mhurhangee/ep-ind-claims huggingface dataset:
A selective hydrodesulfurization catalyst comprising: a calcined catalyst particle made by calcining a shaped particle of a mixture comprising an inorganic oxide support material, molybdenum trioxide, and a nickel compound at a calcination temperature in the range of from 538 °C to 871 °C to provide a calcined shaped particle; overlaying said calcined shaped particle with a cobalt compound and a molybdenum compound by impregnation procedures selected from spray impregnation, soaking, multi-dip procedures and incipient wetness impregnation methods with an impregnating solution containing a molybdenum compound and a cobalt compound and a material absence of nickel; and further calcining the impregnated calcined shaped particle at a calcination temperature in the range of from 371 °C to 648 °C to produce a calcined catalyst particle, wherein the calcined catalyst particle has less than 1.0 wt% of impregnated nickel on the catalyst surface and the majority of non-impregnated nickel is uniformly dispersed in the organic oxide support material, and wherein said calcined catalyst particle has a bimodal pore size distribution with at least 20 % of the total pore volume being in pores having a diameter less than 250 angstroms and at least 10% of the total pore volume being in pores having a diameter greater than 1000 angstroms as determined by mercury intrusion porosimetry.
A cannula (120, 200) for passing a tissue graft through soft tissue, the cannula (120, 200) comprising: an elongated body including oppositely disposed first (124, 204) and second ends (126, 206) and an axis (122, 202) that extends between the first (124, 204) and second ends (126, 206), the elongated body further including a passage (136, 218) extending between the first (124, 204) and second ends (126, 206); wherein the second end (126, 206) includes a curved portion (128, 214) that terminates at a sharpened, pointed tip configured to pierce and/or cut soft tissue at the surgical repair site; wherein the tip is axially offset from the axis (122, 202) of the elongated body at an angle that is less than 180°; and wherein the first end (124, 204) of the elongated body has a circular or oblong cross-section, the elongated body has a rectangular cross-section, and the second end (126, 206) has a circular cross-section. an elongated body including oppositely disposed first (124, 204) and second ends (126, 206) and an axis (122, 202) that extends between the first (124, 204) and second ends (126, 206), the elongated body further including a passage (136, 218) extending between the first (124, 204) and second ends (126, 206); wherein the second end (126, 206) includes a curved portion (128, 214) that terminates at a sharpened, pointed tip configured to pierce and/or cut soft tissue at the surgical repair site; wherein the tip is axially offset from the axis (122, 202) of the elongated body at an angle that is less than 180°; and wherein the first end (124, 204) of the elongated body has a circular or oblong cross-section, the elongated body has a rectangular cross-section, and the second end (126, 206) has a circular cross-section.
Method of controlling a headlight system of a motor vehicle, comprising at least one headlight with an illumination range changeable in the local light intensity, characterised in that to scan the environment of the motor vehicle, with at least one environment sensor recording the reflection of at least one actively emitted signal, measuring data are recorded, wherein the signal is emitted by an environment sensor of the environment sensor system, from the measuring data reflectivity information describing the reflectivity of at least object located in the environment of the motor vehicle is determined and the local light intensity of the headlight system is adapted taking the reflectivity information into account, wherein an environment model containing the reflectivity information is used, whereby positions and/or objects in the environment model are assigned a reflection coefficient as reflectivity information.
An isolated variant polypeptide having glycoside hydrolase activity, which has a degree of identity to amino acids 1 to 513 of SEQ ID NO: 2 of at least 70%, preferably at least 75%, more preferably at least 80%, more preferably at least 85%, even more preferably at least 90%, most preferably at least 95%, and even most preferably at least 97%, wherein the amino acid sequence of the polypeptide differs from SEQ ID NO: 2 in at least one position corresponding to position 373 of amino acids 1 to 513 of SEQ ID NO: 2, wherein the difference in at least one position is a substitution in position 373 and the variant has improved properties compared to the parent glycoside hydrolase, wherein the improved properties are selected from the group consisting of temperature-dependent activity profile, thermostability, pH activity, pH stability, and substrate specificity, product specificity, and chemical stability.
A cryostat for an electron paramagnetic resonance system having a pair of opposing magnets (306, 308), and that is configured to receive gaseous helium from a closed cycle cryocooler, the cryostat comprising: an elongated, cup-shaped sample well for thermal connection to the cryocooler to receive the gaseous helium; a sample stick assembly that holds a sample and is disposed in the sample well, characterized by a support mechanism for mechanical alignment of the sample stick assembly with the opposing magnets (306, 308); and a flexible rubber bellows connecting the sample stick assembly to the sample well so that vibration generated by the cryocooler is not transferred to the sample. an elongated, cup-shaped sample well for thermal connection to the cryocooler to receive the gaseous helium; a sample stick assembly that holds a sample and is disposed in the sample well,
A method of producing a recycled pulp fiber from a pulp fiber to be treated, the method including: a recycled pulp fiber forming step of forming the recycled pulp fiber having a hemicellulose content of less than 8.0mass% from the pulp fiber to be treated, by supplying an ozone-containing gas to a treatment tank containing a treatment liquid containing a pulp fiber-containing material containing the pulp fiber to be treated, wherein, in the recycled pulp fiber forming step, the recycled pulp fiber is formed by bringing the ozone-containing gas into contact with the pulp fiber-containing material so that a CT value, which is a product of an ozone concentration and a treatment time, is 8,000 to 11,000 ppm·min.
A method for establishing a wireless connection with an electronic device (210, 220, 240, 250) performed by glasses, the method comprising: obtaining, through a camera of the glasses, an image including the electronic device (210, 220, 240, 250) based on a direction of a user gaze, wherein the direction of the user gaze is determined by an eye-tracking camera of the glasses; determining whether the user gaze is maintained on the electronic device (210, 220, 240, 250) included in the image for a predetermined period of time; determining the electronic device (210, 220, 240, 250) to pair with based on the determination identifying iris information of a user based on an image of the eyes of the user wearing the glasses; performing authentication using the identified iris information; transmitting the iris information of the user to the electronic device (210, 220, 240, 250) for a user authentication by the electronic device (210, 220, 240, 250); controlling the glasses to pair with the electronic device (210, 220, 240, 250); and controlling the glasses to control the electronic device (210, 220, 240, 250) based on the user authentication by the electronic device (210, 220, 240, 250). obtaining, through a camera of the glasses, an image including the electronic device (210, 220, 240, 250) based on a direction of a user gaze, wherein the direction of the user gaze is determined by an eye-tracking camera of the glasses; determining whether the user gaze is maintained on the electronic device (210, 220, 240, 250) included in the image for a predetermined period of time; determining the electronic device (210, 220, 240, 250) to pair with based on the determination identifying iris information of a user based on an image of the eyes of the user wearing the glasses; performing authentication using the identified iris information; transmitting the iris information of the user to the electronic device (210, 220, 240, 250) for a user authentication by the electronic device (210, 220, 240, 250); controlling the glasses to pair with the electronic device (210, 220, 240, 250); and controlling the glasses to control the electronic device (210, 220, 240, 250) based on the user authentication by the electronic device (210, 220, 240, 250).
A magnetic drum comprising: a plurality of magnets (3, 3a) mounted along a circumferential direction on a holder (20, 30, 40, 50), the magnets (3, 3a) are disposed such that magnetic pole surfaces face each other along the circumferential direction on the holder (20, 30, 40, 50), the magnets (3, 3a) are engaged with the holder (20, 30, 40, 50) so as not to move in the circumferential direction and toward an outside, the magnet (3, 3a) and the holder (20, 30, 40, 50) are locked together by fitting of a recessed portion and a protrusion portion to each other, the recessed portion is a groove, and the groove is formed along a direction intersecting the circumferential direction of the holder (20, 30, 40, 50), and a direction in which the groove intersects with the circumferential direction of the holder (20, 30, 40, 50) is an axial direction of the holder (20, 30, 40, 50), characterized in that said recessed portion and said protrusion portion are configured so that the direction in which the magnet is inserted into the holder is the axial direction of the holder (20, 30, 40, 50). a plurality of magnets (3, 3a) mounted along a circumferential direction on a holder (20, 30, 40, 50), the magnets (3, 3a) are disposed such that magnetic pole surfaces face each other along the circumferential direction on the holder (20, 30, 40, 50), the magnets (3, 3a) are engaged with the holder (20, 30, 40, 50) so as not to move in the circumferential direction and toward an outside, the magnet (3, 3a) and the holder (20, 30, 40, 50) are locked together by fitting of a recessed portion and a protrusion portion to each other, the recessed portion is a groove, and the groove is formed along a direction intersecting the circumferential direction of the holder (20, 30, 40, 50), and a direction in which the groove intersects with the circumferential direction of the holder (20, 30, 40, 50) is an axial direction of the holder (20, 30, 40, 50), characterized in that said recessed portion and said protrusion portion are configured so that the direction in which the magnet is inserted into the holder is the axial direction of the holder (20, 30, 40, 50).
A computer-implemented method for processing seismic data recorded by receivers while exploring an underground formation, the method comprising: selecting a spatio-temporal block of data from the seismic data; said method being characterized in that it further comprises: estimating signal-to-noise ratios of data in the spatio-temporal block of data, for a signal that is coherent with first seismic waves used to explore the underground formation and a noise that is not coherent with the first seismic waves, by evaluating the strength or amplitude of energy coherent with a shot corresponding to said data with respect to the strength or amplitude of incoherent energy by dividing the former by the latter; determining data-domain weights associated to the data, the data-domain weights being determined based on the estimated signal-to-noise ratios; generating a model of the signal and/or a model of the noise using the data-domain weights; and creating an image of the underground formation using the model of the signal and/or the model of the noise. selecting a spatio-temporal block of data from the seismic data; said method being characterized in that it further comprises: estimating signal-to-noise ratios of data in the spatio-temporal block of data, for a signal that is coherent with first seismic waves used to explore the underground formation and a noise that is not coherent with the first seismic waves, by evaluating the strength or amplitude of energy coherent with a shot corresponding to said data with respect to the strength or amplitude of incoherent energy by dividing the former by the latter; determining data-domain weights associated to the data, the data-domain weights being determined based on the estimated signal-to-noise ratios; generating a model of the signal and/or a model of the noise using the data-domain weights; and creating an image of the underground formation using the model of the signal and/or the model of the noise. estimating signal-to-noise ratios of data in the spatio-temporal block of data, for a signal that is coherent with first seismic waves used to explore the underground formation and a noise that is not coherent with the first seismic waves, by evaluating the strength or amplitude of energy coherent with a shot corresponding to said data with respect to the strength or amplitude of incoherent energy by dividing the former by the latter; determining data-domain weights associated to the data, the data-domain weights being determined based on the estimated signal-to-noise ratios; generating a model of the signal and/or a model of the noise using the data-domain weights; and creating an image of the underground formation using the model of the signal and/or the model of the noise.
An anti-slip wrench-type tool having a wrench torque body and at least one engagement element, wherein the anti-slip wrench-type tool comprising: the wrench torque-tool body comprising a plurality of internal sidewalls, a first base, and a second base; each of the plurality of internal sidewalls comprising a first lateral edge, a second lateral edge, and a bracing surface; the engagement element comprising a first pair of grooves and a second pair of grooves; the plurality of internal sidewalls being radially distributed about a pivot axis of the wrench torque-tool body; the engagement element being laterally integrated into a specific sidewall from the plurality of internal sidewalls; the first pair of grooves and the second pair of grooves being positioned offset from each other along the bracing surface of the specific sidewall; the first pair of grooves and the second pair of grooves each comprising a primary cavity and a secondary cavity, the primary cavity and the secondary cavity traversing normal and into the bracing surface of the specific sidewall; the primary cavity and the secondary cavity traversing into the wrench torque-tool body from the first base to the second base; and the primary cavity from the first pair of grooves being positioned adjacent to the primary cavity from the second pair of grooves, characterized by the primary cavity and the secondary cavity intersecting each other at an intersection point, the intersection point being not collinear with the bracing surface of the specific sidewall the wrench torque-tool body comprising a plurality of internal sidewalls, a first base, and a second base; each of the plurality of internal sidewalls comprising a first lateral edge, a second lateral edge, and a bracing surface; the engagement element comprising a first pair of grooves and a second pair of grooves; the plurality of internal sidewalls being radially distributed about a pivot axis of the wrench torque-tool body; the engagement element being laterally integrated into a specific sidewall from the plurality of internal sidewalls; the first pair of grooves and the second pair of grooves being positioned offset from each other along the bracing surface of the specific sidewall; the first pair of grooves and the second pair of grooves each comprising a primary cavity and a secondary cavity, the primary cavity and the secondary cavity traversing normal and into the bracing surface of the specific sidewall; the primary cavity and the secondary cavity traversing into the wrench torque-tool body from the first base to the second base; and the primary cavity from the first pair of grooves being positioned adjacent to the primary cavity from the second pair of grooves,
A display device comprising: a substrate on which a pixel (Pa) and a transmissive area are located in a sensor area, the pixel (Pa) including a display element (OLED'), and wherein the transmissive area is an area capable of transmitting light or signals; a plurality of wirings on the substrate, the wirings being on one side of the transmissive area; a pixel electrode and an emission layer each included in the pixel (Pa); an opposite electrode on the emission layer and including an opening corresponding to the transmissive area; and a first metal layer overlapping the wirings, the first metal layer being below the wirings, wherein a lateral surface of the first metal layer has an inverse-tapered shape with respect to a top surface of the substrate. a substrate on which a pixel (Pa) and a transmissive area are located in a sensor area, the pixel (Pa) including a display element (OLED'), and wherein the transmissive area is an area capable of transmitting light or signals; a plurality of wirings on the substrate, the wirings being on one side of the transmissive area; a pixel electrode and an emission layer each included in the pixel (Pa); an opposite electrode on the emission layer and including an opening corresponding to the transmissive area; and a first metal layer overlapping the wirings, the first metal layer being below the wirings, wherein a lateral surface of the first metal layer has an inverse-tapered shape with respect to a top surface of the substrate.
A centralized power meter, comprising: M sample buffers (303-1,...,303-M), each configured to buffer samples respectively from at least one of N sources, and trigger a request for power calculation of the buffered samples in response to the buffered samples, the request having a corresponding priority; a switch, configured to route the requests from the M sample buffers (303-1,...,303-M) to at least one power calculation core; and the at least one power calculation core, each configured to retrieve the samples from the sample buffer in an order of their corresponding priorities, in response to the routed requests; and to perform power calculation of the retrieved samples, wherein N and M are integers; wherein M is greater than 1, and N is no less than M. M sample buffers (303-1,...,303-M), each configured to buffer samples respectively from at least one of N sources, and trigger a request for power calculation of the buffered samples in response to the buffered samples, the request having a corresponding priority; a switch, configured to route the requests from the M sample buffers (303-1,...,303-M) to at least one power calculation core; and the at least one power calculation core, each configured to retrieve the samples from the sample buffer in an order of their corresponding priorities, in response to the routed requests; and to perform power calculation of the retrieved samples, wherein N and M are integers; wherein M is greater than 1, and N is no less than M.
A network device, comprising: a receiving unit, configured to receive a scheduling grant message, wherein the scheduling grant message comprises at least two identifiers of at least two data packets and time-frequency resource information, each of the at least two identifiers of the at least two data packets being used to respectively mark one of the at least two data packets, and the time-frequency resource information is used to indicate a time domain resource and a frequency domain resource that are occupied for transmitting the at least two data packets; and a sending unit, configured to: when it is determined, according to the at least two identifiers of the at least two data packets, that all of the at least two data packets are stored in a buffer, send, according to the time-frequency resource information, all of the at least two data packets to user equipment on the time-frequency resource indicated by the time-frequency resource information, wherein the network device is further configured not to send any of the at least two data packets, when it is determined, according to the at least two identifiers of the at least two data packets, that at least one of the at least two data packets is not stored in the buffer. a receiving unit, configured to receive a scheduling grant message, wherein the scheduling grant message comprises at least two identifiers of at least two data packets and time-frequency resource information, each of the at least two identifiers of the at least two data packets being used to respectively mark one of the at least two data packets, and the time-frequency resource information is used to indicate a time domain resource and a frequency domain resource that are occupied for transmitting the at least two data packets; and a sending unit, configured to: when it is determined, according to the at least two identifiers of the at least two data packets, that all of the at least two data packets are stored in a buffer, send, according to the time-frequency resource information, all of the at least two data packets to user equipment on the time-frequency resource indicated by the time-frequency resource information, wherein the network device is further configured not to send any of the at least two data packets, when it is determined, according to the at least two identifiers of the at least two data packets, that at least one of the at least two data packets is not stored in the buffer.