mhurhangee/ep-ind-claims huggingface dataset:
A dismountable and dismantlable loading system for loading a reactor with bulk material, comprising: (a) a dismantlable rail system with a multiplicity of rail segments (3A, 3B) which can be connected to one another to form a self-contained rail system 3, wherein the individual rail segments (3A, 3B) have attachment means (11A, 11B, 11C, 11D) for connecting the rail segments to one another, (b) at least one rail vehicle for operation on the rail system, having a holding device for containers for receiving the bulk material, and (c) at least one filling station (45A, 45B, 45C, 45D) for receiving the bulk material, having a hose present in the floor of the filling station for transporting the bulk material into various areas (2A, 2B) of the reactor. (a) a dismantlable rail system with a multiplicity of rail segments (3A, 3B) which can be connected to one another to form a self-contained rail system 3, wherein the individual rail segments (3A, 3B) have attachment means (11A, 11B, 11C, 11D) for connecting the rail segments to one another, (b) at least one rail vehicle for operation on the rail system, having a holding device for containers for receiving the bulk material, and (c) at least one filling station (45A, 45B, 45C, 45D) for receiving the bulk material, having a hose present in the floor of the filling station for transporting the bulk material into various areas (2A, 2B) of the reactor.
A silicon nitride sintered body, comprising crystals of oxynitrides including calcium, aluminum, and silicon in a grain boundary phase which is lying between silicon nitride crystals, the calcium, the aluminum and the silicon constituting the crystals of oxynitrides consisting of 1.3 to 32.0 mass% calcium, 0.1 to 25.0 mass% aluminum, and a balance silicon, wherein the crystals of oxynitrides are of a type in which a first peak appears at a diffraction angle 2θ ranging from 30.4° to 32.4° and a second peak appears at a diffraction angle 2θ ranging from 51.0° to 53.0° in an X-ray diffraction chart, wherein a half-value width of the first peak is greater than or equal to 0.1° but less than or equal to 0.9°, and wherein a content of the crystals of oxynitrides falls in a range of 1 to 10 mass% based on a total mass of crystals constituting the silicon nitride sintered body defined as 100 mass%.
An abrasive article comprising: a bonded abrasive body including: a bond material comprising a vitrified material; the bonded abrasive body further includes abrasive particles comprising a superabrasive material contained in the bond material; a porosity of at least 50 vol% of the total volume of the bonded abrasive body; and characterised in that the bond material and the abrasive particles have a difference in coefficient of thermal expansion (ΔCTE) of not greater than 5.5 ppm/°C, wherein ΔCTE is defined as a difference between a coefficient of thermal expansion of the bond material and a CTE of the abrasive particles. a bonded abrasive body including: a bond material comprising a vitrified material; the bonded abrasive body further includes abrasive particles comprising a superabrasive material contained in the bond material; a porosity of at least 50 vol% of the total volume of the bonded abrasive body; and characterised in that the bond material and the abrasive particles have a difference in coefficient of thermal expansion (ΔCTE) of not greater than 5.5 ppm/°C, wherein ΔCTE is defined as a difference between a coefficient of thermal expansion of the bond material and a CTE of the abrasive particles. a bond material comprising a vitrified material; the bonded abrasive body further includes abrasive particles comprising a superabrasive material contained in the bond material; a porosity of at least 50 vol% of the total volume of the bonded abrasive body; and characterised in that the bond material and the abrasive particles have a difference in coefficient of thermal expansion (ΔCTE) of not greater than 5.5 ppm/°C, wherein ΔCTE is defined as a difference between a coefficient of thermal expansion of the bond material and a CTE of the abrasive particles.
A container comprising: a finish defining an opening; a shoulder portion extending from the finish; a body extending from the shoulder portion in a direction parallel with a longitudinal axis and defining a chamber; and a base portion extending at an end of the body opposite to the shoulder portion and moveable from an as-blown position to an expanded position and from the expanded position to a retracted position, and the base portion including a standing ring, a pivot area, and a central area, wherein the pivot area is disposed between the standing ring and the central area, and the pivot area flexes and moves the central area along the longitudinal axis when the base portion moves from the as-blown position to the expanded position, and from the expanded position to the retracted position, wherein the base portion includes a planar ring, a planar portion, and a pushup portion, wherein the planar ring is pivotable and moves the planar portion and the pushup portion along the longitudinal axis when the base portion moves from the as-blown position to the expanded position and from the expanded position to the retracted position, characterized in that the pushup portion extends from the planar portion in an upward direction toward the finish, and in that the planar portion is substantially parallel to a plane extending along an axis perpendicular to the longitudinal axis in the as-blown position, the expanded position, and the retracted position. a finish defining an opening; a shoulder portion extending from the finish; a body extending from the shoulder portion in a direction parallel with a longitudinal axis and defining a chamber; and a base portion extending at an end of the body opposite to the shoulder portion and moveable from an as-blown position to an expanded position and from the expanded position to a retracted position, and the base portion including a standing ring, a pivot area, and a central area, wherein the pivot area is disposed between the standing ring and the central area, and the pivot area flexes and moves the central area along the longitudinal axis when the base portion moves from the as-blown position to the expanded position, and from the expanded position to the retracted position, wherein the base portion includes a planar ring, a planar portion, and a pushup portion, wherein the planar ring is pivotable and moves the planar portion and the pushup portion along the longitudinal axis when the base portion moves from the as-blown position to the expanded position and from the expanded position to the retracted position, characterized in that the pushup portion extends from the planar portion in an upward direction toward the finish, and in that the planar portion is substantially parallel to a plane extending along an axis perpendicular to the longitudinal axis in the as-blown position, the expanded position, and the retracted position.
A method for wireless communications by a user equipment, UE, comprising: detecting that a first channel is not usable for communicating via a first radio access technology, RAT, wherein the first channel is not usable for communicating via the first RAT because of interfering activity on the first channel due to a second RAT; adding the first channel to a list of one or more blocked channels based on the detection that the first channel is not usable; receiving a message to redirect from a second channel to the first channel from a network node; determining that the first channel is in the list of one or more blocked channels not usable for the first RAT; and in response to the determination, taking one or more actions, wherein the one or more actions include treating the message to redirect from the second channel to the first channel as a connection release command without redirection. detecting that a first channel is not usable for communicating via a first radio access technology, RAT, wherein the first channel is not usable for communicating via the first RAT because of interfering activity on the first channel due to a second RAT; adding the first channel to a list of one or more blocked channels based on the detection that the first channel is not usable; receiving a message to redirect from a second channel to the first channel from a network node; determining that the first channel is in the list of one or more blocked channels not usable for the first RAT; and in response to the determination, taking one or more actions, wherein the one or more actions include treating the message to redirect from the second channel to the first channel as a connection release command without redirection.
A method for producing a processed meat food from meat raw material derived from pig, cow, fowl, sheep, goat, horse, camel, pigeon, wild duck, domestic duck, quail, or alpaca, comprising: using arginine or its salt and transglutaminase, further comprising using a calcium salt or a magnesium salt, wherein the addition amount of the arginine or its salt is from 0.000001 g to 0.1 g as reduced into arginine per gram of the meat raw material, the addition amount of the transglutaminase is from 0.0001 U to 100 U per gram of the meat raw material, and the addition amount of the calcium salt is from 0.000001 g to 0.05 g as reduced into calcium per gram of the meat raw material, or the addition amount of the magnesium salt is from 0.000001 g to 0.05 g as reduced into magnesium per gram of the meat raw material. using arginine or its salt and transglutaminase, further comprising using a calcium salt or a magnesium salt, wherein the addition amount of the arginine or its salt is from 0.000001 g to 0.1 g as reduced into arginine per gram of the meat raw material, the addition amount of the transglutaminase is from 0.0001 U to 100 U per gram of the meat raw material, and the addition amount of the calcium salt is from 0.000001 g to 0.05 g as reduced into calcium per gram of the meat raw material, or the addition amount of the magnesium salt is from 0.000001 g to 0.05 g as reduced into magnesium per gram of the meat raw material.
Method for protecting a radio-frequency power amplifier having a high output power and a high efficiency against faulty termination, wherein the radio-frequency power amplifier comprises two parallel output stages; wherein a mismatch protective circuit formed by a waveguide coupler is connected to the radio-frequency power amplifier on the output side, wherein first and second voltages are derived from first and second detector diodes A and B, respectively, of the mismatch protective circuit, said voltages being proportional to the power levels present at the detector diodes, wherein the first voltage corresponds to the useful power fed into the output and the second voltage corresponds to the reflected power, wherein the derived voltages are fed to a control circuit, and wherein the control circuit switches the output stage or output stages of the amplifier or of the amplifiers off or on depending on whether a predefined reference voltage is exceeded or undershot by the voltage derived from diode B, and wherein the waveguide coupler is designed in such a way that the coupling attenuation into the respectively coupled port is lower than the attenuation into the respectively decoupled port and thereby enables an unambiguous assignment of the signal levels present to the first or second detector diode, wherein the outputs of the output stages are combined by means of a coupler functioning as adder and wherein the mismatch protective circuit is integrated into the coupler, such that the throughput losses of the overall arrangement of the radio-frequency power amplifier can be reduced.
An electro hydrodynamic production method, the method comprising: - arranging an electro hydrodynamic device inside an enclosure; - distributing positive and/or negative ions inside the enclosure during a charging period with a certain defined amount of power, wherein the distribution of the positive and/or the negative ions inside the enclosure is performed so that a predefined amount of charge is set on the interior of the enclosure; - within a predetermined period of time after the charging period has ended, activating the electrospinning device so as to create a product; - removing the product from the device. - arranging an electro hydrodynamic device inside an enclosure; - distributing positive and/or negative ions inside the enclosure during a charging period with a certain defined amount of power, wherein the distribution of the positive and/or the negative ions inside the enclosure is performed so that a predefined amount of charge is set on the interior of the enclosure; - within a predetermined period of time after the charging period has ended, activating the electrospinning device so as to create a product; - removing the product from the device.
A method for preparing an article comprising a nanolaminated brass coating, the method comprising: (a) providing a polymeric substrate; (b) contacting at least a portion of the polymeric substrate with an electrolyte containing metal ions of zinc and copper, and optionally containing additional metal ions, wherein the electrolyte is in contact with an anode; and (c) applying an electric current across the polymeric substrate and the anode and varying in time one or more of: the amplitude of the electrical current, the frequency of the electric current, the average electrical current, the offset of an alternating current, the ratio of positive current and negative current, and combinations thereof, electrolyte temperature, electrolyte additive concentration, and electrolyte agitation, in order to produce the nanolaminated brass coating having a desired thickness and having periodic layers of (i) electrodeposited species and/or (ii) electrodeposited species microstructures; wherein the periodic layers each have thicknesses from 2 nanometers (nm) to 2,000 nm; and wherein the nanolaminated brass coating comprises greater than 50 of the periodic layers, (a) providing a polymeric substrate; (b) contacting at least a portion of the polymeric substrate with an electrolyte containing metal ions of zinc and copper, and optionally containing additional metal ions, wherein the electrolyte is in contact with an anode; and (c) applying an electric current across the polymeric substrate and the anode and varying in time one or more of: the amplitude of the electrical current, the frequency of the electric current, the average electrical current, the offset of an alternating current, the ratio of positive current and negative current, and combinations thereof, electrolyte temperature, electrolyte additive concentration, and electrolyte agitation, in order to produce the nanolaminated brass coating having a desired thickness and having periodic layers of (i) electrodeposited species and/or (ii) electrodeposited species microstructures; wherein the periodic layers each have thicknesses from 2 nanometers (nm) to 2,000 nm; and wherein the nanolaminated brass coating comprises greater than 50 of the periodic layers,
Device for removing hair from, photorejuvenating and/or vascular treatment of part of a human body by emitting light pulses, comprising: - a handpiece for applying the light pulses to the part of the body, the handpiece being able to move in relation to the body and comprising a window for outputting the light pulses onto a localized area of the part of the body, and - at least one projection system (90, 92) for projecting guidance information onto the part of the body in order to guide the operator during the treatment and/or information for assisting with the location of the handpiece and/or the body, characterized in that the projection system (90, 92) at least partially illuminates the part of the body to be treated in order to distinguish between the treated areas and the untreated areas of the part of the body to be treated. - a handpiece for applying the light pulses to the part of the body, the handpiece being able to move in relation to the body and comprising a window for outputting the light pulses onto a localized area of the part of the body, and - at least one projection system (90, 92) for projecting guidance information onto the part of the body in order to guide the operator during the treatment and/or information for assisting with the location of the handpiece and/or the body, characterized in that the projection system (90, 92) at least partially illuminates the part of the body to be treated in order to distinguish between the treated areas and the untreated areas of the part of the body to be treated.
A program executable on a data processing device, usable for controlling the data processing device, that when it is run on a data processing device configures the data processing device to prohibit further execution of the program on the data processing device under a condition where license information is not input to the data processing device within a limiting period set for the license information, and to enable further execution of the program on the data processing device under a condition where license information is input to the data processing device within said limiting period, the license information being provided by a license registration device after registration of a license for use of the program on the data processing device, whereby further execution comprises: storing time information in association with the license information, the time information indicating a cancelable time that arrives at or after an expiration time of the limiting period; accepting input of a disabling command; disabling use of the program upon accepting the input of the disabling command; and providing (S330,S815), if the cancelable time has arrived (S805:Yes) and if the disabling command has been accepted, license cancel information necessary for canceling the license. storing time information in association with the license information, the time information indicating a cancelable time that arrives at or after an expiration time of the limiting period; accepting input of a disabling command; disabling use of the program upon accepting the input of the disabling command; and providing (S330,S815), if the cancelable time has arrived (S805:Yes) and if the disabling command has been accepted, license cancel information necessary for canceling the license.
Fastener for a sunshade, which fastener has gripping means (12, 14) for attaching to an edge rail of the sunshade and a suspension element for attaching to an edge profile of a glazing, the suspension element comprising a support surface to be placed against the edge profile or part of the edge profile, whereby the suspension element comprises a supporting element, a base and a first side, whereby the edge profile or part of the edge profile of the glazing can be loosely fitted between the supporting element and the first side, and whereby the suspension element is dimensioned to loosely surround part of the edge profile of the glazing and whereby said support surface has at least one friction element increasing the friction between the edge profile and the support surface, characterized in that the fastener is a substantially rigid piece, in that the at least one friction element comprises a substantially rigid projection (34a, 34b, 34c) protruding from the level of the support surface, the projection (34a, 34b, 34c) being provided with at least one point to be mounted against the edge profile of the glazing, and in that the at least one friction element is located in the base.
A cutting device for cutting an optical fiber running in a first direction, characterized by: a supporting piece having a free end and a fixed end and having resilience; a cutting blade supported by the supporting piece and so disposed as to come in contact with the optical fiber to make a right angle with the optical fiber at a point of the contact; and a driving device configured to press the supporting piece in a second direction in a plane perpendicular to the first direction, the second direction being not intersecting with the first direction. a supporting piece having a free end and a fixed end and having resilience; a cutting blade supported by the supporting piece and so disposed as to come in contact with the optical fiber to make a right angle with the optical fiber at a point of the contact; and a driving device configured to press the supporting piece in a second direction in a plane perpendicular to the first direction, the second direction being not intersecting with the first direction.
An indium cylindrical target comprising crystal grains whose average size is 1 mm to 20 mm over its surface to be sputtered, wherein the standard deviation of average crystal grain sizes measured at positions separated by 90° along its circumference is 6 mm or less at each of its central portion, its one end portion and its another end portion in a longitudinal direction.
An R-T-E flaked cereal, comprising: A. 85 to 98 % (dry weight) of a cooked cereal dough comprising a parboiled medium grain rice and a second cereal ingredient in a weight ratio of parboiled medium grain rice to second cereal ingredient ranging from 1:2 to 2:1 and wherein the cooked cereal dough is heterogeneous having a first discrete dispersed portion defined by discernible individual pieces provided by the parboiled medium grain rice and a second continuous portion provided by the second cereal ingredient; B. 2% to 5% moisture. A. 85 to 98 % (dry weight) of a cooked cereal dough comprising a parboiled medium grain rice and a second cereal ingredient in a weight ratio of parboiled medium grain rice to second cereal ingredient ranging from 1:2 to 2:1 and wherein the cooked cereal dough is heterogeneous having a first discrete dispersed portion defined by discernible individual pieces provided by the parboiled medium grain rice and a second continuous portion provided by the second cereal ingredient; B. 2% to 5% moisture.
A microelectromechanical loudspeaker system implemented as a system-on-chip or system-in-package, comprising: a microelectromechanical sound-generating device implemented in a microelectromechanical system, MEMS, wherein the MEMS comprises a cavity (250, 551-553) formed between a planar cover, a planar base and circumferential side walls provided between the cover and the base, wherein the MEMS further comprises a plurality of movable actuators for generating sound, wherein the actuators (24, 240) are provided in the cavity (250, 551-553) between the cover and the base and the actuators (24, 240) are movable in a plane that is transverse to a direction of sound transmission of the microelectromechanical sound-generating device, and wherein the cover comprises a plurality of sound outlet openings (202-204, 212) to emit sound in the direction of sound transmission which is transverse to the cover; a microphone (610, 910) mounted on the cover or integrated in the cover, wherein the microphone (610, 910) is positioned adjacent to at least one sound outlet opening of the cover. a microelectromechanical sound-generating device implemented in a microelectromechanical system, MEMS, wherein the MEMS comprises a cavity (250, 551-553) formed between a planar cover, a planar base and circumferential side walls provided between the cover and the base, wherein the MEMS further comprises a plurality of movable actuators for generating sound, wherein the actuators (24, 240) are provided in the cavity (250, 551-553) between the cover and the base and the actuators (24, 240) are movable in a plane that is transverse to a direction of sound transmission of the microelectromechanical sound-generating device, and wherein the cover comprises a plurality of sound outlet openings (202-204, 212) to emit sound in the direction of sound transmission which is transverse to the cover; a microphone (610, 910) mounted on the cover or integrated in the cover, wherein the microphone (610, 910) is positioned adjacent to at least one sound outlet opening of the cover.