mhurhangee/ep-ind-claims huggingface dataset:
A camera module configured to cooperate with a mounting bracket, the camera module comprising: - a shooting apparatus provided with a lens and a connection socket for transmitting images, - a protective housing provided with a protective wall arranged facing the lens, and a rear wall opposite the protective wall and extending substantially along a rear plane, - a connection arrangement configured to cooperate with the mounting bracket in a mounted position, the connection arrangement comprising a blocking device of the mounting bracket in the mounted position and a guide profile for connecting an external socket to the connection socket, the blocking device and the guide profile extending beyond the rear plane transversely to the rear plane and in a direction opposite to the protective wall. - a defrosting system provided with a heating part configured to heat the protective wall and a power socket formed in or attached to the protective housing so as to be able to cooperate with a complementary power socket in a connection direction transverse to the rear plane. - a shooting apparatus provided with a lens and a connection socket for transmitting images, - a protective housing provided with a protective wall arranged facing the lens, and a rear wall opposite the protective wall and extending substantially along a rear plane, - a connection arrangement configured to cooperate with the mounting bracket in a mounted position, the connection arrangement comprising a blocking device of the mounting bracket in the mounted position and a guide profile for connecting an external socket to the connection socket, the blocking device and the guide profile extending beyond the rear plane transversely to the rear plane and in a direction opposite to the protective wall. - a defrosting system provided with a heating part configured to heat the protective wall and a power socket formed in or attached to the protective housing so as to be able to cooperate with a complementary power socket in a connection direction transverse to the rear plane.
An intelligent focusing method of an intelligent moving head light based on machine vision, which is suitable for illuminating stage scenes, wherein the intelligent moving head light comprises a controller, a camera, a driver, a stepper motor and an optical lens assembly that includes a focusing assembly and a zooming assembly, characterized in that the intelligent focusing method comprising the following steps: S1, prestoring coordinate positions Z 21 and Z 22 of the focusing assembly corresponding to stage light projection distances S max and S min respectively, and moving the zooming assembly to a position between Z 21 and Z 22 after the controller receives a command to start an automatic focusing function; S2, gradually moving the focusing assembly between Z 21 and Z 22 by a focusing search strategy, the controller calculating a sharpness evaluation value T n of a current projected image acquired by the camera according to an image sharpness evaluation function, and determining whether T n is greater than a preset high sharpness threshold T H, if yes, the focusing step is completed, otherwise executing step S3; and S3, determining whether T n is less than or equal to T n-1, if yes, driving the stepper motor by the driver to operate in an opposite direction, otherwise driving the stepper motor by the driver to operate in an original direction, and then repeatedly executing step S2 until the sharpness evaluation value T n is greater than the preset high sharpness threshold T H to complete the focusing step. S1, prestoring coordinate positions Z 21 and Z 22 of the focusing assembly corresponding to stage light projection distances S max and S min respectively, and moving the zooming assembly to a position between Z 21 and Z 22 after the controller receives a command to start an automatic focusing function; S2, gradually moving the focusing assembly between Z 21 and Z 22 by a focusing search strategy, the controller calculating a sharpness evaluation value T n of a current projected image acquired by the camera according to an image sharpness evaluation function, and determining whether T n is greater than a preset high sharpness threshold T H, if yes, the focusing step is completed, otherwise executing step S3; and S3, determining whether T n is less than or equal to T n-1, if yes, driving the stepper motor by the driver to operate in an opposite direction, otherwise driving the stepper motor by the driver to operate in an original direction, and then repeatedly executing step S2 until the sharpness evaluation value T n is greater than the preset high sharpness threshold T H to complete the focusing step.
An oral care composition comprising, based on the total weight of the composition: (a) 20 to 22 weight % calcium carbonate; (b) 1 to 1.5 weight % sodium carboxymethylcellulose; (c) 8 to 9 weight % thickening silica; and (d) at least 40 weight % water; wherein the composition has a pH of from 9.2 to 10.2. (a) 20 to 22 weight % calcium carbonate; (b) 1 to 1.5 weight % sodium carboxymethylcellulose; (c) 8 to 9 weight % thickening silica; and (d) at least 40 weight % water; wherein the composition has a pH of from 9.2 to 10.2.
Composition characterized in that it comprises: - from 30% by weight to 90% by weight of a compound of formula: in which R 1, R 2, R 3 and R 4 are identical or different and represent, independently of one another, a hydrogen atom, a methyl radical or an ethyl radical and A and B are identical or different and represent, independently of each other, a number between 0 and 10, it being understood that the sum A + B is greater than zero; and - and from 10% by weight to 70% by weight of an isosorbide compound of formula: - from 30% by weight to 90% by weight of a compound of formula: in which R 1, R 2, R 3 and R 4 are identical or different and represent, independently of one another, a hydrogen atom, a methyl radical or an ethyl radical and A and B are identical or different and represent, independently of each other, a number between 0 and 10, it being understood that the sum A + B is greater than zero; and in which R 1, R 2, R 3 and R 4 are identical or different and represent, independently of one another, a hydrogen atom, a methyl radical or an ethyl radical and A and B are identical or different and represent, independently of each other, a number between 0 and 10, it being understood that the sum A + B is greater than zero; and - and from 10% by weight to 70% by weight of an isosorbide compound of formula:
A needle tip storage and removal device comprising a storage compartment for receiving in use an unused needle tip of a given drive configuration comprising a cylindrical skirt, the device further including adjacent the storage compartment, a removal compartment for receiving in use a used needle tip of said given configuration, wherein each of the storage and removal compartments (70, 72) comprises walls defining a generally cylindrical socket (26, 28) for receiving the skirt of the needle tip, and extending away therefrom an elongate narrower passage (74, 76) to receive the needle of the needle tip, with the storage compartment and the removal compartment being oppositely directed, and wherein the respective passages (74, 76) lie alongside each other and project towards the socket of the other compartment; characterised in that said respective passages are inversely aligned such that the leading end of one passage is level with the trailing end of the other passage.
A flow cell for use in genetic sequencing (10, 10', 10"), comprising: a substrate comprising an exposed surface; a functionalized polymer coating layer covalently bound to the exposed surface of the substrate through a chemical group on the exposed surface; and a primer grafted to the functionalized polymer coating layer, the primer being a single stranded nucleic acid sequence that serves as a starting point for DNA or RNA synthesis; characterised in that, the flow cell (10, 10', 10") comprises a water-soluble protective coating on the primer and the functionalized polymer coating layer. a substrate comprising an exposed surface; a functionalized polymer coating layer covalently bound to the exposed surface of the substrate through a chemical group on the exposed surface; and a primer grafted to the functionalized polymer coating layer, the primer being a single stranded nucleic acid sequence that serves as a starting point for DNA or RNA synthesis; characterised in that, the flow cell (10, 10', 10") comprises a water-soluble protective coating on the primer and the functionalized polymer coating layer.
A vacuum cleaner, comprising: a main body having a first motor configured to generate suction power, the main body configured to detachably mount a module including a drum having a brush and a second motor configured to rotate the drum; and a processor configured to: obtain a first signal corresponding to a floor status on which the module is performing a cleaning operation, obtain a second signal corresponding to a type of the module mounted to the main body, and control a speed of the first motor for generating suction power based on the first signal corresponding to the floor status and the second signal corresponding to the type of the module while the first motor is driving. a main body having a first motor configured to generate suction power, the main body configured to detachably mount a module including a drum having a brush and a second motor configured to rotate the drum; and a processor configured to: obtain a first signal corresponding to a floor status on which the module is performing a cleaning operation, obtain a second signal corresponding to a type of the module mounted to the main body, and control a speed of the first motor for generating suction power based on the first signal corresponding to the floor status and the second signal corresponding to the type of the module while the first motor is driving. obtain a first signal corresponding to a floor status on which the module is performing a cleaning operation, obtain a second signal corresponding to a type of the module mounted to the main body, and control a speed of the first motor for generating suction power based on the first signal corresponding to the floor status and the second signal corresponding to the type of the module while the first motor is driving.
A bispecific tetravalent antibody, said bispecific tetravalent antibody comprising: a first IgG1 heavy chain, connector, and single chain Fv (scFv) domain polypeptide comprising SEQ ID NO: 40, a second lgG1 heavy chain, connector, and scFv domain polypeptide comprising SEQ ID NO: 40, a first kappa light chain polypeptide comprising SEQ ID NO: 35, and a second kappa light chain polypeptide comprising SEQ ID NO: 35; wherein the first and second lgG1 heavy chains and the first and second kappa light chains form an IgG moiety with a binding specificity to domain 4 of HER2; and wherein the first and second scFv domains each have a binding specificity to domain 2 of HER2. wherein the first and second lgG1 heavy chains and the first and second kappa light chains form an IgG moiety with a binding specificity to domain 4 of HER2; and wherein the first and second scFv domains each have a binding specificity to domain 2 of HER2.
A computer implemented method for identifying a proper pigmentation to match a gonioapparent effect occurring within an unknown target coating, comprising: obtaining, using a processor, reflectance data from a target coating, wherein the spectral reflectance data have associated arrays comprised of angle and wavelength, wherein the angle is in the first array and the wavelength is in the secondary array; sorting the obtained data by the wavelength in the secondary array; calculating from the obtained reflectance data, using the processor, pivot-normalized reflectance data within each set of the secondary array according to X − μ _ σ where X is the specific data set value, μ is the sample or population average of the data set values within the sorted secondary array, and σ is the sample or population standard deviation of the data set values within the sorted secondary array, in order to create a commonality between the scales of the angles within the individual wavelengths; and generating based on the pivot-normalized reflectance data, using the processor, a coating pigmentation comprising a gonioapparent pigment that is the same or substantially similar in appearance to the target coating, wherein generating the coating pigmentation comprises empirically correlating the pivot-normalized data calculated for the target coating to a plurality of known pivot-normalized data calculated for an empirical dataset and predicting at least one texture feature comprising gonioapparent effect of the target coating based on the correlating. obtaining, using a processor, reflectance data from a target coating, wherein the spectral reflectance data have associated arrays comprised of angle and wavelength, wherein the angle is in the first array and the wavelength is in the secondary array; sorting the obtained data by the wavelength in the secondary array; calculating from the obtained reflectance data, using the processor, pivot-normalized reflectance data within each set of the secondary array according to X − μ _ σ where X is the specific data set value, μ is the sample or population average of the data set values within the sorted secondary array, and σ is the sample or population standard deviation of the data set values within the sorted secondary array, in order to create a commonality between the scales of the angles within the individual wavelengths; and generating based on the pivot-normalized reflectance data, using the processor, a coating pigmentation comprising a gonioapparent pigment that is the same or substantially similar in appearance to the target coating, wherein generating the coating pigmentation comprises empirically correlating the pivot-normalized data calculated for the target coating to a plurality of known pivot-normalized data calculated for an empirical dataset and predicting at least one texture feature comprising gonioapparent effect of the target coating based on the correlating.
A collaborative communication system, comprising: a plurality of endpoints (402,406) configured to communicate messages with other of the plurality of endpoints (402,406); a plurality of interconnecting channels (110,120,130) configured to route the messages between the plurality of endpoints through at least one intermediate node of a plurality of intermediate nodes; and a plurality of contexts; wherein a context is a binary membership state associated with each endpoint such that the plurality of endpoints (402,406) are either members or non-members of a particular set or subset defined by the membership state; wherein the plurality of endpoints (402,406) are configured to join one or more of the plurality of contexts, and each of the plurality of endpoints (402,406) and each of the plurality of intermediate nodes are further configured to selectively apply protection to the messages sent to other endpoints (402,406) based on a per message basis. a plurality of endpoints (402,406) configured to communicate messages with other of the plurality of endpoints (402,406); a plurality of interconnecting channels (110,120,130) configured to route the messages between the plurality of endpoints through at least one intermediate node of a plurality of intermediate nodes; and a plurality of contexts; wherein a context is a binary membership state associated with each endpoint such that the plurality of endpoints (402,406) are either members or non-members of a particular set or subset defined by the membership state; wherein the plurality of endpoints (402,406) are configured to join one or more of the plurality of contexts, and each of the plurality of endpoints (402,406) and each of the plurality of intermediate nodes are further configured to selectively apply protection to the messages sent to other endpoints (402,406) based on a per message basis.
A breath analyzer, comprising: an input that receives a breath sample; a first sensor that contacts the breath sample, wherein the first sensor comprises a first conductive polymer and a conductive material, wherein the first conductive polymer contacts the conductive material, wherein the first conductive polymer has a resistivity that decreases in response to increased concentration of ammonia; a second sensor that contacts the breath sample, wherein the second sensor comprises a second conductive polymer and a conductive material, wherein the second conductive polymer contacts the conductive material of the second sensor, wherein the second conductive polymer has a resistivity that decreases in response to increased concentration of 12 CO 2 and 13 CO 2, wherein the second conductive polymer comprises sulfonated polyaniline blended with polyethylene oxide; a processor; and an electrical circuit, wherein the electrical circuit operably connects the first and second sensors to the processor, wherein the processor detects resistivity in the electrical circuit and uses the resistivity to calculate a total concentration of ammonia and a total concentration of 12 CO 2 and 13 CO 2 in the breath sample. an input that receives a breath sample; a first sensor that contacts the breath sample, wherein the first sensor comprises a first conductive polymer and a conductive material, wherein the first conductive polymer contacts the conductive material, wherein the first conductive polymer has a resistivity that decreases in response to increased concentration of ammonia; a second sensor that contacts the breath sample, wherein the second sensor comprises a second conductive polymer and a conductive material, wherein the second conductive polymer contacts the conductive material of the second sensor, wherein the second conductive polymer has a resistivity that decreases in response to increased concentration of 12 CO 2 and 13 CO 2, wherein the second conductive polymer comprises sulfonated polyaniline blended with polyethylene oxide; a processor; and an electrical circuit, wherein the electrical circuit operably connects the first and second sensors to the processor, wherein the processor detects resistivity in the electrical circuit and uses the resistivity to calculate a total concentration of ammonia and a total concentration of 12 CO 2 and 13 CO 2 in the breath sample.
A communication protection method, wherein the method is applied to a multi-link, ML entity, the ML entity supports a plurality of links, and the method comprises: sensing, by the ML entity, a first physical layer protocol data unit, PPDU on a first link; and if the first PPDU is an intra-basic service set, intra-BSS PPDU, and a value of a duration field of the first PPDU is greater than a value of a target network allocation vector, NAV of a second link, updating, by the ML entity, the value of the target NAV of the second link to the value of the duration field of the first PPDU, wherein the second link is any one of the plurality of links supported by the ML entity other than the first link. sensing, by the ML entity, a first physical layer protocol data unit, PPDU on a first link; and if the first PPDU is an intra-basic service set, intra-BSS PPDU, and a value of a duration field of the first PPDU is greater than a value of a target network allocation vector, NAV of a second link, updating, by the ML entity, the value of the target NAV of the second link to the value of the duration field of the first PPDU, wherein the second link is any one of the plurality of links supported by the ML entity other than the first link.
Polymer beads having (i) a polymeric matrix, (ii) a pitted surface, and (iii) a size within the range of 30 microns to 1000 microns, the polymeric matrix (a) comprising polymerised monomer residues of (i) at least one monoethylenically unsaturated monomer, (ii) at least one crosslinking monomer having at least two ethylenically unsaturated groups separated by least 4 consecutive acyclic atoms, and (b) having distributed therethrough solid particulate material and polymeric porogen.
Robotized handling assembly for making a package starting from a piece of flattened cardboard, comprising an automated handling head having: - a jaw unit provided with two opposite handling jaws (14, 15), each jaw comprising a support body; - at least one lever associated with said support body of at least one of the two jaws (14, 15), said lever being configured to rotate for shaping said package; - at least one suction gripping member cooperating with said at least one lever for picking up and holding said piece of flattened cardboard while said at least one lever, by rotating, shapes said package; - movement means configured to move each support body, with the purpose of moving the support bodies with respect to each other in a direction of movement, so as to adjust the reciprocal distance of the respective handling jaws (14, 15) in order to adapt it to the shape and/or size of the piece of flattened cardboard; wherein said at least one suction gripping member is associated with the support body of at least one of the two jaws (14, 15) so as to be moved by said movement means, and wherein said assembly also comprises an attachment mandrel that has a proximal end able to be connected to a robotized arm of an automated operator and a distal end connected in a stable and selectively removable manner to said automated handling head. - a jaw unit provided with two opposite handling jaws (14, 15), each jaw comprising a support body; - at least one lever associated with said support body of at least one of the two jaws (14, 15), said lever being configured to rotate for shaping said package; - at least one suction gripping member cooperating with said at least one lever for picking up and holding said piece of flattened cardboard while said at least one lever, by rotating, shapes said package; - movement means configured to move each support body, with the purpose of moving the support bodies with respect to each other in a direction of movement, so as to adjust the reciprocal distance of the respective handling jaws (14, 15) in order to adapt it to the shape and/or size of the piece of flattened cardboard;