mhurhangee/ep-ind-claims huggingface dataset:
A method for adding a friend in a social network, comprising: obtaining a friend adding request initiated by a first user having a corresponding first user identification, and obtaining a second user identification based on the friend adding request; obtaining a group where the first user identification and the second user identification are comprised, generating a verification request according to information corresponding to the first user identification, and then sending the verification request to a terminal corresponding to the second user identification, wherein the verification request includes a personalized description of the first user identification that is determined according to one or more remarks corresponding to the first user identification set by other users of the group; and adding the second user identification to a friend list that corresponds to the first user identification after obtaining a friend adding confirmation request corresponding to the second user identification. obtaining a friend adding request initiated by a first user having a corresponding first user identification, and obtaining a second user identification based on the friend adding request; obtaining a group where the first user identification and the second user identification are comprised, generating a verification request according to information corresponding to the first user identification, and then sending the verification request to a terminal corresponding to the second user identification, wherein the verification request includes a personalized description of the first user identification that is determined according to one or more remarks corresponding to the first user identification set by other users of the group; and adding the second user identification to a friend list that corresponds to the first user identification after obtaining a friend adding confirmation request corresponding to the second user identification.
A submarine vehicle comprising an outer hull and a sealed hull surrounded by the outer hull, the sealed hull delimiting a sealed space of the submarine vehicle, the sealed hull including a supporting structure delimiting an opening, the submarine vehicle further comprising a propulsion chain comprising: - a drive motor, - a drive shaft driven by the drive motor, the drive shaft extending in a longitudinal direction and passing through the opening, - a propeller rigidly fastened to the drive shaft, the propulsion chain comprising at least one front bearing in rolling contact with the drive shaft, the front bearing being rigidly fastened to the supporting structure, the front bearing being configured to transmit longitudinal forces between the drive shaft and the supporting structure, the motor being rigidly fastened to the supporting structure, the sealed hull comprising a rear partition, the rear partition being a wall at the back of the sealed hull delimiting a hole, the supporting structure being a structure comprising a rear surface, the supporting structure being rigidly fastened to the rear partition. the submarine vehicle further comprising a propulsion chain comprising: - a drive motor, - a drive shaft driven by the drive motor, the drive shaft extending in a longitudinal direction and passing through the opening, - a propeller rigidly fastened to the drive shaft, - a drive motor, - a drive shaft driven by the drive motor, the drive shaft extending in a longitudinal direction and passing through the opening, - a propeller rigidly fastened to the drive shaft, the propulsion chain comprising at least one front bearing in rolling contact with the drive shaft, the front bearing being rigidly fastened to the supporting structure, the front bearing being configured to transmit longitudinal forces between the drive shaft and the supporting structure, the motor being rigidly fastened to the supporting structure, the sealed hull comprising a rear partition, the rear partition being a wall at the back of the sealed hull delimiting a hole, the supporting structure being a structure comprising a rear surface, the supporting structure being rigidly fastened to the rear partition.
A process for the preparation of 2-amino-5,8-alkoxy[1,2,4]triazolo[1,5-c]pyrimidines of the formula in which R represents C 1 -C 4 alkyl; which comprises contacting a 5-halo-8-alkoxy[1,2,4]triazolo[1,5-c]pyrimidin-2-amine of the formula in which X represents halogen; and R represents C 1 -C 4 alkyl with an alkali metal alkoxide in an alcoholic solvent. X represents halogen; and R represents C 1 -C 4 alkyl
Warp knitting machine with a bar, which is movable back and forth along a bar longitudinal axis, with a plunger which engages the bar, with a thrust body for exerting a force on the plunger and with a spring tension system which pulls the bar in the direction of the plunger, wherein the spring tension system comprises a force transmission arrangement and at least one spring, characterised in that the thrust body comprises a guide channel, wherein the at least one spring is arranged in the guide channel and wherein a portion of the force transmission arrangement of the spring tension system is mounted in the guide channel.
A dispenser (100, 200) comprising: a base having at least one rail; a cover (110, 210) slidable along at least one rail of the base between a closed position and an open position; and a refill unit that is removable from the dispenser (100, 200), the refill unit comprising: a container; a pump; and an outlet; wherein when the cover (110, 210) is in the open position the refill unit may be inserted into the dispenser (100, 200) along a horizontal axis; wherein when the cover (110, 210) is in the closed position the cover (110, 210) at least partially encloses the pump of the refill unit and prevents the refill unit from being removed; and wherein at least a portion of the refill unit is exposed when the cover (110, 210) is in a closed position and the refill unit is installed in the dispenser (100, 200). a base having at least one rail; a cover (110, 210) slidable along at least one rail of the base between a closed position and an open position; and a refill unit that is removable from the dispenser (100, 200), the refill unit comprising: a container; a pump; and an outlet; wherein when the cover (110, 210) is in the open position the refill unit may be inserted into the dispenser (100, 200) along a horizontal axis; wherein when the cover (110, 210) is in the closed position the cover (110, 210) at least partially encloses the pump of the refill unit and prevents the refill unit from being removed; and wherein at least a portion of the refill unit is exposed when the cover (110, 210) is in a closed position and the refill unit is installed in the dispenser (100, 200).
A method for manufacturing a part with reduced, or eliminated, discoloration in the finished part, comprising: providing an aluminum starting material, wherein said aluminum starting material is in an anneal temper; uniformly applying cold working to said aluminum starting material to obtain an aluminum cold worked material, wherein the cold working introduces a substantial uniform strain to said aluminum starting material, magnitude of the strain being sufficiently high so that a substantially uniform recrystallization across said aluminum starting material is effected, wherein said cold working is performed at a cold working temperature, and wherein said cold working temperature is at most 37.8 °C, wherein said cold working is performed to achieve at least 2 percent cold work; and subsequently forming said part from said aluminum cold worked material, wherein the part assumes uniform color associated with the recrystallization. providing an aluminum starting material, wherein said aluminum starting material is in an anneal temper; uniformly applying cold working to said aluminum starting material to obtain an aluminum cold worked material, wherein the cold working introduces a substantial uniform strain to said aluminum starting material, magnitude of the strain being sufficiently high so that a substantially uniform recrystallization across said aluminum starting material is effected, wherein said cold working is performed at a cold working temperature, and wherein said cold working temperature is at most 37.8 °C, wherein said cold working is performed to achieve at least 2 percent cold work; and subsequently forming said part from said aluminum cold worked material, wherein the part assumes uniform color associated with the recrystallization.
An ion trap comprising: a first array of magnetic elements arranged to generate a first magnetic field with a degree of homogeneity; and an array of electrodes arranged to generate an electrostatic field including a turning point in electrical potential at a location where the magnetic field has a substantially maximum degree of homogeneity, wherein a primary first magnetic element is arranged to generate a first component of the first magnetic field and other first magnetic elements (15, 16, 17, 18; 31, 32, 33, 34) are arranged to generate compensating components of the first magnetic field that reduce the gradient, the curvature and higher order derivatives of the first component of the first magnetic field at the location where the first magnetic field has the substantially maximum degree of homogeneity, characterised in that the array of electrodes is planar, comprises a row of three or more electrodes (6, 7, 8, 9, 10) where the electrodes of the row are spaced along a line parallel to the direction of the magnetic field at the location where the magnetic field has the substantially maximum degree of homogeneity. a first array of magnetic elements arranged to generate a first magnetic field with a degree of homogeneity; and an array of electrodes arranged to generate an electrostatic field including a turning point in electrical potential at a location where the magnetic field has a substantially maximum degree of homogeneity, wherein a primary first magnetic element is arranged to generate a first component of the first magnetic field and other first magnetic elements (15, 16, 17, 18; 31, 32, 33, 34) are arranged to generate compensating components of the first magnetic field that reduce the gradient, the curvature and higher order derivatives of the first component of the first magnetic field at the location where the first magnetic field has the substantially maximum degree of homogeneity, characterised in that the array of electrodes is planar, comprises a row of three or more electrodes (6, 7, 8, 9, 10) where the electrodes of the row are spaced along a line parallel to the direction of the magnetic field at the location where the magnetic field has the substantially maximum degree of homogeneity.
Method for measuring the mass of a plasticizer and the moisture content in a filter rod comprising the following steps: • The total mass and the draw resistance of the filter rod are measured, and • a microwave measuring instrument measures a resonance frequency shift and a widening of the resonance curve of a resonance generated in a microwave resonator in the presence of the filter rod to be measured, wherein the moisture content in the filter rod is determined from the measured values of the microwave measuring instrument (A, B) and the measured total mass, and the mass (M triacetin) of plasticiser in the filter rod is determined from the measured values (A, B) of the microwave gauge and the values of the total mass and the draw resistance, • - wherein the calculation of the mass of plasticizer in the filter rod (M triacetin) is carried out by: M triacetin = a 0 + a 1 A + a 2 B + a 3 M + a 4 PD, with a coefficient set (a0, a1, a2, a3, a4) dependent on the titer of the material, and the coefficient set for determining the mass of plasticizer changes within a period of time after the application of the triacetine, but is time-independent within the first ten minutes. • The total mass and the draw resistance of the filter rod are measured, and • a microwave measuring instrument measures a resonance frequency shift and a widening of the resonance curve of a resonance generated in a microwave resonator in the presence of the filter rod to be measured, wherein the moisture content in the filter rod is determined from the measured values of the microwave measuring instrument (A, B) and the measured total mass, and the mass (M triacetin) of plasticiser in the filter rod is determined from the measured values (A, B) of the microwave gauge and the values of the total mass and the draw resistance, • - wherein the calculation of the mass of plasticizer in the filter rod (M triacetin) is carried out by: M triacetin = a 0 + a 1 A + a 2 B + a 3 M + a 4 PD, with a coefficient set (a0, a1, a2, a3, a4) dependent on the titer of the material, and the coefficient set for determining the mass of plasticizer changes within a period of time after the application of the triacetine, but is time-independent within the first ten minutes.
An implant system for use in orthopaedic surgery for fixation of bone, comprising: an intramedullary nail with a proximal portion defining a longitudinal axis, wherein the proximal portion includes an axial bore defining an axis substantially parallel to the longitudinal axis of the proximal portion and a transverse bore configured to receive a bone fastener; and a coupling member with a through hole and configured to be movably arranged within the axial bore of the proximal portion of the intramedullary nail, the coupling member including a drive portion and a bone fastener engagement portion, wherein the bone fastener engagement portion includes a rounded edge at its end pointing in a distal direction of the intramedullary nail and is configured to engage a bone fastener penetrating the transverse bore, wherein the drive portion is movable towards the distal portion of the intramedullary nail within the proximal portion axial bore so as to urge the bone fastener engagement portion toward the distal portion of the intramedullary nail within the proximal portion axial bore and into engagement with a bone fastener penetrating the transverse bore, and wherein the drive portion is coupled to the bone fastener engagement portion such that the drive portion does not rotate relative to the bone fastener engagement portion. an intramedullary nail with a proximal portion defining a longitudinal axis, wherein the proximal portion includes an axial bore defining an axis substantially parallel to the longitudinal axis of the proximal portion and a transverse bore configured to receive a bone fastener; and a coupling member with a through hole and configured to be movably arranged within the axial bore of the proximal portion of the intramedullary nail, the coupling member including a drive portion and a bone fastener engagement portion, wherein the bone fastener engagement portion includes a rounded edge at its end pointing in a distal direction of the intramedullary nail and is configured to engage a bone fastener penetrating the transverse bore, wherein the drive portion is movable towards the distal portion of the intramedullary nail within the proximal portion axial bore so as to urge the bone fastener engagement portion toward the distal portion of the intramedullary nail within the proximal portion axial bore and into engagement with a bone fastener penetrating the transverse bore, and wherein the drive portion is coupled to the bone fastener engagement portion such that the drive portion does not rotate relative to the bone fastener engagement portion.
A method of encoding a video, the video including a plurality of frames including a target frame and an original reference frame ( x i -1), the original reference frame ( x i -1) having been encoded and decoded to produce a reconstructed reference frame ( x ι- 1) stored in a frame store, the target frame including a partition ( x i) to be inter-coded, the method comprising: selecting a coding mode ( m i); selecting (204, 206) a predicted motion vector ( v i ') for the partition ( x i); calculating predicted residual values ( u i ') from the difference between the partition ( x i) and a reference block in the original reference frame ( x i -1), wherein the reference block is identified by the predicted motion vector ( v i '); and determining an actual motion vector with reference to the reconstructed reference frame ( x ι- 1) using a first rate-distortion expression incorporating the predicted residual values ( u i ') obtained from said calculating step; and encoding the target frame using the determined actual motion vector; wherein said selecting the predicted motion vector ( v i ') includes selecting a candidate motion vector so as to minimize a second rate-distortion expression with respect to the original reference frame ( x i -1) within a first search area, wherein the second rate-distortion expression is: J pre_me_min = min v i ‖ x i − p ′ i m i v i x i − 1 ‖ + λr v and wherein v i is the candidate motion vector, x i is the partition included in the target frame, x i -1 is the original reference frame, m i is the coding mode, r v is the coding rate for the motion vector v i, λ is the Lagrangian multiplier, and p' i is the reference block in the original reference frame x i -1 identified by the motion vector v i. selecting a coding mode ( m i); selecting (204, 206) a predicted motion vector ( v i ') for the partition ( x i); calculating predicted residual values ( u i ') from the difference between the partition ( x i) and a reference block in the original reference frame ( x i -1), wherein the reference block is identified by the predicted motion vector ( v i '); and determining an actual motion vector with reference to the reconstructed reference frame ( x ι- 1) using a first rate-distortion expression incorporating the predicted residual values ( u i ') obtained from said calculating step; and encoding the target frame using the determined actual motion vector; wherein said selecting the predicted motion vector ( v i ') includes selecting a candidate motion vector so as to minimize a second rate-distortion expression with respect to the original reference frame ( x i -1) within a first search area, wherein the second rate-distortion expression is: J pre_me_min = min v i ‖ x i − p ′ i m i v i x i − 1 ‖ + λr v and wherein v i is the candidate motion vector, x i is the partition included in the target frame, x i -1 is the original reference frame, m i is the coding mode, r v is the coding rate for the motion vector v i, λ is the Lagrangian multiplier, and p' i is the reference block in the original reference frame x i -1 identified by the motion vector v i.
Motor vehicle illumination system comprising elements for generating light and a control unit, the elements for generating light having a semiconductor light source which is arranged on a carrier element, and the control unit being designed to set an operating current of the at least one semiconductor light source, the elements for generating light having an evaluation circuit which is arranged on the carrier element and is designed to detect a class of the semiconductor light source and a temperature, the evaluation circuit being designed to generate an output signal depending on the detected temperature in the immediate vicinity of the semiconductor light source, which output signal represents the detected class and the detected temperature, characterized in that exactly one value of the output signal is uniquely assigned to each value pair of the detected class and the detected temperature in the evaluation circuit, that the evaluation circuit is designed to provide this output signal at an output of the evaluation circuit, which output is connected to an input of the control unit via a line, and in that the control unit is designed to determine the class and the temperature from the transmitted output signal by accessing relationships stored in the control unit, and to determine a setpoint value of the operating current for the value of the output signal, which setpoint value matches the determined class and the determined temperature, and to adjust the actual value of the operating current based on the setpoint value.
A cobalt alloy having the composition Cr: 13.0 - 30.0% by weight Mn: 2.0 - 10.0% by weight W: 2.0 - 18.0% by weight Fe: 5.0 - 15.0% by weight C: 0.002 - 0.5% by weight N: 0 - 0.2% by weight Si: 0 - 2.0% by weight Ni: 0 - 5.0% by weight wherein the aforementioned alloying components, with cobalt as the remainder, and manufacturing related impurities add up to 100% by weight, and wherein the following limitations according to formulas and apply for the content of nitrogen and carbon, and the following limitations according to formula apply for the content of oxygen, phosphorous, and sulfur 0.003 ≤ C + N ≤ 0.5 N / C ≤ 1.00 for 0.07 < C < 0.15 O + P + S < 0.10
A blood-glucose meter for determining a blood-glucose concentration in a fluid sample, the blood-glucose meter configured to receive a test sensor, the blood-glucose meter comprising: a measurement system (112, 113) that determines a measurement of a concentration of a blood-glucose in a fluid sample received on the test sensor during a testing procedure; a rechargeable battery; and a connection configured to electrically and mechanically couple the blood-glucose meter to an external computing device including a power source; characterized in that the rechargeable battery is rechargeable with power from the power source, wherein the blood-glucose meter receives the power via the connection, the connection configured to electrically isolate the blood-glucose meter from the power source when the testing procedure is initiated while the blood-glucose meter remains mechanically coupled to the computing device via the connection. a measurement system (112, 113) that determines a measurement of a concentration of a blood-glucose in a fluid sample received on the test sensor during a testing procedure; a rechargeable battery; and a connection configured to electrically and mechanically couple the blood-glucose meter to an external computing device including a power source; characterized in that the rechargeable battery is rechargeable with power from the power source, wherein the blood-glucose meter receives the power via the connection, the connection configured to electrically isolate the blood-glucose meter from the power source when the testing procedure is initiated while the blood-glucose meter remains mechanically coupled to the computing device via the connection.
A microbicidal composition comprising: (a) N-(n-butyl)-1,2-benzisothiazolin-3-one; and (b) at least one microbicide selected from among linoleamidopropyl PG-dimonium chloride phosphate and cocamidopropyl PG-dimonium chloride phosphate. (a) N-(n-butyl)-1,2-benzisothiazolin-3-one; and (b) at least one microbicide selected from among linoleamidopropyl PG-dimonium chloride phosphate and cocamidopropyl PG-dimonium chloride phosphate.
Pump module with a pump casing (2, 8, 26, 28), a cylinder, at least one pump piston, which is mounted in the pump casing (2, 8, 26, 28) in a reciprocatingly movable manner and which is provided with at least one sealing element that interacts with the cylinder during the pumping operation, a valve block that is sealed against the cylinder, at least one valve (37, 41) to said cylinder, said valve (37, 41) being received in the valve block, and a cover element on a side opposite to said cylinder being in abutment against said valve block and between itself and said valve block forming an inlet passage to said cylinder and an outlet passage communicating with said cylinder, characterized in that the inlet passage and the outlet passage each are formed by a recessed groove in the side of the valve block opposite to the cylinder, the recessed groove being exposed toward the surface of the cover element, wherein the inlet passage and the outlet passage each are circumferentially closed by the interaction of the valve block and the cover element and extend at a right angle to the direction of motion of the reciprocatingly movable pump piston.