mhurhangee/ep-ind-claims huggingface dataset:
A scanning microscope for observing fluorescent light, emitted by a sample, with an acousto-optical device, which removes, with a mechanical wave, which is characterized by a, preferably adjustable, frequency, from a polychromatic and collinear detection light beam, portions of illumination light, scattered and/or reflected from a sample, of an illumination light wavelength, associated with the frequency, wherein the acousto-optical device contains a crystal with an entrance surface and an opposite exit surface for the detection light beam, characterized in that the crystal of the acousto-optical device, in which the mechanical wave propagates, and the propagation direction of the mechanical wave are aligned relative to each other and relative to the detection light beam, incident into the crystal, such that the acousto-optical device with the mechanical wave deflects both the portion of the detection light beam having the illumination wavelength and a first linear polarization direction, as well as the portion of the detection light beam having the illumination wavelength and a second linear polarization direction perpendicular to the first linear polarization direction, and thereby removes them from the detection light beam, and that the remaining portion of the detection light beam leaves the crystal collinearly through the exit surface.
A method for processing morphology information and elasticity information of a tissue, comprising: obtaining a gray-scale morphology image of the tissue from morphology characteristic information detected and obtained by an ultrasonic transducer configured to generate an ultrasonic wave in the tissue to detect and obtain said morphology characteristic information according to the returned ultrasonic wave, obtaining a gray-scale or colorized elasticity image of the tissue from elasticity characteristic information detected and obtained by an ultrasonic transducer configured to generate an elasticity shear wave in the tissue to detect and obtain said elasticity characteristic information generated by the tissue under action of the elasticity shear wave, wherein the morphology image includes morphology characteristic information of the tissue, and the elasticity image includes elasticity characteristic information of the tissue; merging and displaying the elasticity image in the morphology image; and determining a puncture position according to guidance of the merged image. obtaining a gray-scale morphology image of the tissue from morphology characteristic information detected and obtained by an ultrasonic transducer configured to generate an ultrasonic wave in the tissue to detect and obtain said morphology characteristic information according to the returned ultrasonic wave, obtaining a gray-scale or colorized elasticity image of the tissue from elasticity characteristic information detected and obtained by an ultrasonic transducer configured to generate an elasticity shear wave in the tissue to detect and obtain said elasticity characteristic information generated by the tissue under action of the elasticity shear wave, wherein the morphology image includes morphology characteristic information of the tissue, and the elasticity image includes elasticity characteristic information of the tissue; merging and displaying the elasticity image in the morphology image; and determining a puncture position according to guidance of the merged image.
A slide switch for an electric power tool comprising: a pair of rails; a slider configured to slide between the rails to perform a switching of a speed reduction ratio, wherein each of the rails includes a positioning region for positioning the slider in a sliding direction; wherein the slider includes a pair of arm portions (32a, 32b) extending substantially parallel to each other along the sliding direction, and each of the arm portions (32a, 32b) has a projection biased toward a corresponding rail to make contact with the positioning region; wherein the positioning region includes a plurality of recesses arranged side by side on a surface of the corresponding rail facing the slider; wherein a section around each of the recesses defines a positioning unit, and the positioning region includes at least three positioning units; characterised in that in each of the recesses, the positioning unit includes an ascending slant surface (27 or 25) positioned at a front end in the sliding direction and a descending slant surface (24 or 28) positioned at a rear end in the sliding direction; and wherein an inclination angle of the ascending slant surface of one of the positioning units, which is located two or more units before the final one of the positioning units located at the front end position in the sliding direction is smaller than an inclination angle of the ascending slant surface of another one of the positioning units, which adjoins the positioning unit located two or more units before the final one of the positioning units, at the front side in the sliding direction. a pair of rails; a slider configured to slide between the rails to perform a switching of a speed reduction ratio, wherein each of the rails includes a positioning region for positioning the slider in a sliding direction; wherein the slider includes a pair of arm portions (32a, 32b) extending substantially parallel to each other along the sliding direction, and each of the arm portions (32a, 32b) has a projection biased toward a corresponding rail to make contact with the positioning region; wherein the positioning region includes a plurality of recesses arranged side by side on a surface of the corresponding rail facing the slider; wherein a section around each of the recesses defines a positioning unit, and the positioning region includes at least three positioning units; characterised in that in each of the recesses, the positioning unit includes an ascending slant surface (27 or 25) positioned at a front end in the sliding direction and a descending slant surface (24 or 28) positioned at a rear end in the sliding direction; and wherein an inclination angle of the ascending slant surface of one of the positioning units, which is located two or more units before the final one of the positioning units located at the front end position in the sliding direction is smaller than an inclination angle of the ascending slant surface of another one of the positioning units, which adjoins the positioning unit located two or more units before the final one of the positioning units, at the front side in the sliding direction.
An opacifying pigment encapsulated in polymer comprising: a pigment particle having an average particle diameter of from 0.005 to 5 microns and an index of refraction of at least 1.8; from 0.1% to 25% by weight, based on the weight of said pigment particle, water-soluble sulfur acid-functional first polymer; and from 10% to 200%, by weight, based on the weight of said pigment particle, second polymer that at least partially encapsulates said pigment particle, wherein said water-soluble sulfur acid-functional first polymer consists of, as structural units, monomers selected from: styrene; butadiene; alpha-methyl styrene; vinyl toluene; vinyl naphthalene; ethylene; propylene; vinyl acetate; vinyl versatate; vinyl chloride; vinylidene chloride; acrylonitrile; methacrylonitrile; (meth)acrylamide; C1-C40 alkyl esters of (meth)acrylic acid; isobornyl (meth)acrylate; benzyl (meth)acrylate; phenyl (meth)acrylate; 2-bromoethyl (meth)acrylate; 2-phenylethyl (meth)acrylate; 1-naphthyl (meth)acrylate; alkoxyalkyl (meth)acrylate; mono-, di-, trialkyl esters of ethylenically unsaturated di- and tricarboxylic acids and anhydrides; alcohol containing monomers; carboxylic acid containing monomers; sulfoethyl (meth)acrylate, sulfopropyl (meth)acrylate, styrene sulfonic acid, vinyl sulfonic acid, 2-(meth)acrylamido-2-methyl propanesulfonic acid, and salts there of; dimethylamino ethyl(meth)acrylate; dimethylamino propyl(meth)acrylamide; and t-butylamino ethyl(meth)acrylate.
A rotary shaft locking device (10, 10A, 10B, 10C, 10D) comprising: a rotary shaft comprising a mounting portion on which a tool (T, T1, T2) is to be mounted and a first contact surface, the rotary shaft being rotatable about a first axis; a first angular contact ball bearing comprising an inner ring (31, 31a, 31b) supported by the rotary shaft, an outer ring (33, 33a, 33b), and a plurality of balls (35, 35a, 35b) disposed between the inner ring (31, 31a, 31b) and the outer ring (33, 33a, 33b); and a support member comprising a second contact surface configured to come into contact with the first contact surface to lock rotation of the rotary shaft, the support member rotatably supporting the rotary shaft through the first angular contact ball bearing; characterised by a drive unit configured to move the rotary shaft and the inner ring (31, 31a, 31b) relative to the support member and the outer ring (33, 33a, 33b) in a first direction parallel to the first axis so that the first contact surface comes into contact with the second contact surface in order to reduce a precompression that acts on the plurality of balls (35, 35a, 35b). a rotary shaft comprising a mounting portion on which a tool (T, T1, T2) is to be mounted and a first contact surface, the rotary shaft being rotatable about a first axis; a first angular contact ball bearing comprising an inner ring (31, 31a, 31b) supported by the rotary shaft, an outer ring (33, 33a, 33b), and a plurality of balls (35, 35a, 35b) disposed between the inner ring (31, 31a, 31b) and the outer ring (33, 33a, 33b); and a support member comprising a second contact surface configured to come into contact with the first contact surface to lock rotation of the rotary shaft, the support member rotatably supporting the rotary shaft through the first angular contact ball bearing; characterised by a drive unit configured to move the rotary shaft and the inner ring (31, 31a, 31b) relative to the support member and the outer ring (33, 33a, 33b) in a first direction parallel to the first axis so that the first contact surface comes into contact with the second contact surface in order to reduce a precompression that acts on the plurality of balls (35, 35a, 35b).
A method for manufacturing a crosslinked polyolefin separator, comprising the steps of: mixing a polyolefin, a diluting agent, an initiator, a crosslinking catalyst and surface-treated inorganic particles in an extruder, and then reactively extruding the mixture to form a silane-grafted polyolefin composition, wherein the surface-treated inorganic particles are prepared by surface-treating with an alkoxysilane containing a carbon-carbon double bond; molding and orienting the extruded silane-grafted polyolefin composition in the form of a sheet; extracting the diluting agent from the oriented sheet to obtain a porous membrane; thermally fixing the porous membrane; and crosslinking the thermally fixed porous membrane in the presence of moisture. mixing a polyolefin, a diluting agent, an initiator, a crosslinking catalyst and surface-treated inorganic particles in an extruder, and then reactively extruding the mixture to form a silane-grafted polyolefin composition, wherein the surface-treated inorganic particles are prepared by surface-treating with an alkoxysilane containing a carbon-carbon double bond; molding and orienting the extruded silane-grafted polyolefin composition in the form of a sheet; extracting the diluting agent from the oriented sheet to obtain a porous membrane; thermally fixing the porous membrane; and crosslinking the thermally fixed porous membrane in the presence of moisture.
A premixed burner, especially for condensation boilers, comprising: a tubular body, the side surface of which is provided with a plurality of holes and slits, and at least one disk, fixed to one head of said tubular body characterized in that the at least one disk is provided with through openings or holes and constituting the distribution head of the air-gas mixture into the same body, and that said tubular body is closed on the other head by a plate, the disc with holes which closes one of the ends of the tubular body performing the function of the internal distributor air-gas mixture. a tubular body, the side surface of which is provided with a plurality of holes and slits, and at least one disk, fixed to one head of said tubular body characterized in that the at least one disk is provided with through openings or holes and constituting the distribution head of the air-gas mixture into the same body, and that said tubular body is closed on the other head by a plate, the disc with holes which closes one of the ends of the tubular body performing the function of the internal distributor air-gas mixture.
A network structure made of a three-dimensional random loop bonded structure obtained by forming random loops with curling treatment of a continuous linear structure including at least one thermoplastic elastic resin selected from the group consisting of a polyolefin-based thermoplastic elastomer, an ethylene-vinyl acetate copolymer, a polyurethane-based thermoplastic elastomer and a polyamide-based thermoplastic elastomer, the continuous linear structure having a fineness of not less than 100 dtex and not more than 60000 dtex, and by making each loop mutually contact in a molten state, wherein the network structure has an apparent density of 0.005 g/cm 3 to 0.20 g/cm 3, as measured according to the test method outlined in the description, a 50%-constant displacement repeated compression residual strain of not more than 15%, as measured according to the test method outlined in the description, and a 50%-compression hardness retention after 50%-constant displacement repeated compression of not less than 85%, as measured according to the test method outlined in the description, and wherein fusion of the continuous linear structures that form the network structure is made by (i) providing a heat-retaining region below a nozzle when the at least one thermoplastic elastic resin is spun; and/or (ii) increasing the net surface temperature of a take-up conveyor net at or around the falling position of the continuous linear structure; and/or (iii) increasing the temperature of cooling water in a cooling bath at or around the falling position of the continuous linear structures. (i) providing a heat-retaining region below a nozzle when the at least one thermoplastic elastic resin is spun; and/or (ii) increasing the net surface temperature of a take-up conveyor net at or around the falling position of the continuous linear structure; and/or (iii) increasing the temperature of cooling water in a cooling bath at or around the falling position of the continuous linear structures.
A method for manufacturing an optoelectronic module comprising a support and an additional layer located on the support, the support consisting of an assembly without any optoelectronic properties, the assembly successively comprising a metal substrate, a dielectric coating located on the metal substrate, and an electrically conductive layer located on the dielectric coating, the manufacturing method including at least, in this order: - a step for providing the support, the support for example being running, and for applying a method for controlling the support, or a step for providing the support, the support having been subject to the control method, and - a step for depositing at least the additional layer on the electrically conductive layer of the support for obtaining the optoelectronic module, the control method for the support including at least the following steps: - an electric excitation of the support by putting into electric contact the metal substrate and the electrically conductive layer with a voltage source, and - a photothermal examination of the excited support for detecting a possible defect (49, 51) located at least partly in the dielectric coating and providing a photothermal examination result. - a step for providing the support, the support for example being running, and for applying a method for controlling the support, or a step for providing the support, the support having been subject to the control method, and - a step for depositing at least the additional layer on the electrically conductive layer of the support for obtaining the optoelectronic module, - an electric excitation of the support by putting into electric contact the metal substrate and the electrically conductive layer with a voltage source, and - a photothermal examination of the excited support for detecting a possible defect (49, 51) located at least partly in the dielectric coating and providing a photothermal examination result.
A gas-insulated high or medium voltage circuit breaker comprising: a first arcing contact and a second arcing contact, wherein at least one of the two arcing contacts is axially movable along a switching axis, wherein during a breaking operation, an arc between the first arcing contact and the second arcing contact is formed in an arcing region; a nozzle system including a channel directed to the arcing region, for blowing an arc-extinguishing gas to the arcing region during the breaking operation; a diffuser portion adjacent to the nozzle, for transporting the arc-extinguishing gas from the arcing region to a region downstream of the diffuser portion; an electrically conductive armature radially surrounding at least part of the diffuser portion; and an electrically conductive ring-like element mounted to the diffuser portion, wherein the ring-like element is slideable relative to the armature, wherein the ring-like element is radially outwardly biased such that an outer side of the ring-like element is pressed against the armature, characterized in that the diffuser portion includes a first diffuser portion and a second diffuser portion the second diffuser portion having a higher electrical conductivity than the first diffuser portion, and in that the second diffuser portion includes a shield, which partially encloses the first diffuser portion. a first arcing contact and a second arcing contact, wherein at least one of the two arcing contacts is axially movable along a switching axis, wherein during a breaking operation, an arc between the first arcing contact and the second arcing contact is formed in an arcing region; a nozzle system including a channel directed to the arcing region, for blowing an arc-extinguishing gas to the arcing region during the breaking operation; a diffuser portion adjacent to the nozzle, for transporting the arc-extinguishing gas from the arcing region to a region downstream of the diffuser portion; an electrically conductive armature radially surrounding at least part of the diffuser portion; and an electrically conductive ring-like element mounted to the diffuser portion, wherein the ring-like element is slideable relative to the armature, wherein the ring-like element is radially outwardly biased such that an outer side of the ring-like element is pressed against the armature, characterized in that the diffuser portion includes a first diffuser portion and a second diffuser portion the second diffuser portion having a higher electrical conductivity than the first diffuser portion, and in that the second diffuser portion includes a shield, which partially encloses the first diffuser portion.
A desiccant composition containing a. a polymeric binder and b. a dispersion of a first amount of powder of at least one desiccant material dispersed in said polymeric binder, characterized in that said desiccant composition further contains a dispersion of a second amount of powder of at least one desiccant material, said second powder being in the form of aggregates surrounded by a shell of an encapsulating material having a different composition with respect to the polymeric binder. a. a polymeric binder and b. a dispersion of a first amount of powder of at least one desiccant material dispersed in said polymeric binder,
A method performed by a mobility management entity, MME, the method comprising: receiving, from a source home eNodeB, HeNB, a first message including a first local home network, LHN, identifier, ID, corresponding to a local home network where the source HeNB is located, wherein whether to allow a selected IP traffic offload, SIPTO, service of the local home network for an access point name, APN, is determined by the MME based on subscription information of a user equipment, UE; receiving, from a target HeNB, a second message associated with a handover of the UE, the second message including a second LHN ID corresponding to a local home network where the target HeNB is located; and disconnecting the SIPTO service after the handover based on identifying that the first LHN ID is not the same as the second LHN ID. receiving, from a source home eNodeB, HeNB, a first message including a first local home network, LHN, identifier, ID, corresponding to a local home network where the source HeNB is located, wherein whether to allow a selected IP traffic offload, SIPTO, service of the local home network for an access point name, APN, is determined by the MME based on subscription information of a user equipment, UE; receiving, from a target HeNB, a second message associated with a handover of the UE, the second message including a second LHN ID corresponding to a local home network where the target HeNB is located; and disconnecting the SIPTO service after the handover based on identifying that the first LHN ID is not the same as the second LHN ID.
A method for controlling data transfer between a client device and auxiliary robot cell functions of a robot cell, said robot cell comprising at least one industrial robot being controlled by a robot controller, the method being performed by an interface device for the robot cell and comprising the steps of: receiving a request intended for an auxiliary robot cell function (38, 42, 46), said request being received in a first message having a destination address belonging to the interface device, said address belonging to the interface device being a first global address in a global addressing space, converting the first global address to a first local address of the auxiliary robot cell function in a local addressing space provided for auxiliary robot cell functions (38, 42, 46) of the cell, and sending the request to a web server associated with the auxiliary robot cell function (38, 42, 46) using the first local address. receiving a request intended for an auxiliary robot cell function (38, 42, 46), said request being received in a first message having a destination address belonging to the interface device, said address belonging to the interface device being a first global address in a global addressing space, converting the first global address to a first local address of the auxiliary robot cell function in a local addressing space provided for auxiliary robot cell functions (38, 42, 46) of the cell, and sending the request to a web server associated with the auxiliary robot cell function (38, 42, 46) using the first local address.