mhurhangee/ep-ind-claims huggingface dataset:
3D printing apparatus of the bottom-up photo-curing type, comprising a tank containing a photo-curing liquid material, inside which at least one extraction plate is immersed, provided with means of movement with alternating rectilinear motion, in a direction perpendicular to the bottom of said tank from a position at a distance from the bottom of said tank equal to the thickness of a layer obtainable by photo-curing of said photo-curing liquid material, said apparatus for 3D printing comprising a first source of a photo-curing radiation, of the DLP type, with a predetermined wavelength, a second source of a photo-curing radiation, of the laser type, with a wavelength equal to that of said first source of photo-curing radiation, of DLP-type, said second source of photo-curing, of laser type, being provided with laser deflection means, and a polarizing beam combiner of the radiation of the first source of photo-curing radiation, of the DLP type and of the radiation of the second source of photo-curing radiation, of laser type, said first source of photo-curing radiation, of the DLP type, having linear polarization oriented according to a given angle, or being associated with a polarizer configured to allow passage of only the portion of radiation of the first source of photo-curing radiation, of the DLP type, which has linear polarization oriented according to a given angle, and said second source of photo-curing radiation, of the laser type, having linear polarization oriented according to an angle orthogonal to that of said first source of photo-curing radiation, of the DLP type, or being associated with a polarizer configured to allow passage of only the portion of radiation of the second source of photo-curing radiation, of the laser type, which has linear polarization oriented according to an angle orthogonal to that of said first source of photo- curing radiation, of the DLP type; the bottom of said tank being formed by a material that is transparent to both radiations used for photo-curing, said second source of photo-curing radiation, of the laser type, having variable radiating flux power and said laser deflection means having variable speed, said radiating flux power and said speed of the laser deflection means being controlled by a predictive software as a function of the time required for the photo-curing of each layer by means of said first source of photo-curing radiation, of the DLP type.
A tube holding member of a liquid sensor configured to detect presence or absence of a liquid in a tube having a light-transmitting property, wherein a direction of insertion and extraction of the tube is perpendicular to a longitudinal direction of the tube, the tube holding member comprising: a holding member configured to hold the tube that is held at a detection position to be insertable to and extractable from a main body case of the liquid sensor, characterized by the holding member being attachable to and detachable from the main body case only in the direction that is not identical with the insertion and extraction direction of the tube with respect to the main body case. a holding member configured to hold the tube that is held at a detection position to be insertable to and extractable from a main body case of the liquid sensor, characterized by the holding member being attachable to and detachable from the main body case only in the direction that is not identical with the insertion and extraction direction of the tube with respect to the main body case.
A computing system comprising: a storage system; and one or more processing units to execute processor-executable program code to cause the computing system to: transmit data of a mixed-reality environment to a first user; receive, from the first user, a command to associate a voice annotation with the mixed-reality environment and with a second user; receive audio signals of a voice annotation from the first user; store the received audio signals in the storage system; and store metadata associating the received audio signals with the first user, the second user, and the mixed-reality environment; transmit data of the mixed-reality environment to the second user; receive, from the second user, a command to playback the voice annotation within the mixed-reality environment; and transmit the audio signals of the voice annotation to the second user, wherein only the second user can play back the voice annotation and other users cannot play back the voice annotation. a storage system; and one or more processing units to execute processor-executable program code to cause the computing system to: transmit data of a mixed-reality environment to a first user; receive, from the first user, a command to associate a voice annotation with the mixed-reality environment and with a second user; receive audio signals of a voice annotation from the first user; store the received audio signals in the storage system; and store metadata associating the received audio signals with the first user, the second user, and the mixed-reality environment; transmit data of the mixed-reality environment to the second user; receive, from the second user, a command to playback the voice annotation within the mixed-reality environment; and transmit the audio signals of the voice annotation to the second user, wherein only the second user can play back the voice annotation and other users cannot play back the voice annotation. transmit data of a mixed-reality environment to a first user; receive, from the first user, a command to associate a voice annotation with the mixed-reality environment and with a second user; receive audio signals of a voice annotation from the first user; store the received audio signals in the storage system; and store metadata associating the received audio signals with the first user, the second user, and the mixed-reality environment; transmit data of the mixed-reality environment to the second user; receive, from the second user, a command to playback the voice annotation within the mixed-reality environment; and transmit the audio signals of the voice annotation to the second user, wherein only the second user can play back the voice annotation and other users cannot play back the voice annotation.
A ternesite calcium sulfoaluminate clinker or cement obtainable by sintering a raw meal mixture, which contains sources for CaO, Al 2 O 3 (Fe 2 O 3), SiO 2 and SO 3, characterized in that the raw meal mixture is sintered in a temperature range of > 1200°C to 1350°C over a period of time sufficient to convert the raw meal mixture into a clinker intermediate product, typically 10 to 240 minutes the clinker intermediate product is tempered in a temperature range of from 1200°C to a lower limit of 750°C over a period of time sufficient to obtain the desired amount of C 5 S 2 $ and to convert aluminate and ferrate phases and residues of the crystalline high-temperature phases of the raw materials with remaining C$ into additional C 4 (A x F 1-x) 3 $ and C 5 S 2 $, typically 15 to 300 minutes, and the clinker comprising the main components C 4 (A x F 1-x) 3 $, (α; β) C 2 S and C 5 S 2 $ in the following proportions • C 5 S 2 $ 5 to 75 wt % • C 2 S 1 to 80 wt % • C 4 (A X F 1-x) 3 $ 5 to 70 wt % • secondary phases 0 to 30 wt %, wherein x is a number from 0.1 to 1, is cooled. • C 5 S 2 $ 5 to 75 wt % • C 2 S 1 to 80 wt % • C 4 (A X F 1-x) 3 $ 5 to 70 wt % • secondary phases 0 to 30 wt %,
A vehicle battery pack (1A, 1B), comprising: at least one battery cell; a casing that has a heat dissipation property for discharging heat outside the casing and houses the battery cell in a housing space; a first solid-liquid phase change material that directly comes in contact with the battery cell and fills the housing space, maintains a solid state under a normal temperature, and has a phase change temperature at which a phase changes from a solid state to a liquid state before the battery cell reaches an upper limit temperature set for the battery cell; a second solid-liquid phase change material that has a heat storage property and has a second phase change temperature higher than a first phase change temperature of the first solid-liquid phase change material; a heat storage container that has thermal conductivity and has an internal space filled with the second solid-liquid phase change material, wherein the heat storage container is housed in the housing space of the casing, and has an outer wall surface that comes in contact with an inner wall surface of the casing. at least one battery cell; a casing that has a heat dissipation property for discharging heat outside the casing and houses the battery cell in a housing space; a first solid-liquid phase change material that directly comes in contact with the battery cell and fills the housing space, maintains a solid state under a normal temperature, and has a phase change temperature at which a phase changes from a solid state to a liquid state before the battery cell reaches an upper limit temperature set for the battery cell; a second solid-liquid phase change material that has a heat storage property and has a second phase change temperature higher than a first phase change temperature of the first solid-liquid phase change material; a heat storage container that has thermal conductivity and has an internal space filled with the second solid-liquid phase change material, wherein the heat storage container is housed in the housing space of the casing, and has an outer wall surface that comes in contact with an inner wall surface of the casing.
A process fluid flow measurement device comprising: a fluid flow member having an inlet with a first diameter and a throat with a second diameter that is smaller than the first diameter; a first process fluid pressure tap disposed proximate the inlet; a second process fluid pressure tap disposed proximate the throat; a differential pressure sensor operably coupled to the first and second process fluid pressure taps (70, 72); differential pressure measurement circuitry coupled to the differential pressure sensor to provide a differential pressure signal related to a difference in pressure between process fluid pressure at the first and second process fluid pressure taps (70, 72); a vortex flowmeter having a shedder bar positioned in the throat to measure a velocity of process fluid flowing therethrough and provide a fluid velocity indication; wherein the differential pressure sensor signal and the fluid velocity indication are used to provide a calculated indication of fluid flow; characterized in that the shedder bar includes a piezoelectric sensor configured to sense vibrations on the shedder bar, and a temperature probe is disposed at the shedder bar to measure the process fluid temperature proximate to the shedder bar, the temperature probe operably coupled to at least one of the differential pressure measurement circuitry and the vortex flowmeter. a fluid flow member having an inlet with a first diameter and a throat with a second diameter that is smaller than the first diameter; a first process fluid pressure tap disposed proximate the inlet; a second process fluid pressure tap disposed proximate the throat; a differential pressure sensor operably coupled to the first and second process fluid pressure taps (70, 72); differential pressure measurement circuitry coupled to the differential pressure sensor to provide a differential pressure signal related to a difference in pressure between process fluid pressure at the first and second process fluid pressure taps (70, 72); a vortex flowmeter having a shedder bar positioned in the throat to measure a velocity of process fluid flowing therethrough and provide a fluid velocity indication; wherein the differential pressure sensor signal and the fluid velocity indication are used to provide a calculated indication of fluid flow; characterized in that the shedder bar includes a piezoelectric sensor configured to sense vibrations on the shedder bar, and a temperature probe is disposed at the shedder bar to measure the process fluid temperature proximate to the shedder bar, the temperature probe operably coupled to at least one of the differential pressure measurement circuitry and the vortex flowmeter.
A continuous process of manufacturing absorbent sheet including forming a wet cellulosic web, applying the web onto a drying cylinder of a dryer, which drying cylinder is provided with a resinous adhesive at a substantially constant add-on rate during steady-state operation, wherein the resin adhesive consists essentially of a polyvinyl alcohol resin and an epihalohydrin resin in substantially fixed proportion in steady-state operation and the dryer is further provided with a dryer hood capable of variable temperature, the improvement comprising controlling build-up of an adhesive coating on the drying cylinder by way of stripping at least a portion of the adhesive coating from the drying cylinder with a cleaning doctor while controlling wet-tack to the drying cylinder by way of a technique selected from the group consisting of: (a) lowering the hood temperature before stripping the coating; (b) changing the resinous adhesive composition before stripping the coating; and (c) increasing the add-on rate of resinous adhesive above the steady-state add-on rate before stripping the coating. (a) lowering the hood temperature before stripping the coating; (b) changing the resinous adhesive composition before stripping the coating; and (c) increasing the add-on rate of resinous adhesive above the steady-state add-on rate before stripping the coating.
Self-supporting reinforcement system for the concrete lining of the inner shell of a tunnel construction having at least an outer layer and an inner layer of a reinforcement and spacers (1, 21), characterized by - tensioning arches or tensioning rings with an adaptable arch length or an adaptable ring circumference, formed from at least two arch segments (23, 24) to form a tunnel reinforcement arch or tunnel reinforcement ring for the reinforcement of the inner shell of the tunnel construction, as support for at least an outer layer made at least of welded wire meshes, - wherein the arch segments (23, 24) are each formed from an individual reinforcement steel rod, - tensioning support bodies with a connecting region to the tensioning arches and with at least one support arm for tensioning the tensioning arches or tensioning rings on the outer shell or rock face wall of the tunnel construction in a supporting manner and so as to produce the spacing with respect to an outer shell or the rock face wall, - first spacers on the tensioning support bodies for supporting on the outer shell or rock face wall of the tunnel construction and for generating the minimum concrete coverage of the installed reinforced concrete parts, and - second spacers between an outer layer and an inner layer of the reinforcement. - tensioning arches or tensioning rings with an adaptable arch length or an adaptable ring circumference, formed from at least two arch segments (23, 24) to form a tunnel reinforcement arch or tunnel reinforcement ring for the reinforcement of the inner shell of the tunnel construction, as support for at least an outer layer made at least of welded wire meshes, - wherein the arch segments (23, 24) are each formed from an individual reinforcement steel rod, - tensioning support bodies with a connecting region to the tensioning arches and with at least one support arm for tensioning the tensioning arches or tensioning rings on the outer shell or rock face wall of the tunnel construction in a supporting manner and so as to produce the spacing with respect to an outer shell or the rock face wall, - first spacers on the tensioning support bodies for supporting on the outer shell or rock face wall of the tunnel construction and for generating the minimum concrete coverage of the installed reinforced concrete parts, and - second spacers between an outer layer and an inner layer of the reinforcement.
A fluid pressure circuit comprising: a tank having a fluid stored therein; a fixed displacement pump configured to pressurize the fluid in the tank to generate a pressurized fluid; a fluid pressure actuator configured to be driven by the pressurized fluid discharged from the fixed displacement pump and to be controlled in accordance with an operation command; a directional switching valve arranged between the fixed displacement pump and the fluid pressure actuator and configured to switch flow passages for the pressurized fluid; an accumulator arranged in a branch flow passage (29, 30) branched from a connection flow passage that connects the fluid pressure actuator and the directional switching valve; an accumulator flow control valve arranged in the branch flow passage (29,30) between the connection flow passage and the accumulator; characterized in that the fluid pressure circuit further comprises a pump flow control valve arranged between the fluid pressure actuator and the fixed displacement pump and configured to diverge a flow rate of the pressurized fluid supplied from the fixed displacement pump into two systems consisting of a first system including the tank and a second system including the fluid pressure actuator, wherein the pump flow control valve is an electromagnetic proportional flow control valve a tank having a fluid stored therein; a fixed displacement pump configured to pressurize the fluid in the tank to generate a pressurized fluid; a fluid pressure actuator configured to be driven by the pressurized fluid discharged from the fixed displacement pump and to be controlled in accordance with an operation command; a directional switching valve arranged between the fixed displacement pump and the fluid pressure actuator and configured to switch flow passages for the pressurized fluid; an accumulator arranged in a branch flow passage (29, 30) branched from a connection flow passage that connects the fluid pressure actuator and the directional switching valve; an accumulator flow control valve arranged in the branch flow passage (29,30) between the connection flow passage and the accumulator; characterized in that the fluid pressure circuit further comprises a pump flow control valve arranged between the fluid pressure actuator and the fixed displacement pump and configured to diverge a flow rate of the pressurized fluid supplied from the fixed displacement pump into two systems consisting of a first system including the tank and a second system including the fluid pressure actuator, wherein the pump flow control valve is an electromagnetic proportional flow control valve
A replaceable cartridge for an easy to carry perfuming device, comprising: a main body part; a plurality of air flow channels provided in the main body part and having both ends that are open; and a fragrance material held in at least a part of an inner surface of the air flow channels; wherein an inner diameter of the air flow channels has a value in the range of 10 to 1.000 μm, and characterized in that an outlet opening of the air flow channels has a tapered shape in which a diameter increases toward an opening end. a main body part; a plurality of air flow channels provided in the main body part and having both ends that are open; and a fragrance material held in at least a part of an inner surface of the air flow channels; wherein an inner diameter of the air flow channels has a value in the range of 10 to 1.000 μm, and characterized in that an outlet opening of the air flow channels has a tapered shape in which a diameter increases toward an opening end.
A method for spacecraft wireless access and networking, the method comprising: determining an orbital position of an orbiting spacecraft; selecting a wireless access point of a terrestrial wireless communication network from a wireless access point database based on the orbital position; receiving a beacon frame signal from the wireless access point at the orbiting spacecraft comprising access point identification information; storing the access point identification information in a non-transitory computer readable medium; pointing an antenna of the orbiting spacecraft to the wireless access point based on the access point identification information; and establishing a communication with the wireless access point using the antenna. determining an orbital position of an orbiting spacecraft; selecting a wireless access point of a terrestrial wireless communication network from a wireless access point database based on the orbital position; receiving a beacon frame signal from the wireless access point at the orbiting spacecraft comprising access point identification information; storing the access point identification information in a non-transitory computer readable medium; pointing an antenna of the orbiting spacecraft to the wireless access point based on the access point identification information; and establishing a communication with the wireless access point using the antenna.
Motor vehicle locking system for a door or panel, comprising a locking mechanism having a catch and a pawl for ratcheting the catch, a pre-ratchet position and a main ratchet position being provided, a drive pulley for an electrical opening device, which drive pulley can be rotated in a motorized manner in an actuating direction in order to trigger the locking mechanism, and a return spring for rotating the drive pulley in the opposite direction to the actuating direction, characterized in that the drive pulley can be rotated in the actuating direction without being influenced by the return spring or at least without a spring load, the drive pulley being able to be rotated in the actuating direction within a freewheel rotational angle range without being influenced by the return spring or at least without spring load and being able to be rotated in the actuating direction within a spring load rotational angle range under spring load, the spring load rotational angle range directly adjoining the freewheel rotational angle range in the actuating direction, the actuating device being configured in such a way that the return spring rotates the drive pulley back counter to the actuating direction only in emergency operation.