mhurhangee/ep-ind-claims huggingface dataset:
Operating method for a numerical control unit, - wherein the numerical control unit has access to a subprogram which can be executed by the numerical control unit, - wherein a production machine can be controlled by the numerical control unit by executing the sub-program, - wherein a selection command is predetermined to the numerical control unit by a user by way of a user interface, by means of which at least one program instruction of a sequence of program instructions of the subprogram is selected, - wherein the numerical control unit conveys an item of information (ident) identifying the at least one selected program instruction via a computer-computer connection directly or indirectly to a CAM system, by means of which the sub-program was generated, - wherein the numerical control unit accepts a parameterised description of the sequence of program instructions containing the at least one selected program instruction via the computer-computer connection from the CAM system, - wherein the numerical control unit outputs the parameterised description via the user interface to the user of the numerical control unit, - wherein the numerical control unit accepts a change in the parameterised description from the user, - wherein the numerical control unit transmits the modified parameterised description to the CAM system and - wherein the numerical control unit accepts a modified sub-program (TP') which corresponds to the modified parameterised description from the CAM system. - wherein the numerical control unit has access to a subprogram which can be executed by the numerical control unit, - wherein a production machine can be controlled by the numerical control unit by executing the sub-program, - wherein a selection command is predetermined to the numerical control unit by a user by way of a user interface, by means of which at least one program instruction of a sequence of program instructions of the subprogram is selected, - wherein the numerical control unit conveys an item of information (ident) identifying the at least one selected program instruction via a computer-computer connection directly or indirectly to a CAM system, by means of which the sub-program was generated, - wherein the numerical control unit accepts a parameterised description of the sequence of program instructions containing the at least one selected program instruction via the computer-computer connection from the CAM system, - wherein the numerical control unit outputs the parameterised description via the user interface to the user of the numerical control unit, - wherein the numerical control unit accepts a change in the parameterised description from the user, - wherein the numerical control unit transmits the modified parameterised description to the CAM system and - wherein the numerical control unit accepts a modified sub-program (TP') which corresponds to the modified parameterised description from the CAM system.
A method, comprising: operating a turbocharger so as to advance pressurized air (i) from the turbocharger to a combustion engine and (ii) from the turbocharger to a thermal regenerator of an emission abatement device via a flow path not including any combustion section of the engine; characterised in that the method further comprises dividing the pressurized air at a junction into an engine flow path and a thermal regenerator flow path, advancing pressurised air in the thermal regenerator flow path into the thermal regenerator; positioning an intercooler in the engine flow path between the junction and the combustion engine; cooling the engine air stream with the intercooler prior to advancing the pressurized air to the combustion engine; advancing exhaust gas to the thermal regenerator; and advancing heated exhaust gas from the thermal regenerator to a particulate filter of the emission abatement device to burn particulate matter trapped by the particulate filter. operating a turbocharger so as to advance pressurized air (i) from the turbocharger to a combustion engine and (ii) from the turbocharger to a thermal regenerator of an emission abatement device via a flow path not including any combustion section of the engine; characterised in that the method further comprises dividing the pressurized air at a junction into an engine flow path and a thermal regenerator flow path, advancing pressurised air in the thermal regenerator flow path into the thermal regenerator; positioning an intercooler in the engine flow path between the junction and the combustion engine; cooling the engine air stream with the intercooler prior to advancing the pressurized air to the combustion engine; advancing exhaust gas to the thermal regenerator; and advancing heated exhaust gas from the thermal regenerator to a particulate filter of the emission abatement device to burn particulate matter trapped by the particulate filter.
An apparatus configured to encode or decode video information, the apparatus comprising: a memory configured to store video information associated with a reference layer and an enhancement layer, the reference layer comprising a reference layer picture having multiple slices, and the enhancement layer comprising an enhancement layer picture corresponding to the RL picture; and a processor in communication with the memory, the processor configured to: generate an inter-layer reference picture (ILRP) by upsampling the RL picture, the ILRP having a single slice associated therewith; set slice type and reference picture list information of the single slice of the ILRP equal to corresponding slice type and reference picture list information of one of the multiple slices of the RL picture; and use the ILRP to code at least a portion of the EL picture. a memory configured to store video information associated with a reference layer and an enhancement layer, the reference layer comprising a reference layer picture having multiple slices, and the enhancement layer comprising an enhancement layer picture corresponding to the RL picture; and a processor in communication with the memory, the processor configured to: generate an inter-layer reference picture (ILRP) by upsampling the RL picture, the ILRP having a single slice associated therewith; set slice type and reference picture list information of the single slice of the ILRP equal to corresponding slice type and reference picture list information of one of the multiple slices of the RL picture; and use the ILRP to code at least a portion of the EL picture. generate an inter-layer reference picture (ILRP) by upsampling the RL picture, the ILRP having a single slice associated therewith; set slice type and reference picture list information of the single slice of the ILRP equal to corresponding slice type and reference picture list information of one of the multiple slices of the RL picture; and use the ILRP to code at least a portion of the EL picture.
A detection system configured for distinguishing a moving living object, such as for example a human being, from a moving machine object in a space, wherein the machine object moves in a pre-defined and fixed manner, the system comprising: - an imaging apparatus configured for producing a plurality of images over time of at least a part of the space; - a processor configured for determining motion signals of the moving living object and the moving machine object from the plurality of images, wherein the motion signals are indicative of a motion in the space of the living object and the machine object; - characterized in that the processor is further configured for transforming the motion signals to a frequency domain by performing a Fast Fourier Transform procedure and distinguish in the frequency domain between motion signals related to moving living objects and motion signals related to moving machine objects and for detecting at least one of the living object and the machine object in the part of the space on the basis of the distinguished motion signals, wherein motion signals that are concentrated in frequency bands are indicative of a machine object, and wherein motion signals that are uniformly distributed are indicative of a living object. - an imaging apparatus configured for producing a plurality of images over time of at least a part of the space; - a processor configured for determining motion signals of the moving living object and the moving machine object from the plurality of images, wherein the motion signals are indicative of a motion in the space of the living object and the machine object; - characterized in that the processor is further configured for transforming the motion signals to a frequency domain by performing a Fast Fourier Transform procedure and distinguish in the frequency domain between motion signals related to moving living objects and motion signals related to moving machine objects and for detecting at least one of the living object and the machine object in the part of the space on the basis of the distinguished motion signals, wherein motion signals that are concentrated in frequency bands are indicative of a machine object, and wherein motion signals that are uniformly distributed are indicative of a living object.
An oral pharmaceutical composition in dose unit form comprising a physiologically tolerable calcium compound within a unitary carrier body, said body comprising a soft, chewable, gelled oil-in-water emulsion, wherein the calcium compound is dispersed in one or both of the oil and aqueous phases of the emulsion, and wherein the calcium content per dose unit is at least 125 mg Ca, and further wherein the aqueous phase comprises gelatin as a gelling agent in an amount of 5 to 50% wt. of the aqueous phase, and the weight of said dose unit is 1,000 mg to 5,000 mg.
A light emitting diode package comprising: a substrate; an electrode layer on the substrate; a light emitting diode on the substrate and electrically connected to the electrode layer; a filling enclosing the light emitting diode; a filling pattern formed on the top surface of the filling; and a photoresist pattern formed on the top surface of the filling pattern, wherein the filling pattern is formed by etching the top surface of the filling using the photoresist pattern as a mask, and wherein the filling pattern and the photoresist pattern function as light extraction layers. a substrate; an electrode layer on the substrate; a light emitting diode on the substrate and electrically connected to the electrode layer; a filling enclosing the light emitting diode; a filling pattern formed on the top surface of the filling; and a photoresist pattern formed on the top surface of the filling pattern, wherein the filling pattern is formed by etching the top surface of the filling using the photoresist pattern as a mask, and wherein the filling pattern and the photoresist pattern function as light extraction layers.
Structure for manufacturing vascular prostheses, having fibers that are adhesively bonded in certain places and that have a permeability for air between 0.5 ml/min*cm 2 and 1.5 ml/min*cm 2, wherein the structure comprises a non-woven material and the non-woven material has biocompatible properties, characterized in that it has at least a single-sided coating, which reduces the permeability of the structure to below 0.2 ml/min*cm 2.
A well tool in a well operation in a borehole, comprising: a first component having a first device; a second component having a second device and a passage for receiving the first component; an orientation assembly configured to cause a predetermined relative orientation between the first and the second component; and a coupling device operatively coupling the first device with the second device upon the orientation assembly orienting the first component with the second component in the predetermined relative orientation, the coupling device communicating at least one of power and information between the first and the second device; characterised in that: the first component is a drill string and the second component is a liner assembly. a first component having a first device; a second component having a second device and a passage for receiving the first component; an orientation assembly configured to cause a predetermined relative orientation between the first and the second component; and a coupling device operatively coupling the first device with the second device upon the orientation assembly orienting the first component with the second component in the predetermined relative orientation, the coupling device communicating at least one of power and information between the first and the second device; characterised in that: the first component is a drill string and the second component is a liner assembly.
A secondary battery comprising: a positive electrode including a positive electrode active material layer having a positive electrode active material; a negative electrode including a negative electrode active material layer having a negative electrode active material; and an electrolyte, wherein a curve indicating change of a potential with respect to a capacity (V vs. Li/Li +), of the positive electrode active material, has at least a plateau region and a potential rising region in which the potential drastically rises and changes in a charge end stage, the negative electrode active material contains titanium-containing inorganic oxide, and the secondary battery satisfies Formula, Formula, and Formula below: 1.005 ≤ Aa / Ac ≤ 1.08 wherein, Ac is an electrode area (cm 2) of the positive electrode and Aa is an electrode area (cm 2) of the negative electrode; 1.03 ≤ Q A 1 / Q C 1 wherein, Q C1 (mAh/cm 2 is a first positive electrode charge capacity per unit area and Q A1 (mAh/cm 2) is a first negative electrode charge capacity per unit area; and 0.90 ≤ Q CL / Q AL ≤ 1.10 wherein, Q CL (mAh/cm 2) is an irreversible capacity per unit area of the positive electrode and Q AL (mAh/cm 2) is an irreversible capacity per unit area of the negative electrode, wherein Q CL and Q AL are measured using a coin cell having a Li metal counter electrode, wherein a current at the time of a charge and discharge is 0.2 C. a positive electrode including a positive electrode active material layer having a positive electrode active material; a negative electrode including a negative electrode active material layer having a negative electrode active material; and an electrolyte, wherein a curve indicating change of a potential with respect to a capacity (V vs. Li/Li +), of the positive electrode active material, has at least a plateau region and a potential rising region in which the potential drastically rises and changes in a charge end stage, the negative electrode active material contains titanium-containing inorganic oxide, and the secondary battery satisfies Formula, Formula, and Formula below: 1.005 ≤ Aa / Ac ≤ 1.08 wherein, Ac is an electrode area (cm 2) of the positive electrode and Aa is an electrode area (cm 2) of the negative electrode; 1.03 ≤ Q A 1 / Q C 1 wherein, Q C1 (mAh/cm 2 is a first positive electrode charge capacity per unit area and Q A1 (mAh/cm 2) is a first negative electrode charge capacity per unit area; and 0.90 ≤ Q CL / Q AL ≤ 1.10 wherein, Q CL (mAh/cm 2) is an irreversible capacity per unit area of the positive electrode and Q AL (mAh/cm 2) is an irreversible capacity per unit area of the negative electrode, wherein Q CL and Q AL are measured using a coin cell having a Li metal counter electrode, wherein a current at the time of a charge and discharge is 0.2 C. wherein, Q CL (mAh/cm 2) is an irreversible capacity per unit area of the positive electrode and Q AL (mAh/cm 2) is an irreversible capacity per unit area of the negative electrode, wherein Q CL and Q AL are measured using a coin cell having a Li metal counter electrode, wherein a current at the time of a charge and discharge is 0.2 C.
Frictional damper comprising a. a housing (2; 2a) which has a longitudinal axis, b. a plunger (4; 4a) which can be moved along the longitudinal axis, c. a frictional unit for generating a frictional force on the plunger (4; 4a), the frictional unit comprising i. at least one friction lining for bearing rubbingly against the plunger (4; 4a), ii. a friction lining carrier, on which the at least one friction lining is held, wherein the friction lining carrier is arranged such that it can be moved relative to the plunger (4; 4a) in the housing (2; 2a) between a pulled-out position and a pushed-in position, wherein a pulled-out friction acts in the pulled-out position, which pulled-out friction is different from the pushed-in friction which acts in the pushed-in position, wherein the friction lining carrier is arranged in the housing (2; 2a) such that it can be tilted about a tilting axis, the tilting axis being arranged transversely with respect to the longitudinal axis, characterized in that the friction lining carrier has a through opening, through which the plunger (4; 4a) is guided. a. a housing (2; 2a) which has a longitudinal axis, b. a plunger (4; 4a) which can be moved along the longitudinal axis, c. a frictional unit for generating a frictional force on the plunger (4; 4a), the frictional unit comprising i. at least one friction lining for bearing rubbingly against the plunger (4; 4a), ii. a friction lining carrier, on which the at least one friction lining is held, i. at least one friction lining for bearing rubbingly against the plunger (4; 4a), ii. a friction lining carrier, on which the at least one friction lining is held,
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers (41, 43), each formed of reinforcing elements inserted between two calendering layers of rubber compound, itself being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the tensile modulus of elasticity at 10% elongation of at least one calendering layer of at least one working crown layer (41, 43) being less than 8.5 MPa, the measurement of said modulus being performed under tension according to standard AFNOR-NFT-46002 of September 1988 in normal temperature and relative humidity conditions according to standard AFNOR-NFT-40101 of December 1979, the maximum value of tan(δ), denoted tan(δ)max, of said at least one calendering layer of at least one working crown layer (41, 43) being less than 0.100, the measurement of tan(δ) being performed according to Standard ASTM D 5992-96, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one obliquely-oriented cut, an obliquely-oriented cut being a cut in which the mean plane of at least a portion of the walls of said cut forms an angle with a radial plane of between 35° and 80°, in that the depth, measured on a new tyre in at least said central part, of said at least one obliquely-oriented cut is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f) measured at the bottom of said at least one obliquely-oriented cut to the width (d S) measured at the surface of the tread on a new tyre of said at least one obliquely-oriented cut is greater than 1.2.
A proximity detector for a connected portable device that includes an RF transmitter, the proximity detector being arranged to detect the proximity of a human body part to a sensor electrode and to generate an instruction for setting a power of the RF transmitter to a reduced value based on the capacity seen by the sensor electrode, characterized in that the proximity detector is arranged to determine a time variation of the capacity, to determine whether the capacity is stable, and to generate an instruction for setting the power of the RF transmitter to a full value, higher than the reduced value, when the capacity seen by the sensor electrode is between a lower object threshold (T tl) and a upper object threshold (Tt h), and the capacity is stable.
A fire-extinguishing mixture consisting of: a. 40 to 55% by weight of potassium carbonate (K 2 CO 3), b. 5 to 10% by weight of sodium bicarbonate (NaHCO 3), c. 10 to 15% by weight of ammonium bicarbonate (NH 4 HCO 3), d. 5 to 10% by weight of citric acid (C 6 H 8 O 7), e. 2 to 7% by weight of sodium lauryl sulfate (C 12 H 25 O 4 S.Na), f. 2 to 7% by weight of aqueous film forming foam, and g. the balance is water (H 2 O). a. 40 to 55% by weight of potassium carbonate (K 2 CO 3), b. 5 to 10% by weight of sodium bicarbonate (NaHCO 3), c. 10 to 15% by weight of ammonium bicarbonate (NH 4 HCO 3), d. 5 to 10% by weight of citric acid (C 6 H 8 O 7), e. 2 to 7% by weight of sodium lauryl sulfate (C 12 H 25 O 4 S.Na), f. 2 to 7% by weight of aqueous film forming foam, and g. the balance is water (H 2 O).
Descaling device having a device housing, a shaft, a shaft bearing, a nozzle head and a medium coupling, wherein the shaft bearing is arranged in the device housing and the shaft is mounted in the device housing by the shaft bearing for carrying out a rotary movement, wherein the shaft and the nozzle head are detachably connected to one another in a non-destructive manner, wherein the medium coupling has a medium connection for supply of a medium, wherein the shaft has a shaft cavity for conducting the medium supplied at the medium connection to the nozzle head, wherein the descaling device has a motor, and that, in order to generate the rotary movement of the shaft, the motor is arranged on the shaft in the device housing between the nozzle head and the medium coupling, wherein the shaft has a first partial shaft and a second partial shaft, that the first partial shaft and the second partial shaft are detachably connected to one another in a non-destructive manner, wherein the first partial shaft is connected to the nozzle head, wherein the shaft bearing is arranged exclusively on the first partial shaft, and wherein the medium coupling is arranged on the second partial shaft characterized in that the first partial shaft and the second partial shaft each have a blind hole with an open end and a closed end, and that the blind hole of the first partial shaft and the blind hole of the second partial shaft together form the shaft cavity. wherein the shaft bearing is arranged in the device housing and the shaft is mounted in the device housing by the shaft bearing for carrying out a rotary movement, wherein the shaft and the nozzle head are detachably connected to one another in a non-destructive manner, wherein the medium coupling has a medium connection for supply of a medium, wherein the shaft has a shaft cavity for conducting the medium supplied at the medium connection to the nozzle head, wherein the descaling device has a motor, and that, in order to generate the rotary movement of the shaft, the motor is arranged on the shaft in the device housing between the nozzle head and the medium coupling, wherein the shaft has a first partial shaft and a second partial shaft, that the first partial shaft and the second partial shaft are detachably connected to one another in a non-destructive manner, wherein the first partial shaft is connected to the nozzle head, wherein the shaft bearing is arranged exclusively on the first partial shaft, and wherein the medium coupling is arranged on the second partial shaft characterized in that the first partial shaft and the second partial shaft each have a blind hole with an open end and a closed end, and that the blind hole of the first partial shaft and the blind hole of the second partial shaft together form the shaft cavity.
Supramolecular nanoparticles, comprising a combination of 1) combinatorial carboxylated cobalamins, and 2) combinatorial carboxylated dipyridamoles, and 3) basic amino acid polypeptides.