 2 O, K 2 O and Li 2 O; 0.1-10 wt% of one or more of Al 2 O 3 and TiOz; 0.1-5 wt% of NaF; and 1-10 wt% of one or more of Co 3 O 4 , CuO and Fe 2 O 3 , wherein the antibacterial glass composition respectively comprises 0.5 wt% or greater of Co 3 O 4 and CuO.
A telescoping catheter system for use in connection with navigation within a vascular lumen and thrombectomy of a thrombus, the system comprising: a tubular catheter member having an open distal end and an inner diameter defining a catheter lumen; a vacuum source operably coupled to the tubular catheter member to impart a vacuum within the catheter lumen to aspirate the thrombus; a rotational drive system ; and a flexible shaft having a channel operably coupled to the rotational drive system configured for rotational movement in response thereto, the flexible shaft configured to be at least partially disposed within the tubular catheter member and configured for rotational motion not directly correlated with orbital motion. a tubular catheter member having an open distal end and an inner diameter defining a catheter lumen; a vacuum source operably coupled to the tubular catheter member to impart a vacuum within the catheter lumen to aspirate the thrombus; a rotational drive system ; and a flexible shaft having a channel operably coupled to the rotational drive system configured for rotational movement in response thereto, the flexible shaft configured to be at least partially disposed within the tubular catheter member and configured for rotational motion not directly correlated with orbital motion.
An aircraft undercarriage provided at its bottom end with a rocker arm carrying at least two axles , including one in front of a hinge between the rocker arm and the undercarriage and the other behind said hinge, one of the axles is fitted with one or more wheels provided with brakes and without drive motor and the other axle is fitted with one or more wheels provided with drive motors and without brake, the undercarriage being characterized in that it includes a controllable rocking shock absorber for applying a force on the rocker arm tending to press the wheels provided with drive motors against the ground and to increase the load on said wheels provided with drive motors so as to increase their effectiveness in driving the aircraft.
A method for wireless communication, performed by an access point, AP, and comprising: identifying a number of space-time-streams for transmission of null data packet, NDP, information in a set of tones to a station, STA, , the NDP information comprising a long training field, LTF, section that comprises orthogonal frequency division multiplexing, OFDM, symbols; determining that the number of space-time-streams is greater than a threshold number of streams, wherein the threshold number of streams is based on a capability of the STA ; transmitting , to the STA , a first subset of the NDP information corresponding to a first subset of antennas (425-a), wherein a number of the first subset of antennas (425-a) is less than or equal to the threshold number of streams; transmitting , to the STA , a second subset of the NDP information corresponding to a second subset of antennas (425-b), wherein a number of the second subset of antennas (425-b) is less than or equal to the threshold number of streams; and transmitting, to an additional STA which supports the identified number of space-time streams, the NDP information via the identified number of space-time-streams using a superset of antennas comprising the first subset of antennas (425-a) and the second subset of antennas (425-b). identifying a number of space-time-streams for transmission of null data packet, NDP, information in a set of tones to a station, STA, , the NDP information comprising a long training field, LTF, section that comprises orthogonal frequency division multiplexing, OFDM, symbols; determining that the number of space-time-streams is greater than a threshold number of streams, wherein the threshold number of streams is based on a capability of the STA ; transmitting , to the STA , a first subset of the NDP information corresponding to a first subset of antennas (425-a), wherein a number of the first subset of antennas (425-a) is less than or equal to the threshold number of streams; transmitting , to the STA , a second subset of the NDP information corresponding to a second subset of antennas (425-b), wherein a number of the second subset of antennas (425-b) is less than or equal to the threshold number of streams; and transmitting, to an additional STA which supports the identified number of space-time streams, the NDP information via the identified number of space-time-streams using a superset of antennas comprising the first subset of antennas (425-a) and the second subset of antennas (425-b).
A method for approaching an aligned relative position between a camera or a scanning apparatus and a dental reference element , especially via app on a smartphone, for acquiring the dental reference element , such as a mini color key , characterized - in that a marker is attached to the dental reference element , and/or in that at least part of the dental reference element is used as a marker , - in that a template congruent with or mathematically similar to the marker is superimposed on a display apparatus of the camera or scanning apparatus, and - in that for approaching the aligned relative position between the camera or the scanning apparatus and the dental reference element, a change in the degree of coverage of the template and the marker or the one part of the dental reference element is detected. - in that a marker is attached to the dental reference element , and/or in that at least part of the dental reference element is used as a marker , - in that a template congruent with or mathematically similar to the marker is superimposed on a display apparatus of the camera or scanning apparatus, and - in that for approaching the aligned relative position between the camera or the scanning apparatus and the dental reference element, a change in the degree of coverage of the template and the marker or the one part of the dental reference element is detected.
A fungicidal composition comprising a mixture of components (A) and (B) as active ingredients, wherein component (A) is the compound of formula (I): or an agrochemically acceptable salt, N-oxide, diastereoisomer, enantiomer or tautomer thereof; and component (B) is pydiflumetofen, wherein the weight ratio of component (A) to (B) is from 50:1 to 1:5. or an agrochemically acceptable salt, N-oxide, diastereoisomer, enantiomer or tautomer thereof; and component (B) is pydiflumetofen, wherein the weight ratio of component (A) to (B) is from 50:1 to 1:5.
A method for preserving a sample of a set of aerobic and anaerobic bacteria other than lactic acid bacteria, in particular intestinal microbiota bacteria, said method comprising the following successive steps, wherein: a) said sample of a set of said bacteria is prepared by means of dilution in an aqueous preservation medium comprising a combination of protective agents consisting of (a1) a combination of antioxidant compounds chosen from ascorbic acid, uric acid and glutathione and (a2) at least two different sugar consisting of sucrose and trehalose, and (a3) milk proteins, and b) freezing said sample recovered in step a) in liquid nitrogen at approximately -196°C for no more than two minutes, preferably for 30 to 50 seconds, and c) carrying out lyophilisation of said sample frozen in this way, in order to obtain a lyophilisate. a) said sample of a set of said bacteria is prepared by means of dilution in an aqueous preservation medium comprising a combination of protective agents consisting of (a1) a combination of antioxidant compounds chosen from ascorbic acid, uric acid and glutathione and (a2) at least two different sugar consisting of sucrose and trehalose, and (a3) milk proteins, and b) freezing said sample recovered in step a) in liquid nitrogen at approximately -196°C for no more than two minutes, preferably for 30 to 50 seconds, and c) carrying out lyophilisation of said sample frozen in this way, in order to obtain a lyophilisate.
A method for detecting sperm DNA fragmentation (SDF) in a semen sample from a human subject, comprising: (a) embedding the semen sample containing sperm cells in a gel comprising acrylamide, acrylic acid, methacrylic acid, N-isopropylacrylamide (NIPAM), or alginate, to obtain a sperm cells-embedded gel, wherein the gel has a pore size from 3 nm to 9 nm; (b) treating the sperm cells-embedded gel with a lysis solution to lyse the nuclear proteins of the sperm cells embedded in the gel; (c) subjecting the treated gel in step (b) to DNA staining; and (d) observing the presence or the absence of a halo formation around a head of each sperm cell, wherein the presence of halo formation is indicative of the presence of SDF. (a) embedding the semen sample containing sperm cells in a gel comprising acrylamide, acrylic acid, methacrylic acid, N-isopropylacrylamide (NIPAM), or alginate, to obtain a sperm cells-embedded gel, wherein the gel has a pore size from 3 nm to 9 nm; (b) treating the sperm cells-embedded gel with a lysis solution to lyse the nuclear proteins of the sperm cells embedded in the gel; (c) subjecting the treated gel in step (b) to DNA staining; and (d) observing the presence or the absence of a halo formation around a head of each sperm cell, wherein the presence of halo formation is indicative of the presence of SDF.
A woven textile comprising: a first woven zone comprising a first woven layer and a second woven layer , a surface of the second woven layer positioned adjacent to a surface of the first woven layer to define a space between the first woven layer and the second woven layer ; and a second woven zone having a plurality of apertures , each aperture of the plurality of apertures located at a center of a repeating pattern of interlacings, characterized in that the repeating pattern of interlacings comprises: a first quadrant having at least one float on a first face of the woven textile, the at least one float formed from a first filling yarn, a second quadrant having at least one float on the first face formed from a first warp yarn, a third quadrant having at least one float on the first face formed from a second filling yarn, and a fourth quadrant having at least one float on the first face formed from a second warp yarn, wherein the first quadrant and the third quadrant are positioned diagonal with respect to one another and are separated by a respective aperture of the plurality of apertures , and wherein the second quadrant and the fourth quadrant are positioned diagonal with respect to one another and are separated by the respective aperture of the plurality of apertures ; wherein the first and second woven zones are integrally woven such that the second woven zone shares at least one common warp yarn with the first woven zone ; and wherein a float is a yarn that crosses over more than one yarn at a time before changing position to the other side or face of the textile. wherein the first and second woven zones are integrally woven such that the second woven zone shares at least one common warp yarn with the first woven zone ; and wherein a float is a yarn that crosses over more than one yarn at a time before changing position to the other side or face of the textile.
Annular rotating bezel system intended to be rotatably mounted on a middle part of a watch case inside which is housed a timepiece movement which extends in a plane, including a rotating bezel , a toothed ring having a toothing provided with a plurality of teeth regularly distributed over an edge of the toothed ring , and a spring ring which extends in a plane in which it is capable of deforming elastically along a radius, the spring ring cooperating elastically with the toothed ring , said toothed ring and said spring ring being held in an axial direction perpendicular to the plane of the movement in the bezel , either the toothed ring or the spring ring being arranged to be angularly joined to the rotating bezel , and the other being arranged to be angularly joined to the case middle , the spring ring including at least two lugs (40; 40a-40c), each lug (40; 40a-40c) being configured to be elastically and radially engaged with the toothing of the toothed ring in at least one position of the bezel ; characterized in that said at least two lugs (40; 40a.40c) are offset from each other by an offset angle (θ a , θ b , θ c ), the or each offset angle (θ a , θ b , θ c ) between two successive lugs having a value different from an integer sub-multiple of 360 degrees, such that, in each position of the bezel , only one lug (40 40a-40c) is elastically and radially engaged with the toothing of the toothed ring .
A fermentation medium comprising a basal medium and a chelating agent having the formula (I) R 1 -CH(COOX 1 )-N(CH 2 COOX 1 ) 2 wherein R 1 is methyl, X 1 is (M x H 1-x ), M being a monovalent cation, preferably being selected from ammonium or alkali metal or combinations of at least two of the foregoing and x being in the range of from zero to 1, wherein x is an average value. R 1 is methyl, X 1 is (M x H 1-x ), M being a monovalent cation, preferably being selected from ammonium or alkali metal or combinations of at least two of the foregoing and x being in the range of from zero to 1, wherein x is an average value.
A charging system for charging a battery of an electric vehicle, comprising: a charging inlet configured to be connected to an external direct current (DC) charging station providing a predefined charging inlet voltage, a battery having a nominal voltage of 400V or 800V connected to the charging inlet , the battery comprising two 400V-battery units , the two 400V-battery units being selectively connected in parallel or in series, and a voltage outlet , the voltage outlet being configured to supply an output voltage to at least one auxiliary component connected to the voltage outlet , the at least one auxiliary component having a nominal voltage corresponding to the nominal voltage of the battery , a DC/DC converter configured to convert the charging inlet voltage into the nominal voltage of the at least one auxiliary component , and at least three circuit breakers being arranged to connect the two 400V-battery units to form a charging circuit having a nominal charging voltage corresponding to the supplied charging inlet voltage and to selectively integrate the DC/DC converter into the charging circuit to provide the at least one auxiliary component with the nominal voltage of the auxiliary components during charging. a charging inlet configured to be connected to an external direct current (DC) charging station providing a predefined charging inlet voltage, a battery having a nominal voltage of 400V or 800V connected to the charging inlet , the battery comprising two 400V-battery units , the two 400V-battery units being selectively connected in parallel or in series, and a voltage outlet , the voltage outlet being configured to supply an output voltage to at least one auxiliary component connected to the voltage outlet , the at least one auxiliary component having a nominal voltage corresponding to the nominal voltage of the battery , two 400V-battery units , the two 400V-battery units being selectively connected in parallel or in series, and a voltage outlet , the voltage outlet being configured to supply an output voltage to at least one auxiliary component connected to the voltage outlet , the at least one auxiliary component having a nominal voltage corresponding to the nominal voltage of the battery , a DC/DC converter configured to convert the charging inlet voltage into the nominal voltage of the at least one auxiliary component , and at least three circuit breakers being arranged to connect the two 400V-battery units to form a charging circuit having a nominal charging voltage corresponding to the supplied charging inlet voltage and to selectively integrate the DC/DC converter into the charging circuit to provide the at least one auxiliary component with the nominal voltage of the auxiliary components during charging.
Decoder configured to decode a multi-layered video signal composed of a sequence of packets each of which comprises a layer identification syntax element , wherein the decoder is configured to, depending on a signaling (808; 808') for layer-identification extension activation in the multi-layered video signal, if the signaling (808; 808') signals a layer-identification extension activation, read , for a predetermined packet , a layer-identification extension syntax element from the multi- layered video signal and determine a layer-identification index of the predetermined packet using the layer-identification extension syntax element , and if the signaling (808; 808') signals no layer-identification extension activation, determine , for the predetermined packet , the layer-identification index of the predetermined packet from the layer-identification syntax element comprised by the predetermined packet, wherein the layer-identification syntax element and a high-level syntax element at least contribute to the signaling (808; 808') and wherein the decoder is configured to determine that the signaling signals the layer-identification extension activation for the predetermined packet if both the high level syntax element assumes a second state different from a first state, and the layer-identification syntax element of the predetermined packet assumes an escape value, and determine that the signaling signals no layer-identification extension activation, if one of the high-level syntax element assuming the first state and the layer-identification element assuming a value different from the escape value, applies. determine that the signaling signals the layer-identification extension activation for the predetermined packet if both the high level syntax element assumes a second state different from a first state, and the layer-identification syntax element of the predetermined packet assumes an escape value, and determine that the signaling signals no layer-identification extension activation, if one of the high-level syntax element assuming the first state and the layer-identification element assuming a value different from the escape value, applies.
A method of manufacturing a solar cell, the method comprising: forming a conductive region on a semiconductor substrate (ST20); forming an electrode (ST40) connected to the conductive region; and post-processing (ST50) the semiconductor substrate to passivate the semiconductor substrate, wherein the post-processing (ST50) of the semiconductor substrate comprises a main processing process (ST56) for heat-treating the semiconductor substrate while providing light to the semiconductor substrate, and wherein a temperature of the main processing (ST56) is 100°C to 800°C, and the temperature and light intensity of the main processing process satisfy Equation 1, 1750 − 31.8 ⋅ T + 0.16 ⋅ T 2 ≤ I where T is the temperature (°C) of the main processing process, and I is the light intensity(mW/cm 2 ) of the main processing process, and wherein the main processing process (ST56) is performed after the forming of the electrode (ST40), wherein the method further comprises performing a hydrogen diffusion process for diffusing hydrogen into an inside of the semiconductor substrate, before the main processing process. forming a conductive region on a semiconductor substrate (ST20); forming an electrode (ST40) connected to the conductive region; and post-processing (ST50) the semiconductor substrate to passivate the semiconductor substrate, wherein the post-processing (ST50) of the semiconductor substrate comprises a main processing process (ST56) for heat-treating the semiconductor substrate while providing light to the semiconductor substrate, and wherein a temperature of the main processing (ST56) is 100°C to 800°C, and the temperature and light intensity of the main processing process satisfy Equation 1, 1750 − 31.8 ⋅ T + 0.16 ⋅ T 2 ≤ I where T is the temperature (°C) of the main processing process, and I is the light intensity(mW/cm 2 ) of the main processing process, and wherein the main processing process (ST56) is performed after the forming of the electrode (ST40), wherein the method further comprises performing a hydrogen diffusion process for diffusing hydrogen into an inside of the semiconductor substrate, before the main processing process.
An image display device comprising: an image forming device including a light source which comprises a semiconductor laser element; an optical device configured to receive incident light output from the image forming device and output the incident light, the optical device comprising a diffraction grating member; a light receiving device configured to detect light output from the image forming device and diffracted by the diffraction grating member; and a control device , characterized in that an operation of the image forming device is controlled based on a detection result of the light receiving device, and wherein the control device is configured to control the wavelength of light output from the semiconductor laser element based on the detection result of the light receiving device by shifting the wavelength of light output from the semiconductor laser element to compensate for a change in the wavelength of light output from the semiconductor laser element caused by an increase in temperature of the semiconductor laser element. an image forming device including a light source which comprises a semiconductor laser element; an optical device configured to receive incident light output from the image forming device and output the incident light, the optical device comprising a diffraction grating member; a light receiving device configured to detect light output from the image forming device and diffracted by the diffraction grating member; and a control device , characterized in that an operation of the image forming device is controlled based on a detection result of the light receiving device, and wherein the control device is configured to control the wavelength of light output from the semiconductor laser element based on the detection result of the light receiving device by shifting the wavelength of light output from the semiconductor laser element to compensate for a change in the wavelength of light output from the semiconductor laser element caused by an increase in temperature of the semiconductor laser element.