mhurhangee/ep-ind-claims huggingface dataset:
A compound as shown in formula I or formula II or a pharmaceutically acceptable salt thereof: wherein R 1 is selected from pyrazinyl or substituted pyrazinyl; wherein R 2 is selected from pyrazinyl or substituted pyrazinyl, or substituted phenyl, alkyl or substituted alkyl, when the R 2 is substituted pyrazinyl, the compound as shown in the formula II is when the R 2 is substituted phenyl, the compound as shown in the formula II is
Method of installing a fan system in a clean room having a plurality of fans, each of which is assigned a unique identification address, comprising the following steps: a. Positioning the fans and at least one MESH access point connected wirelessly or by wire to a control and operating unit in such a way that a transmission and receiving range of one of the fans lies within the transmission and receiving range of a further fan or within the MESH transmission and reception range of the MESH access point, b. Connecting the fans and the MESH access point, and c. Identifying and localizing the individual fans in the network by means of their identification address using a control and operating device, wherein before placement or after placement, the positions of the fans and of the at least one MESH access point are adjusted and/or checked by the following steps: - interrogating a first transmission strength of a MESH connection between one of the fans to the nearest MESH access point, and - interrogating a second transmission strength of a connection of one of the fans to the neighboring fan, and - aligning the fans and the MESH access point in such a way that the first transmission strength and the second transmission strength are maximized with a minimized number of fans required for the fan system. a. Positioning the fans and at least one MESH access point connected wirelessly or by wire to a control and operating unit in such a way that a transmission and receiving range of one of the fans lies within the transmission and receiving range of a further fan or within the MESH transmission and reception range of the MESH access point, b. Connecting the fans and the MESH access point, and c. Identifying and localizing the individual fans in the network by means of their identification address using a control and operating device, - interrogating a first transmission strength of a MESH connection between one of the fans to the nearest MESH access point, and - interrogating a second transmission strength of a connection of one of the fans to the neighboring fan, and - aligning the fans and the MESH access point in such a way that the first transmission strength and the second transmission strength are maximized with a minimized number of fans required for the fan system.
An ink set, comprising: a colored ink including an organic solvent A1, a polymer C1 that does not have a polymerizable group, and a colorant, the colored ink including the organic solvent A1 at a content of 30% by mass or more with respect to the total amount of the colored ink; and a clear ink including an organic solvent A2 and a bifunctional or higher-functional (meth)acrylate compound X2 having a weight average molecular weight of 1,000 to 30,000, the clear ink including the organic solvent A2 at a content of 30% by mass or more with respect to the total amount of the clear ink and including the (meth)acrylate compound X2 at a content of 5% by mass or more with respect to the total amount of the clear ink, wherein the solubility at 25°C of the polymer C1 in the organic solvent A2 is 10% by mass or higher, and wherein the colored ink further includes a bifunctional or higher-functional (meth)acrylate compound X1 having a weight average molecular weight of 1,000 to 30,000. a colored ink including an organic solvent A1, a polymer C1 that does not have a polymerizable group, and a colorant, the colored ink including the organic solvent A1 at a content of 30% by mass or more with respect to the total amount of the colored ink; and a clear ink including an organic solvent A2 and a bifunctional or higher-functional (meth)acrylate compound X2 having a weight average molecular weight of 1,000 to 30,000, the clear ink including the organic solvent A2 at a content of 30% by mass or more with respect to the total amount of the clear ink and including the (meth)acrylate compound X2 at a content of 5% by mass or more with respect to the total amount of the clear ink, wherein the solubility at 25°C of the polymer C1 in the organic solvent A2 is 10% by mass or higher, and wherein the colored ink further includes a bifunctional or higher-functional (meth)acrylate compound X1 having a weight average molecular weight of 1,000 to 30,000.
A method of imaging a microscopic object comprising: arranging a microscopic object associated with at least a first and a second semiconductor nanocrystal in the optical field of an optical microscope; wherein at least one of the semiconductor nanocrystals has an affinity for a biological structure; recording a first fluorescence image of the first and second semiconductor nanocrystals at a first focal depth; recording a second fluorescence image of the first and second semiconductor nanocrystals at a second focal depth different from the first focal depth; and calculating the relative depths of the first and second semiconductor nanocrystals based at least in part on the first and second fluorescence images; wherein calculating the relative depths of the first and second semiconductor nanocrystals includes measuring a radius of the first semiconductor nanocrystal as it appears in each of the first and second fluorescence images; wherein measuring the radius includes determining a radial intensity profile by, at each radius, integrating the image intensity as a function of angle over all angles defining the perimeter of a circle at the radius and determining the outermost radius r 0 from the radial intensity profile. arranging a microscopic object associated with at least a first and a second semiconductor nanocrystal in the optical field of an optical microscope; wherein at least one of the semiconductor nanocrystals has an affinity for a biological structure; recording a first fluorescence image of the first and second semiconductor nanocrystals at a first focal depth; recording a second fluorescence image of the first and second semiconductor nanocrystals at a second focal depth different from the first focal depth; and calculating the relative depths of the first and second semiconductor nanocrystals based at least in part on the first and second fluorescence images; wherein calculating the relative depths of the first and second semiconductor nanocrystals includes measuring a radius of the first semiconductor nanocrystal as it appears in each of the first and second fluorescence images; wherein measuring the radius includes determining a radial intensity profile by, at each radius, integrating the image intensity as a function of angle over all angles defining the perimeter of a circle at the radius and determining the outermost radius r 0 from the radial intensity profile.
Floor covering of the type comprising non-slip particles in its surface layer characterised in that the covering is made from a flexible and resilient material, and in that said particles are formed by a crushed glass core, the surface of which is fully or partially covered with a metal covering, the said particles being sprinkled in a flexible PVC base with no finishing work.
A catalytic process for producing an organohalosilane monomer composition from a high- boiling residue, said process comprising heating the high-boiling residue in the presence of a catalyst comprising one or more heterocyclic amines and/or one or more heterocyclic ammonium halides, and one or more quaternary Group 15 onium compounds, optionally in the presence of an organohalide and/or a hydrogen halide and/or an inert gas, at a temperature within the range of about 75 °C to about 300 °C under atmospheric pressure or superatmospheric pressure to convert the high-boiling residue to an organohalosilane monomer composition containing at least one organohalosilane monomer having a general formula selected from the group consisting of R 1 SiHX 2, R 12 SiHX, R 12 SiX 2 and R 13 SiX, R 1 being an aromatic, aliphatic, alkaryl or cycloaliphatic univalent hydrocarbyl group, X being a halogen atom selected from the group consisting of fluorine, chlorine, bromine, and iodine, and optionally recovering the catalyst, wherein the high-boiling residue comprises an uncleavable component containing at least one of tetraorganodihalodisilanes and optionally one or more compounds selected from carbosilanes, organohalopolysilanes, hexaorganodisilanes, and pentaorganohalodisilanes; and optionally a cleavable component containing at least one of diorganotetrahalodisilanes and triorganotrihalodisilanes with the proviso that if present, the cleavable component has a concentration less than that of the uncleavable component; and wherein the quaternary Group 15 onium compound is of the general formula, R 4 Q + X -, wherein each R is independently an alkyl, cycloalkyl, aryl or alkaryl group of from 1 to 30 carbon atoms, Q is phosphorus, arsenic, antimony and bismuth, and X is a halide selected from the group consisting of F, Cl, Br or I. heating the high-boiling residue in the presence of a catalyst comprising one or more heterocyclic amines and/or one or more heterocyclic ammonium halides, and one or more quaternary Group 15 onium compounds, optionally in the presence of an organohalide and/or a hydrogen halide and/or an inert gas, at a temperature within the range of about 75 °C to about 300 °C under atmospheric pressure or superatmospheric pressure to convert the high-boiling residue to an organohalosilane monomer composition containing at least one organohalosilane monomer having a general formula selected from the group consisting of R 1 SiHX 2, R 12 SiHX, R 12 SiX 2 and R 13 SiX, R 1 being an aromatic, aliphatic, alkaryl or cycloaliphatic univalent hydrocarbyl group, X being a halogen atom selected from the group consisting of fluorine, chlorine, bromine, and iodine, and optionally recovering the catalyst,
Acentrifugal fan comprising: a circular main plate driven and rotated by a motor rotary shaft; a plurality of blades fixed to an outer circumferential portion of the main plate and spaced apart at predetermined intervals in a circumferential direction of the main plate; and a side plate attached to a ends of blades opposite to the main plate, an air inlet port being formed at a center of the side plate, the side plate inclining outward in a centrifugal direction from the air inlet port, the side plate having an arcuate cross section with a predetermined radius of curvature, the centrifugal fan being characterized in that a portion of each blade is bent such that, in a plane including the motor rotary shaft, each blade is joined to the arcuate surface of the side plate in such a manner that a midline of the blade extending from the main plate to the side plate is substantially perpendicular to a tangential line of the arcuate surface of the side plate, the blade being joined to an arcuate surface of the side plate with the bent portion, thereby forming a dead water region reducing space between the blade and the side plate. a circular main plate driven and rotated by a motor rotary shaft; a plurality of blades fixed to an outer circumferential portion of the main plate and spaced apart at predetermined intervals in a circumferential direction of the main plate; and a side plate attached to a ends of blades opposite to the main plate, an air inlet port being formed at a center of the side plate, the side plate inclining outward in a centrifugal direction from the air inlet port, the side plate having an arcuate cross section with a predetermined radius of curvature,
Laundry treatment cabinet with a useable space for receiving laundry, wherein the useable space is limited at the top by a ceiling, ventilation holes in the ceiling, air conveying means for blowing process air from above through the ventilation holes into the useable space in order to generate an air flow in the useable space directed from top to bottom, at least one clothes hanger with a neck area, suspension means arranged at the neck area and shoulder supports projecting laterally from the neck area, and fastening means arranged in the useable space, on which the clothes hanger can be suspended in a using position with the suspension means, characterised in that the clothes hanger has in the neck area at least one neck opening passing through the clothes hanger from top to bottom, wherein at least the neck area of the clothes hanger suspended in the using position is located in the air flow in such a way that the at least one neck opening in the neck area can be flowed through by the air entering the useable space from above through the ventilation holes.
A stretching-bending-straightening system, comprising - a feed means for feeding a strip-shaped material in a movement direction into a high-tension region and a low-tension region, wherein the low-tension region is arranged downstream of the high-tension region in the movement direction, - a bending-straightening apparatus, which is situated in the high-tension region, - at least one measuring system for determining first measured values in the high-tension region, - a controller, which is intended and suitable for determining a deviation of the first measured values from a predefined or predefinable desired value of the bending-straightening result and for determining at least one manipulated variable for the bending-straightening apparatus depending on the determined deviation within a first closed control loop, - an adjustment means for influencing the manipulated variable, - wherein there is provided in addition at least one measuring system for determining second measured values in the low-tension region, characterized in that a controller is intended and suitable for determining a deviation of the second measured values from the predefined or predefinable desired value of the bending-straightening result and for determining the at least one manipulated variable depending on the determined deviation within a second closed control loop, and in that selection means are provided that are intended and suitable for selecting the first or the second closed control loop in order to reduce the deviation of the first and/or second measured values from the predefined or predefinable desired value. - a feed means for feeding a strip-shaped material in a movement direction into a high-tension region and a low-tension region, wherein the low-tension region is arranged downstream of the high-tension region in the movement direction, - a bending-straightening apparatus, which is situated in the high-tension region, - at least one measuring system for determining first measured values in the high-tension region, - a controller, which is intended and suitable for determining a deviation of the first measured values from a predefined or predefinable desired value of the bending-straightening result and for determining at least one manipulated variable for the bending-straightening apparatus depending on the determined deviation within a first closed control loop, - an adjustment means for influencing the manipulated variable, - wherein there is provided in addition at least one measuring system for determining second measured values in the low-tension region,
An electrode assembly having a laminate structure comprising: a first insulating capping layer; a first conducting layer capped by the first insulating capping layer and substantially sandwiched by at least the first insulating capping layer such as to leave exposed only an electrical contact lip (5, 5a, 5b) of the first conducting layer; and an array of etched voids extending through at least the first insulating capping layer and the first conducting layer, wherein each void is partly bound by a surface of the first conducting layer which acts as an internal submicron electrode, wherein the thickness of the conducting layer is in the range of an atomic thickness to 0.99 microns, the depth of the internal submicron electrode is 0.05 to 10 microns, the etch depth of each void is 0.05 to 100 microns, the lateral dimension of each void is 10 to 100 microns and the array has a pitch in the range 10 to 1000 microns. a first insulating capping layer; a first conducting layer capped by the first insulating capping layer and substantially sandwiched by at least the first insulating capping layer such as to leave exposed only an electrical contact lip (5, 5a, 5b) of the first conducting layer; and an array of etched voids extending through at least the first insulating capping layer and the first conducting layer, wherein each void is partly bound by a surface of the first conducting layer which acts as an internal submicron electrode,
Cookware comprising a vessel and a handle (20,22) being attached to said vessel in a foldable manner by means of a joint mechanism (10,11,12,21,23), said joint mechanism (10,11,12,21,23) comprising a ball joint (12,21,23) which is configured to allow both a rotating and tilting movement of the handle (20,22) in relation to the vessel, and said ball joint (12,21,23) comprising an operating unit for locking and unlocking the handle (20,22), characterized in that the operating unit comprises an operating element (31a,31b) being slideably arranged in a housing (21,23) of the ball joint.
An electrosurgical generator comprising: an RF output stage adapted to supply electrosurgical energy to tissue; an electrosurgical instrument including at least one active electrode adapted to apply electrosurgical energy to tissue; impedance sensing circuitry which measures impedance of tissue; characterised by: a microprocessor configured to determine whether tissue reaction has occurred as a function of a minimum impedance value and a predetermined rise in impedance, wherein tissue reaction corresponds to a boiling point of tissue fluid, the microprocessor being configured to generate a target impedance trajectory as a function of measured impedance and desired rate of change based on the tissue reaction determination, wherein the target impedance trajectory includes a plurality of target impedance values. an RF output stage adapted to supply electrosurgical energy to tissue; an electrosurgical instrument including at least one active electrode adapted to apply electrosurgical energy to tissue; impedance sensing circuitry which measures impedance of tissue; characterised by: a microprocessor configured to determine whether tissue reaction has occurred as a function of a minimum impedance value and a predetermined rise in impedance, wherein tissue reaction corresponds to a boiling point of tissue fluid, the microprocessor being configured to generate a target impedance trajectory as a function of measured impedance and desired rate of change based on the tissue reaction determination, wherein the target impedance trajectory includes a plurality of target impedance values. a microprocessor configured to determine whether tissue reaction has occurred as a function of a minimum impedance value and a predetermined rise in impedance, wherein tissue reaction corresponds to a boiling point of tissue fluid, the microprocessor being configured to generate a target impedance trajectory as a function of measured impedance and desired rate of change based on the tissue reaction determination, wherein the target impedance trajectory includes a plurality of target impedance values.
A display device, comprising: a display panel including a substrate; and a base film positioned on one surface of the display panel, wherein the base film includes a first layer and a second layer overlapping each other, and a metal layer positioned between the first layer and the second layer, a Young's modulus of each of the first layer and the second layer is from 1 GPa to 10 GPa, and characterized in that a thickness of the metal layer is greater than a sum of thicknesses of the first layer and the second layer. a display panel including a substrate; and a base film positioned on one surface of the display panel, wherein the base film includes a first layer and a second layer overlapping each other, and a metal layer positioned between the first layer and the second layer, a Young's modulus of each of the first layer and the second layer is from 1 GPa to 10 GPa, and characterized in that a thickness of the metal layer is greater than a sum of thicknesses of the first layer and the second layer.
Vehicle for preparing ski slopes, characterized in that it comprises a snow removal device comprising: - two rotary sweepers (5A, 5B) and - a means for evacuating the snow that has accumulated between the two rotary sweepers (5A, 5B), a first rotary sweeper comprising a first axis of rotation, a second rotary sweeper comprising a second axis of rotation, the first axis of rotation forming a first, non-zero angle (β1) with the second axis of rotation. - two rotary sweepers (5A, 5B) and - a means for evacuating the snow that has accumulated between the two rotary sweepers (5A, 5B),
An inkjet printer that prints print items on printing objects being conveyed, comprising: a plurality of printing nozzles (401, 411); and a common main control unit that controls printing with the plurality of printing nozzles (401, 411); characterized in that the main control unit is provided with a deriving function to derive a relationship between times and print items that have been set and a relationship between times that are printed with each of the plurality of printing nozzles (401, 411) and the print items, and a correcting function to correct print data of the print items to maintain the relationship between times and the print items that have been set. a plurality of printing nozzles (401, 411); and a common main control unit that controls printing with the plurality of printing nozzles (401, 411); characterized in that the main control unit is provided with a deriving function to derive a relationship between times and print items that have been set and a relationship between times that are printed with each of the plurality of printing nozzles (401, 411) and the print items, and a correcting function to correct print data of the print items to maintain the relationship between times and the print items that have been set.
A computer-implemented method of seismic imaging, comprising: a. receiving training pairs of low signal-to-noise ratio 3D seismic images and high signal-to-noise ratio 3D seismic images; b. training a neural network on the training pairs wherein the training uses atrous convolution; c. receiving a seismic image representative of a subsurface volume of interest; d. applying the neural network to the seismic image to generate a second seismic image; and e. displaying the second seismic image on a graphical user interface, wherein: the atrous convolution uses varying rectangular atrous rates instead of equal atrous rates in all dimensions. a. receiving training pairs of low signal-to-noise ratio 3D seismic images and high signal-to-noise ratio 3D seismic images; b. training a neural network on the training pairs wherein the training uses atrous convolution; c. receiving a seismic image representative of a subsurface volume of interest; d. applying the neural network to the seismic image to generate a second seismic image; and e. displaying the second seismic image on a graphical user interface,