mhurhangee/ep-ind-claims huggingface dataset:
A crusher for crushing a pulp sheet, comprising: a cutter configured to rotate about a predetermined horizontal axis; and a casing configured to house the cutter, the cutter having, on an outer periphery thereof, a crushing edge configured to crush the pulp sheet by coming into contact with the pulp sheet; the casing includes a guiding section configured to guide the pulp sheet toward a contact position (m) located higher than a vertical center of the cutter, where the pulp sheet and the crushing edge of the cutter come into contact, from outside of the casing into inside of the casing; characterized by the guiding section guiding the pulp sheet in a horizontal direction toward the contact position (m) from a position upstream of a virtual line orthogonal to a tangent line to a rotational path of the crushing edge at the contact position (m) and passing through the contact position (m) in a rotational direction. a cutter configured to rotate about a predetermined horizontal axis; and a casing configured to house the cutter, the cutter having, on an outer periphery thereof, a crushing edge configured to crush the pulp sheet by coming into contact with the pulp sheet; the casing includes a guiding section configured to guide the pulp sheet toward a contact position (m) located higher than a vertical center of the cutter, where the pulp sheet and the crushing edge of the cutter come into contact, from outside of the casing into inside of the casing; characterized by the guiding section guiding the pulp sheet in a horizontal direction toward the contact position (m) from a position upstream of a virtual line orthogonal to a tangent line to a rotational path of the crushing edge at the contact position (m) and passing through the contact position (m) in a rotational direction.
Operating device for electrical opening of a locking mechanism with an electrical triggering mechanism (9, 10, 11, 12, 13, 14), with which the locking mechanism (1, 3) can be opened by operation of the operating device, and with a switch, which closes on cessation of an applied voltage or falling short of a minimum voltage of a main power source, wherein in the closed state of the switch the locking mechanism can be electrically opened by means of an emergency power supply, characterized in that the switch, which encompasses an electromagnet which is capable of keeping the switch in the open position during cessation of an applied voltage or falling short of a minimum voltage.
An intravascular blood pump for percutaneous insertion into a patient's vasculature, the intravascular blood pump comprising a pumping device and a supply line, wherein the pumping device comprises a pump section, the pump section having a blood flow inlet, a blood flow outlet and an impeller rotatable about an axis of rotation for conveying blood from the blood flow inlet to the blood flow outlet, and a drive section connected to the pump section and adapted to drive the impeller, and wherein the supply line is adapted to supply the drive section at least with electric energy for driving the impeller, characterized in that the pump section is arranged along the axis of rotation between the drive section and the supply line.
An enclosed Platelet-Rich-Plasma separator-concentrator having an ability to separate and concentrate PRP, comprising: a) the centrifugal separator unit comprising a centrifugal drum having an inner wall surface with an upper edge and a lower edge, a drum bottom, and a central axis, an incoming flow tube extending into the centrifugal drum and an outgoing flow tube extending into the centrifugal drum, wherein the drum bottom has a floor sloping downward from the lower edge to a depression, wherein the outgoing flow tube has an inlet positioned adjacent the depression; b) a drive motor having a drive axis connected to the centrifugal separator unit; c) a hollow fiber cartridge having a cartridge inlet, a cartridge outlet, and membrane fibers, the membrane fibers having pores that allow the passage of water and salts while blocking passage of clotting and healing factors present in blood, the cartridge inlet connected to the outgoing tube through a flow passageway; and d) a pump having an inlet port and an outlet port, the inlet port connected to the cartridge outlet through a flow passageway and the outlet port connected to the incoming flow tube through a flow passageway. a) the centrifugal separator unit comprising a centrifugal drum having an inner wall surface with an upper edge and a lower edge, a drum bottom, and a central axis, an incoming flow tube extending into the centrifugal drum and an outgoing flow tube extending into the centrifugal drum, wherein the drum bottom has a floor sloping downward from the lower edge to a depression, wherein the outgoing flow tube has an inlet positioned adjacent the depression; b) a drive motor having a drive axis connected to the centrifugal separator unit; c) a hollow fiber cartridge having a cartridge inlet, a cartridge outlet, and membrane fibers, the membrane fibers having pores that allow the passage of water and salts while blocking passage of clotting and healing factors present in blood, the cartridge inlet connected to the outgoing tube through a flow passageway; and d) a pump having an inlet port and an outlet port, the inlet port connected to the cartridge outlet through a flow passageway and the outlet port connected to the incoming flow tube through a flow passageway.
A coffee making device having a body within which is an internal water tank that is removable, comprising: a drip tray (240, 950); characterised by the water tank further comprising a diversion channel that dispenses an overflow into the drip tray (240, 950), the diversion channel including a partial height wall located between a reservoir and a front-most wall of the water tank, wherein the water tank has a maximum fill height, and an aperture in fluid communication with the diversion channel is located at the maximum fill height, and wherein the diversion channel is integrally formed with the water tank to direct overflow water within the confines of the water tank to the drip-tray (240, 950). a drip tray (240, 950); characterised by the water tank further comprising a diversion channel that dispenses an overflow into the drip tray (240, 950), the diversion channel including a partial height wall located between a reservoir and a front-most wall of the water tank, wherein the water tank has a maximum fill height, and an aperture in fluid communication with the diversion channel is located at the maximum fill height, and wherein the diversion channel is integrally formed with the water tank to direct overflow water within the confines of the water tank to the drip-tray (240, 950).
A method for inspecting a lubricant oil composition containing a base oil and a fullerene, the method comprising: measuring at least one of a lamellar length of said lubricating oil composition and a most abundant diameter in a particle size distribution obtained by a dynamic light scattering method; and selecting said lubricating oil composition whose measured value is within a set range. measuring at least one of a lamellar length of said lubricating oil composition and a most abundant diameter in a particle size distribution obtained by a dynamic light scattering method; and selecting said lubricating oil composition whose measured value is within a set range.
A header for an agricultural harvester including a frame supporting an infeed conveyor, a first epicyclical drive adjacent a forward end of the infeed conveyor and operatively connected to a first cutter bar 242), a second epicyclical drive adjacent the forward end of the infeed conveyor and operatively connected to a second cutter bar, characterized by: a roller shaft extending between the first and second epicyclical drives (224, 226) and operatively connected to the first epicyclical drive, the second epicyclical drive and the infeed conveyor, wherein when the second epicyclical drive rotates in a first direction, the roller shaft rotates the first epicyclical drive in a second direction opposite the first direction or in the same direction as the first direction.
A coating composition comprising - 10.0 to 40.0 wt% of a curable epoxy resin, - 10.0 to 35.0 wt% of a curing agent, - 0.05 to 10.0 wt% of one or more compounds selected from alkaline earth aluminium polyphosphates and their silicates and hydrates; the composition having a solids content of at least 90 wt% and/or a solids volume of at least 90.0 %, when determined according to ASTM D5201. - 10.0 to 40.0 wt% of a curable epoxy resin, - 10.0 to 35.0 wt% of a curing agent, - 0.05 to 10.0 wt% of one or more compounds selected from alkaline earth aluminium polyphosphates and their silicates and hydrates;
A process for the production of low-bacteria milk powders having a whey protein nitrogen index (WPNI) of at least 2, comprising the following steps: (a) removal of solids from raw milk in a method known in itself; (b) skimming of the said raw milk obtained from step (a) to obtain a skim milk fraction and a cream fraction; (c) subjecting said skim milk obtained from step (b) to heat infusion at a temperature of from 120 to 150 °C for a period of from 0.1 to 5 seconds, whereby skim milk and superheated steam are alternately sprayed via concentric ring nozzles into a reaction space; (d) concentration of said treated skim milk obtained from step (c) to a dry matter of 30 to 50 % by weight; (e) subjecting said cream obtained from step (b) to ultra-high heat treatment; (f) blending said skim milk concentrate obtained from step (d) with the temperature treated cream obtained from step (e), (g) subjecting the mixture obtained from step (f) to thermal treatment for a period of at least 15 seconds at a temperature of at least 72 °C; and (h) processing the thermally treated product obtained from step (g) to obtain a dry powder. (a) removal of solids from raw milk in a method known in itself; (b) skimming of the said raw milk obtained from step (a) to obtain a skim milk fraction and a cream fraction; (c) subjecting said skim milk obtained from step (b) to heat infusion at a temperature of from 120 to 150 °C for a period of from 0.1 to 5 seconds, whereby skim milk and superheated steam are alternately sprayed via concentric ring nozzles into a reaction space; (d) concentration of said treated skim milk obtained from step (c) to a dry matter of 30 to 50 % by weight; (e) subjecting said cream obtained from step (b) to ultra-high heat treatment; (f) blending said skim milk concentrate obtained from step (d) with the temperature treated cream obtained from step (e), (g) subjecting the mixture obtained from step (f) to thermal treatment for a period of at least 15 seconds at a temperature of at least 72 °C; and (h) processing the thermally treated product obtained from step (g) to obtain a dry powder.
A modular energy-efficient and safety network cabinet operating with a main blast pipe transferring air of an air-conditioner, comprising: at least one cabinet body; at least one tributary blast pipe, connected the main blast pipe and the cabinet body; a force draft fan, disposed under the cabinet body; a return fan, disposed above the cabinet body; a fire extinguisher, disposed above the cabinet body and full with inert gas; an induction pipe, connecting the fire extinguisher and the cabinet body; an exhaust smoke valve, disposed above the return fan; a line inlet and outlet for strong-and-weak current, disposed at the bottom of the cabinet body; a gas pressure relief opening, disposed at the bottom of the cabinet body; a control system, used to control the temperature and humidity of the cabinet body and to put out fire; wherein when a fire alarm occurs in the network cabinet, the control system closes automatically the force draft fan and return fan the fire extinguisher emits inert-gas and ensures a pressure in the cabinet body; and wherein until the fire alarm is over, the exhaust smoke valve works during a set time in the order to effluent gas and smoke. at least one cabinet body; at least one tributary blast pipe, connected the main blast pipe and the cabinet body; a force draft fan, disposed under the cabinet body; a return fan, disposed above the cabinet body; a fire extinguisher, disposed above the cabinet body and full with inert gas; an induction pipe, connecting the fire extinguisher and the cabinet body; an exhaust smoke valve, disposed above the return fan; a line inlet and outlet for strong-and-weak current, disposed at the bottom of the cabinet body; a gas pressure relief opening, disposed at the bottom of the cabinet body; a control system, used to control the temperature and humidity of the cabinet body and to put out fire; wherein when a fire alarm occurs in the network cabinet, the control system closes automatically the force draft fan and return fan the fire extinguisher emits inert-gas and ensures a pressure in the cabinet body; and wherein until the fire alarm is over, the exhaust smoke valve works during a set time in the order to effluent gas and smoke.
A computer-implemented method comprising: receiving seismic image data of a geologic region and interpretation information of the seismic image data for a geologic feature in the geologic region, wherein the seismic image data comprise a geologic feature class imbalance; preprocessing the received seismic data to shift the geologic feature class imbalance toward a class of the geologic feature, wherein the preprocessing comprises overgrowing a boundary or boundaries of the geologic feature to increase the spatial presence of the geologic feature in the seismic image data to generate training data; training a deep neural network using the training data to generate a trained neural network; and receiving seismic image data of a seismic survey and processing the seismic image data using the trained neural network to output an enhanced seismic image for use in performing a field operation, the enhanced seismic image comprising instances of geologic features that correspond to the class of the geologic feature. receiving seismic image data of a geologic region and interpretation information of the seismic image data for a geologic feature in the geologic region, wherein the seismic image data comprise a geologic feature class imbalance; preprocessing the received seismic data to shift the geologic feature class imbalance toward a class of the geologic feature, wherein the preprocessing comprises overgrowing a boundary or boundaries of the geologic feature to increase the spatial presence of the geologic feature in the seismic image data to generate training data; training a deep neural network using the training data to generate a trained neural network; and receiving seismic image data of a seismic survey and processing the seismic image data using the trained neural network to output an enhanced seismic image for use in performing a field operation, the enhanced seismic image comprising instances of geologic features that correspond to the class of the geologic feature.
Geothermal pipe with external longitudinal fluting, wherein the longitudinal fluting has a fluting depth of between 1.5 and 0.2 mm, preferably between 1.0 and 0.3 and more preferably between 0.6 and 0.4 mm, characterised in that the flutes are trapezoidal, T-shaped or mushroom-shaped in cross-section and in that the fluting is only present on the geothermal pipe in sections.
Arrangement having at least two disconnect terminals (1, 1', 1") and having at least one plug-in unit comprising a plug-in section and a connection section, wherein the at least two disconnect terminals (1, 1', 1") have a first connection section, a second connection section and a switching section with switching contacts (9, 9', 9") located in between, wherein the first connection section is electrically conductively connected to the second connection section by means of the switching contacts (9, 9', 9") in a first switching position and the first connection section is disconnected from the second connection section in a second switching position, wherein the plug-in unit is connected in a pluggable manner via its plug-in section to the second connection section of the at least two disconnect terminals (1, 1', 1"), wherein the plug-in unit has a switching unit which short-circuits terminals (L1, L2, L3) of the connection section of the plug-in unit, characterized in that the switching unit of the plug-in unit interacts with an actuator (21, 21', 21") which is a component of the second connection section of the at least two disconnect terminals (1, 1', 1"), and the at least one plug-in unit with its short-circuiting function and contact sections (25, 25', 25") of the second connection section of the at least two disconnect terminals (1, 1', 1"), which are short-circuited in the second switching position of the at least two disconnect terminals (1, 1', 1"), are arranged one behind the other.
Liquid-phase method for depositing metal layers in holes of an electronic module placed in a hermetic chamber, from a chemical liquid having metal compounds intended to form a metal layer, characterized in that the holes have a depth P and a diameter D such that D>80 μm and P/D > 10, and in that the method has at least one cycle (Cyc) having the following substeps: - M1) Bringing the chamber to a preset pressure P0 and filling the chamber with the liquid, - M2) Degassing the holes by bringing the chamber to a low pressure P1, with P1<P0, - M3) Returning the chamber to the pressure P0 and filling the chamber with the liquid, - M4) Depositing, in the holes, a metal layer issued from the liquid, - M5) Emptying the liquid from the chamber, - M6) Explosively evaporating the liquid remaining in the holes by bringing the chamber to a low pressure P2, with P2<P1<P0, reiterating the cycle (Cyc) having the substeps M1 to M6 at least once to obtain one new metal layer through iteration. - M1) Bringing the chamber to a preset pressure P0 and filling the chamber with the liquid, - M2) Degassing the holes by bringing the chamber to a low pressure P1, with P1<P0, - M3) Returning the chamber to the pressure P0 and filling the chamber with the liquid, - M4) Depositing, in the holes, a metal layer issued from the liquid, - M5) Emptying the liquid from the chamber, - M6) Explosively evaporating the liquid remaining in the holes by bringing the chamber to a low pressure P2, with P2<P1<P0,
An armor system for protection from a ballistic strike consisting of projectile of mass M 1 of 2 to 100 grams, and velocity V1 ranging from about 300 to 1500 meters/second, comprising: a flexible planar array of solid elements, said planar array having a strike side and a back side, each said solid element having a mass M 2 not greater than 2M 1; wherein the solid elements comprise a ceramic core enveloped or wrapped in a wrap of one or more layers of fiber and/or metallic materials; a fiber pack is provided at the back side of the array with a flexible backer layer between the fiber pack and the array; individual said solid elements are separable from said planar array and fracture on the occurrence of a said ballistic strike while remaining substantially intact and combining substantially all of its mass with the mass of said projectile, such that a said projectile and a separated said solid element continue together as a combined unit having a combined mass M 1 + M 2, a common residual velocity V R, and an impact area of the combined solid element and projectile that is much larger than an impact area of the projectile alone to be transported through the flexible backer layer into the fiber pack; and the flexible backer fabric layer is bonded by an adhesive matrix to the back side of said planar array, said flexible backer fabric layer being configured to fail in tensile upon the occurrence of a ballistic strike such that V R is equal or greater than 1/2 (M 1 V 1)/(M 1 +M 2). a flexible planar array of solid elements, said planar array having a strike side and a back side, each said solid element having a mass M 2 not greater than 2M 1; wherein the solid elements comprise a ceramic core enveloped or wrapped in a wrap of one or more layers of fiber and/or metallic materials; a fiber pack is provided at the back side of the array with a flexible backer layer between the fiber pack and the array; individual said solid elements are separable from said planar array and fracture on the occurrence of a said ballistic strike while remaining substantially intact and combining substantially all of its mass with the mass of said projectile, such that a said projectile and a separated said solid element continue together as a combined unit having a combined mass M 1 + M 2, a common residual velocity V R, and an impact area of the combined solid element and projectile that is much larger than an impact area of the projectile alone to be transported through the flexible backer layer into the fiber pack; and the flexible backer fabric layer is bonded by an adhesive matrix to the back side of said planar array, said flexible backer fabric layer being configured to fail in tensile upon the occurrence of a ballistic strike such that V R is equal or greater than 1/2 (M 1 V 1)/(M 1 +M 2).
A method for processing a composite spread spectrum signal received over a communications interface from multiple transmitters (20 or 22), comprising: storing composite spread data received from the multiple transmitters in a data memory at a first rate corresponding to a rate at which the composite data is received over the communications interface, the method being characterized by: determining for each transmitted signal during a first time period an actual spreading factor associated with a first frame of spread data for the transmitted signal which is included in a frame of composite spread data stored in the data memory, and during a second time period following the first time period, reading out the frame of the composite spread data from the data memory corresponding to the first frame of spread data for the transmitted signal at a second rate greater than the first rate an despreading the readout data using the determined spreading factor. storing composite spread data received from the multiple transmitters in a data memory at a first rate corresponding to a rate at which the composite data is received over the communications interface, determining for each transmitted signal during a first time period an actual spreading factor associated with a first frame of spread data for the transmitted signal which is included in a frame of composite spread data stored in the data memory, and during a second time period following the first time period, reading out the frame of the composite spread data from the data memory corresponding to the first frame of spread data for the transmitted signal at a second rate greater than the first rate an despreading the readout data using the determined spreading factor.