mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical sensor comprising: a housing having interior walls defining a reservoir; a sensing electrode; a counter electrode located in a common plane with the sensing electrode; and at least one separator retaining an electrolyte, wherein the electrolyte provides an ionically conductive pathway between the sensing electrode and the counter electrode, wherein the housing comprises: a plurality of channels located along a base of the reservoir, configured to transport the electrolyte towards the interior walls and localize the electrolyte at the interior walls, a plurality of pins operable to contact the electrodes, wherein the pins are located within bosses attached to the housing, and a plurality of corners at the attachment points between the housing and the bosses, the corners being configured to transport the localized electrolyte from the reservoir towards the separator. a housing having interior walls defining a reservoir; a sensing electrode; a counter electrode located in a common plane with the sensing electrode; and at least one separator retaining an electrolyte, wherein the electrolyte provides an ionically conductive pathway between the sensing electrode and the counter electrode, wherein the housing comprises: a plurality of channels located along a base of the reservoir, configured to transport the electrolyte towards the interior walls and localize the electrolyte at the interior walls, a plurality of pins operable to contact the electrodes, wherein the pins are located within bosses attached to the housing, and a plurality of corners at the attachment points between the housing and the bosses, the corners being configured to transport the localized electrolyte from the reservoir towards the separator. a plurality of channels located along a base of the reservoir, configured to transport the electrolyte towards the interior walls and localize the electrolyte at the interior walls, a plurality of pins operable to contact the electrodes, wherein the pins are located within bosses attached to the housing, and a plurality of corners at the attachment points between the housing and the bosses, the corners being configured to transport the localized electrolyte from the reservoir towards the separator.
A reactor metering pipe fixing device for fixedly holding a vertical metering pipe on the cylindrical outer surface of a jet pump diffuser installed in the reactor pressure vessel of a boiling-water reactor so as to be spaced from the cylindrical outer surface by holding the metering pipe from the outer and the inner side with respect to a radial direction relative to the cylindrical outer surface, said reactor metering pipe fixing device comprising: an outer holding member configured to be brought into contact with the metering pipe from the outer side of the metering pipe with respect to said radial direction; inner holding members (42, 43) configured to be brought into contact with the metering pipe from the inner side of the metering pipe with respect to said radial direction; wedges (44, 45) each configured to be wedged into a space between the inner holding member (42, 43) and the cylindrical outer surface; a first holding means configured to hold the outer holding member on the cylindrical outer surface; second holding means (46, 47) holding the inner holding members (42, 43) so as to be movable relative to the outer holding member in said radial direction; and vertically moving means (48, 49) configured to vertically move the wedges (44, 45) relative to the outer holding member, the vertical moving means being held by the wedges (44, 45), and the outer holding member or the inner holding members (42, 43). an outer holding member configured to be brought into contact with the metering pipe from the outer side of the metering pipe with respect to said radial direction; inner holding members (42, 43) configured to be brought into contact with the metering pipe from the inner side of the metering pipe with respect to said radial direction; wedges (44, 45) each configured to be wedged into a space between the inner holding member (42, 43) and the cylindrical outer surface; a first holding means configured to hold the outer holding member on the cylindrical outer surface; second holding means (46, 47) holding the inner holding members (42, 43) so as to be movable relative to the outer holding member in said radial direction; and vertically moving means (48, 49) configured to vertically move the wedges (44, 45) relative to the outer holding member, the vertical moving means being held by the wedges (44, 45), and the outer holding member or the inner holding members (42, 43).
A device for towing underwater pipelines comprising: • at least one floating body with a variable or partially variable buoyancy; • at least one guiding element arranged for being in contact with the sea bottom, substantially lying on a vertical plane and capable of rotating around a vertical axis; • attitude control means for modifying the buoyancy of said floating body and for controlling the position of said guiding element according to the distance of said device from the sea bottom; • means for the removable connection of said device to the underwater pipeline. • at least one floating body with a variable or partially variable buoyancy; • at least one guiding element arranged for being in contact with the sea bottom, substantially lying on a vertical plane and capable of rotating around a vertical axis; • attitude control means for modifying the buoyancy of said floating body and for controlling the position of said guiding element according to the distance of said device from the sea bottom; • means for the removable connection of said device to the underwater pipeline.
A Raman microscopy or Raman microspectrometry apparatus of confocal type comprising: - a laser source suitable for emitting a laser beam at an excitation wavelength A; - a microscope objective suitable for receiving the laser beam and focusing the laser beam in an image plane of the microscope objective, the focused laser beam being intended to illuminate a sample; - an optical system suitable for collecting a scattering optical beam on the sample; - a filter suitable for receiving the scattering optical beam and separating the scattering optical beam into a Rayleigh scattering beam, on the one side, and a Raman scattering beam, on the other side; and - a detection system (16, 17) comprising a Raman spectrometer (16, 17) suitable for receiving and measuring the Raman scattering beam collected, - a confocal hole positioned between the microscope objective and the Raman spectrometer (16, 17) on the optical path of the Raman scattering beam, wherein the Raman microscopy or Raman microspectrometry apparatus further comprises: - an adaptive optics system (33, 33A, 33B) positioned on an optical path of the Raman scattering beam upstream of the confocal hole, said adaptive optics system (33, 33A, 33B) being configured to generate an energy distribution having an elliptical shape inside the confocal hole open wide on the entrance slit of the spectrometer, so as to obtain an energy distribution in the direction of the height of the slit. - a laser source suitable for emitting a laser beam at an excitation wavelength A; - a microscope objective suitable for receiving the laser beam and focusing the laser beam in an image plane of the microscope objective, the focused laser beam being intended to illuminate a sample; - an optical system suitable for collecting a scattering optical beam on the sample; - a filter suitable for receiving the scattering optical beam and separating the scattering optical beam into a Rayleigh scattering beam, on the one side, and a Raman scattering beam, on the other side; and - a detection system (16, 17) comprising a Raman spectrometer (16, 17) suitable for receiving and measuring the Raman scattering beam collected, - a confocal hole positioned between the microscope objective and the Raman spectrometer (16, 17) on the optical path of the Raman scattering beam, - an adaptive optics system (33, 33A, 33B) positioned on an optical path of the Raman scattering beam upstream of the confocal hole, said adaptive optics system (33, 33A, 33B) being configured to generate an energy distribution having an elliptical shape inside the confocal hole open wide on the entrance slit of the spectrometer, so as to obtain an energy distribution in the direction of the height of the slit.
A recessed housing able to be embedded behind an orifice formed in a partition, in particular a wall or a drop ceiling, said recessed housing including a peripheral wall delimiting at least one opening intended to communicate with said orifice, said peripheral wall being provided, on its outer face, with resilient fins movable between a position separated from the outer face in which they make it possible to lock the recessed housing in position behind said orifice and a position folded down against the outer face of the peripheral wall in which they allow the passage of the recessed housing through said orifice, said resilient fins including a lower edge able to be positioned at a predetermined distance from a flange bordering said opening, through height adjustment means included by said recessed housing, each of said resilient fins being connected to a slider mounted in translation in a slide, with an axis parallel to the axis of the recessed housing, and extending over the outer face of the peripheral wall of said recessed housing, while the height adjustment means include a graduation and a marker that are respectively formed along the slide and on said slider, characterized in that said slide has a bottom delimited by two L-shaped side walls, the small branches of which are oriented toward the inside of the slide so as to form, with said bottom, two U-shaped rails, while the slider has an Ω-shaped section and includes a manipulation surface having an upper rim, a lower rim and two longitudinal edges each extended by a longitudinal tab able to be received in one of the U-shaped rails of the slide.
Holding frame, in which plug-in connector modules can be inserted, wherein the holding frame has guiding means, whereby the holding frame can be aligned in a precision-fitting manner in relation to a second holding frame in the plug-in direction, in that the guiding means comprise a guide element and a guide rail, in that the holding frame (1, 1') has a grounding socket and a grounding pin (12, 12') and the guide rail is formed on the grounding socket, characterized in that the holding frame comprises two halves (4, 5) that can be connected to each other, a first half and a second half, in that the guide element has fixing means, by which the halves (4, 5) can be fixed in a parallel position in relation to each other, in that the guide element has a guide sleeve, which can be gripped onto the guide rail of the second holding frame.
A temperature sensor, comprising: a clamp, configured to be inserted into an opening formed in an object, and having a shaft member; a thermistor provided in the shaft member and disposed in the end part; a flange member extended from the shaft member in a direction orthogonal to an inserting direction in which the clamp is inserted into the opening; characterized in that an engaging member extended from the end part of the shaft member toward the flange member in a direction inclined with the inserting direction; and the thermistor being embedded in the clamp, wherein the engaging member and the flange member are configured to clamp the object therebetween when the clamp is inserted into the opening, the clamp and the thermistor being integrally formed by an insert molding method. a clamp, configured to be inserted into an opening formed in an object, and having a shaft member; a thermistor provided in the shaft member and disposed in the end part; a flange member extended from the shaft member in a direction orthogonal to an inserting direction in which the clamp is inserted into the opening; characterized in that an engaging member extended from the end part of the shaft member toward the flange member in a direction inclined with the inserting direction; and the thermistor being embedded in the clamp, wherein the engaging member and the flange member are configured to clamp the object therebetween when the clamp is inserted into the opening, the clamp and the thermistor being integrally formed by an insert molding method.
A damping mechanism of a camera tripod head, comprising a fixing seat, a spindle fixedly connected to a middle portion of the fixing seat, a plurality of damping devices fitted on the spindle in order, and a rotary seat disposed coaxially with the fixing seat, the rotary seat being rotated about an axis of the spindle; the damping devices each comprising a damping disc, a stop block fitted on the spindle, and a drive device for pushing the stop block to slide along the spindle, the damping disc including an inner ring connected with the stop block and an outer ring fixedly connected with the rotary seat, the stop block being movable to disengage from the inner ring of the damping disc under the action of the drive device; the drive device including a push lever for pushing the stop block to slide, characterized in that the damping mechanism comprises a seesaw plate having a middle portion hinged to the fixing seat and a cam mounted on the fixing seat through a fixing shaft, one end of the push lever leaning against the stop block, the cam being turned about an axis of the fixing shaft, one end of the seesaw plate leaning against another end of the push lever, another end of the seesaw plate leaning against the cam.
A beverage preparation device, in particular a coffee machine having a brewing unit for the lixiviation of ground coffee, having at least one device for heating a fluid, in particular milk, with steam, said beverage preparation device comprising a heating device for heating water for the formation of steam, the device comprising at least two jet pumps (35, 45) which are connected in series, in particular realized as single pumps and connected to each other, each jet pump (35, 45) having a drive nozzle (36, 46) for generating a vacuum, the fluid aspirated by a first drive nozzle of the first jet pump as a result of a vacuum and heated by means of steam being additionally capable of being aspirated by another drive nozzle of the other jet pump and of being further heated by means of steam, the drive nozzles (36, 46) being capable of being supplied via different driving steam lines or via a common, branched driving steam line, characterized in that at least one driving steam line has a throttle device or a time delay device realized in such a manner that it is possible to set an individual steam supply at the drive nozzles (36, 46).
Method for controlling a micromirror scanner, including the following method steps: providing a shot pattern, which at least comprises information items about first actuation signals depending on mirror positions (α1, α2, α3) of an adjustable micromechanical mirror of the micromirror scanner, said actuation signals being destined to actuate a light source of the micromirror scanner; determining a current mirror position (α1, α2, α3) of the micromechanical mirror; emitting light rays into a solid angle by deflecting the light rays, which are produced depending on the determined current mirror position (α1, α2, α3) of the micromechanical mirror according to the first actuation signals of the shot pattern, by means of the micromechanical mirror in the determined current mirror position (α1, α2, α3); measuring light rays reflected at an object in the solid angle by means of a light sensor of the micromirror scanner for the purposes of determining a distance between the object and the micromirror scanner; determining a position of the object in relation to the micromirror scanner and/or a type of the object, at least depending on the determined distance and the determined current mirror position (α1, α2, α3) of the micromechanical mirror; characterized by adapting the shot pattern depending on the determined position and/or type of the object. providing a shot pattern, which at least comprises information items about first actuation signals depending on mirror positions (α1, α2, α3) of an adjustable micromechanical mirror of the micromirror scanner, said actuation signals being destined to actuate a light source of the micromirror scanner; determining a current mirror position (α1, α2, α3) of the micromechanical mirror; emitting light rays into a solid angle by deflecting the light rays, which are produced depending on the determined current mirror position (α1, α2, α3) of the micromechanical mirror according to the first actuation signals of the shot pattern, by means of the micromechanical mirror in the determined current mirror position (α1, α2, α3); measuring light rays reflected at an object in the solid angle by means of a light sensor of the micromirror scanner for the purposes of determining a distance between the object and the micromirror scanner; determining a position of the object in relation to the micromirror scanner and/or a type of the object, at least depending on the determined distance and the determined current mirror position (α1, α2, α3) of the micromechanical mirror; characterized by adapting the shot pattern depending on the determined position and/or type of the object.
Method of indexing a video taken with a mobile camera and stored on a storage disk, wherein the video is formed of a collection of frames each comprising a date and shooting information, wherein the method implemented by a server comprises for each frame: - a step for selecting the date of the frame by a selection module of a computer of the server; - a step for extracting a location of the frame from the shooting information of the frame by a determining module of the computer of the server; - a step for assigning interpretability to the frame by an interpretability calculation module of the computer of the server, the interpretability of a frame being defined for each frame, being calculated by an autonomous calculating function from radiometric and geometric indices of the frame and being a value from a range of values; and - for indexing the video, a step for generating a metadata file separate from the video, comprising for each frame of the video, the date, the location and the interpretability of the frame, and wherein it is designed to be interrogated by a query comprising at least one criterion, i.e. at least the date, location or interpretability. - a step for selecting the date of the frame by a selection module of a computer of the server; - a step for extracting a location of the frame from the shooting information of the frame by a determining module of the computer of the server; - a step for assigning interpretability to the frame by an interpretability calculation module of the computer of the server, the interpretability of a frame being defined for each frame, being calculated by an autonomous calculating function from radiometric and geometric indices of the frame and being a value from a range of values; and - for indexing the video, a step for generating a metadata file separate from the video, comprising for each frame of the video, the date, the location and the interpretability of the frame, and wherein it is designed to be interrogated by a query comprising at least one criterion, i.e. at least the date, location or interpretability.
A method of a wireless communication device, wherein the method is for measurement control of the wireless communication device which is served by a network node and configured to communicate using either of a plurality of radio access technologies, RAT:s, the method comprising: identifying that a first criterion is fulfilled for radio resource management, RRM, in relation to two or more of the RAT:s; executing a wireless communication scan to detect wireless communication signaling associated with the two or more RAT:s; when wireless communication signaling is detected for at least two of the two or more RAT:s, assigning a priority value to RRM measurements of each of the at least two RAT:s, wherein a first priority value indicates precedence over a second priority value, and wherein each priority value is based on one or more parameters related to the respective RAT, the one or more parameters comprising a frequency of RRM measurement opportunities of the RAT, wherein the frequency of RRM measurement opportunities of the RAT defines a density of RRM signaling of the RAT; and executing RRM measurements based on the priority values. identifying that a first criterion is fulfilled for radio resource management, RRM, in relation to two or more of the RAT:s; executing a wireless communication scan to detect wireless communication signaling associated with the two or more RAT:s; when wireless communication signaling is detected for at least two of the two or more RAT:s, assigning a priority value to RRM measurements of each of the at least two RAT:s, wherein a first priority value indicates precedence over a second priority value, and wherein each priority value is based on one or more parameters related to the respective RAT, the one or more parameters comprising a frequency of RRM measurement opportunities of the RAT, wherein the frequency of RRM measurement opportunities of the RAT defines a density of RRM signaling of the RAT; and executing RRM measurements based on the priority values.
Safety belt roller with a 2-spring comfort function comprising: - a belt shaft rotatably supported in a housing and onto which a safety belt can be wound, and - at least two retractile springs (6, 7), which act between the housing and the belt shaft and are spring-pre-tensioned in the winding direction of the safety belt, wherein - the retractile springs (6, 7) are arranged acting in parallel between the belt shaft and the housing, - at least one of the retractile springs (6, 7) can be connected by a switching device which switches depending of the withdrawal length of the safety belt by an end (15, 16, 17, 19) to the belt shaft or to the housing, - one of the ends (15, 16, 17, 19) of the retractile spring (6, 7) is held on a coupling part on which a movable blocking part is provided, which connects the coupling part in a position to the belt (shaft, and - the movement of the blocking part can be controlled by the switching device, characterized by that - the switching device comprises a switching part which can be linearly shifted for controlling the movement of the blocking part, that the movement of the switching part is controlled by the switching device as a function of the withdrawal length of the safety belt, and - that the switching part is fixed relative to the housing in a rotation-proof manner and comprises a control contour against which the blocking part rests. - a belt shaft rotatably supported in a housing and onto which a safety belt can be wound, and - at least two retractile springs (6, 7), which act between the housing and the belt shaft and are spring-pre-tensioned in the winding direction of the safety belt, wherein - the retractile springs (6, 7) are arranged acting in parallel between the belt shaft and the housing, - at least one of the retractile springs (6, 7) can be connected by a switching device which switches depending of the withdrawal length of the safety belt by an end (15, 16, 17, 19) to the belt shaft or to the housing, - one of the ends (15, 16, 17, 19) of the retractile spring (6, 7) is held on a coupling part on which a movable blocking part is provided, which connects the coupling part in a position to the belt (shaft, and - the movement of the blocking part can be controlled by the switching device, characterized by that - the switching device comprises a switching part which can be linearly shifted for controlling the movement of the blocking part, that the movement of the switching part is controlled by the switching device as a function of the withdrawal length of the safety belt, and - that the switching part is fixed relative to the housing in a rotation-proof manner and comprises a control contour against which the blocking part rests.