mhurhangee/ep-ind-claims huggingface dataset:
A track tension device configured for a track, comprising: an upper transmission belt being an upper portion of the track, and at least one track inner tooth disposed on a lower surface of the upper transmission belt; a lower transmission belt being a lower portion of the track, and at least one track inner tooth disposed on an upper surface of the lower transmission belt; an upper tension portion having an upper end disposed tangentially to or engaged with the lower surface of the upper transmission belt, and configured to tension the upper transmission belt; at least one lower compression portion having a lower end disposed tangentially to the upper surface of the lower transmission belt, and configured to compress the lower transmission belt; and a resilient support portion having an end connected to the upper tension portion and another end connected to the lower compression portion, and configured to support the upper tension portion and the lower compression portion; wherein the track tension device is characterized by further comprising: a track side plate disposed on a side of the track; at least one longitudinal slot perpendicularly disposed in an upper portion of the track side plate; and at least one installing shaft, an end of each installing shaft up-and-down-slidably disposed in one longitudinal slot. an upper transmission belt being an upper portion of the track, and at least one track inner tooth disposed on a lower surface of the upper transmission belt; a lower transmission belt being a lower portion of the track, and at least one track inner tooth disposed on an upper surface of the lower transmission belt; an upper tension portion having an upper end disposed tangentially to or engaged with the lower surface of the upper transmission belt, and configured to tension the upper transmission belt; at least one lower compression portion having a lower end disposed tangentially to the upper surface of the lower transmission belt, and configured to compress the lower transmission belt; and a resilient support portion having an end connected to the upper tension portion and another end connected to the lower compression portion, and configured to support the upper tension portion and the lower compression portion; wherein the track tension device is characterized by further comprising: a track side plate disposed on a side of the track; at least one longitudinal slot perpendicularly disposed in an upper portion of the track side plate; and at least one installing shaft, an end of each installing shaft up-and-down-slidably disposed in one longitudinal slot. a track side plate disposed on a side of the track; at least one longitudinal slot perpendicularly disposed in an upper portion of the track side plate; and at least one installing shaft, an end of each installing shaft up-and-down-slidably disposed in one longitudinal slot.
A fast bus transfer method to reduce, by transferring between a main power supply and a backup power supply, the impact on a load connected to a bus caused by a power cut, characterized in that the method comprises: 1) calculating the amplitude Δ U forecast of the voltage vector difference between the bus and the backup power supply and the phase angle difference Δ φ forecast between the bus and the backup power supply, wherein Δ U forecast is obtained by calculation according to the following formula: Δ U forecast = U Mforecast 2 + U A 2 − 2 ∗ U Mforecast ∗ U A ∗ cos Δ φ forecast, in which U Mforecast is a forecast value of the residual voltage, and U A is the voltage of the backup power supply and wherein U Mforecast is obtained by calculation according to the following formula: U Mforecast = U t 2 1 + λ ∗ Δt + 1 2 ∗ λ ∗ Δt 2, in which U t 2 is the real-time amplitude at the moment t 2; Δ t is the time difference between the moment t 2 and the moment t 1, that is, the time period for the circuit breaker to close; and λ = − 1 τ, τ being a time constant; and 2) transferring the load on the bus to said backup power supply only when Δ U forecast is less than its limit value Δ U RTFTparameter and Δ φ forecast is less than 90°. 1) calculating the amplitude Δ U forecast of the voltage vector difference between the bus and the backup power supply and the phase angle difference Δ φ forecast between the bus and the backup power supply, wherein Δ U forecast is obtained by calculation according to the following formula: Δ U forecast = U Mforecast 2 + U A 2 − 2 ∗ U Mforecast ∗ U A ∗ cos Δ φ forecast, in which U Mforecast is a forecast value of the residual voltage, and U A is the voltage of the backup power supply and wherein U Mforecast is obtained by calculation according to the following formula: U Mforecast = U t 2 1 + λ ∗ Δt + 1 2 ∗ λ ∗ Δt 2, in which U t 2 is the real-time amplitude at the moment t 2; Δ t is the time difference between the moment t 2 and the moment t 1, that is, the time period for the circuit breaker to close; and λ = − 1 τ, τ being a time constant; and 2) transferring the load on the bus to said backup power supply only when Δ U forecast is less than its limit value Δ U RTFTparameter and Δ φ forecast is less than 90°.
An apparatus for treating obesity of an obese patient with abdominal laparoscopic or open surgery, having a stomach with a food cavity, the apparatus comprising at least one volume filling device adapted to be at least substantially invaginated by a stomach wall portion of the patient, wherein the volume filling device is inflatable and adapted to be placed on the outside of the stomach wall with the outer surface of the volume filling device resting against the outside of the stomach wall, wherein the volume filling device forms an expandable chamber that can change the volume it occupies in the stomach wall, thereby forming a hydraulically or pneumatically regulated inflatable device, and wherein the volume filling device has a volume in the range of 0.1 - 1 dm 3, characterized in that the apparatus further comprises a different hydraulic or pneumatic reservoir (17, 1052), and wherein the size of the volume filling device can be adjusted by moving fluid or gel thereto or from the different reservoir.
An outer packing material for vacuum insulation material comprising a thermally weldable film and a gas barrier film; wherein the gas barrier film includes a base material and a metal aluminum film formed on one surface of the base material; and the metal aluminum film satisfies the below formula and formula: 1.0 * 10 − 3 ≤ I A / I B / T ≤ 3.5 * 10 − 3 A / B / T ≥ 3.8 * 10 − 3 In the formula and the formula, I A represents a peak intensity (cps) of a diffraction peak positioned at 2Θ = 38.5° ± 1.0° measured for the metal aluminum film in a X-ray diffraction measurement using a CuKα-ray; I B represents a peak intensity (cps) of a diffraction peak positioned at 2Θ = 44.6° ± 1.0° measured for the metal aluminum foil of alloy number A8021, thickness 6 um or more, in a X-ray diffraction measurement using a CuKα-ray; A represents a peak intensity (kcps) of an aluminum element in the metal aluminum film measured in a fluorescent X-ray analysis; B represents a peak intensity (kcps) of an aluminum element in a metal aluminum foil of alloy number A8021, thickness 6 um or more, measured in a fluorescent X-ray analysis; and T represents a thickness (nm) of the metal aluminum film; the measurement methods for X-ray diffraction measurement and fluorescent X-ray analysis are set out in the description. the gas barrier film includes a base material and a metal aluminum film formed on one surface of the base material; and the metal aluminum film satisfies the below formula and formula: 1.0 * 10 − 3 ≤ I A / I B / T ≤ 3.5 * 10 − 3 A / B / T ≥ 3.8 * 10 − 3 In the formula and the formula, I A represents a peak intensity (cps) of a diffraction peak positioned at 2Θ = 38.5° ± 1.0° measured for the metal aluminum film in a X-ray diffraction measurement using a CuKα-ray; I B represents a peak intensity (cps) of a diffraction peak positioned at 2Θ = 44.6° ± 1.0° measured for the metal aluminum foil of alloy number A8021, thickness 6 um or more, in a X-ray diffraction measurement using a CuKα-ray; A represents a peak intensity (kcps) of an aluminum element in the metal aluminum film measured in a fluorescent X-ray analysis; B represents a peak intensity (kcps) of an aluminum element in a metal aluminum foil of alloy number A8021, thickness 6 um or more, measured in a fluorescent X-ray analysis; and T represents a thickness (nm) of the metal aluminum film; the measurement methods for X-ray diffraction measurement and fluorescent X-ray analysis are set out in the description.
A film formed from a polycarbonate resin obtainable by subjecting a dihydroxy-compound mixture comprising a dihydroxy compound represented by the following formula and a dihydroxy compound having the portion represented by the following formula as part of the structure thereof to polycondensation with a carbonic diester represented by the following formula in the presence of a catalyst, characterized in that the catalyst comprises one or more compounds which contain at least one metal selected from the group consisting of lithium and the Group-2 metals of the long-form periodic table, and that the total content of the Group-1 metallic elements and Group-2 metallic elements of the long-form periodic table, in the polycarbonate resin, is 20 μmol or less per mole of the structural units each derived from a dihydroxy compound which constitute the polycarbonate resin, and the total amount of sodium, potassium, and cesium in the polycarbonate resin is 1 μmol or less per mole of the dihydroxy compound represented by formula, and wherein the proportion of the structural unit derived from a dihydroxy compound represented by formula to all structural units each derived from a dihydroxy compound in the polycarbonate resin is 35-60 % by mole, and the ratio (Re450/Re550) of the retardation of the film measured at a wavelength of 450 nm to the retardation thereof measured at a wavelength of 550 nm is 0.5-0.90, wherein the retardation can be determined by stretching the transparent film at least unidirectionally, and examine for retardation using a retardation analyzer; (in the formula, R 1 to R 4 each independently represent a hydrogen atom, a substituted or unsubstituted alkyl group having 1-20 carbon atoms, a substituted or unsubstituted cycloalkyl group having 6-20 carbon atoms, or a substituted or unsubstituted aryl group having 6-20 carbon atoms, R 1 to R 4 being the same or different groups respectively as the four substituents bonded to the respective benzene rings; X represents a substituted or unsubstituted alkylene group having 2-10 carbon atoms, a substituted or unsubstituted cycloalkylene group having 6-20 carbon atoms, or a substituted or unsubstituted arylene group having 6-20 carbon atoms; and m and n each independently are an integer of 0-5); (̵CH 2 -O)̵ (the case where the portion represented by the formula is a portion which constitutes part of -CH 2 -OH is excluded); (in the formula, A 1 and A 2 each independently represent an optionally substituted aliphatic group having 1-18 carbon atoms or an optionally substituted aromatic group having 6-18 carbon atoms, and A 1 and A 2 may be the same or different).
An analytical system comprising: a) a pump configured to pump a mobile phase; b) an injection valve configured to input a sample into the mobile phase, the injection valve is fluidly coupled to an output of the pump; c) a chromatography column configured to separate a sample into one or more analytes; d) an electrochemical detector, the electrochemical detector fluidly coupled to an output of the chromatography column; e) an ion removal device configured to remove at least ions of one charge from the mobile phase, the ion removal device fluidly coupled to an output of the electrochemical detector; said analytical system being characterized in that it further comprises f) a cooling means for keeping the chromatography column, electrochemical detector, and the ion removal device at a temperature of 15°C or less, preferably 10°C or less. a) a pump configured to pump a mobile phase; b) an injection valve configured to input a sample into the mobile phase, the injection valve is fluidly coupled to an output of the pump; c) a chromatography column configured to separate a sample into one or more analytes; d) an electrochemical detector, the electrochemical detector fluidly coupled to an output of the chromatography column; e) an ion removal device configured to remove at least ions of one charge from the mobile phase, the ion removal device fluidly coupled to an output of the electrochemical detector; said analytical system being characterized in that it further comprises f) a cooling means for keeping the chromatography column, electrochemical detector, and the ion removal device at a temperature of 15°C or less, preferably 10°C or less.
Pneumatic single-grain seeder with a seed storage container and at least one rotatably arranged singulating member, such as a drum, belt, discs, in the circumferential surface of which rows of perforations which are arranged in a circular manner and are spaced apart from one another are provided, a fan, by means of which a pressure difference between the interior of the singulating member and the exterior region of the singulating member is producible such that, when the singulating member is guided through the seed store, grains accumulate at the perforations of the perforated member, wherein a covering device interrupting a pressure difference, which is being applied to the perforation, in order to detach the grains is arranged on that side of the singulating member which faces away from the singulating side of the singulating member, wherein the covering device is arranged in the region of the transfer of the seeds from the member into the dispensing line, characterized in that the cross-sectional shape of the perforation on the singulating side of the member is different to that side of the member which faces away from the singulating side, in that that side of the perforation opening which faces away from the direction of rotation extends, on the side facing away from the singulating side, parallel and/or with the same contour to the covering side of the covering device, and in that the contour of the perforation opening is not decreased in the course from the singulating side to the side facing away from the singulating side.
An arc welding method in which a welding wire serving as a consumable electrode is fed toward a base material, and a welding current is caused to flow through the welding wire and the base material to alternately repeat a reverse polarity period in which the welding wire serves as a positive electrode and the base material serves as a negative electrode, and a positive polarity period in which the welding wire serves as the negative electrode and the base material serves as the positive electrode, and thus generating an arc between the welding wire and the base material to weld the base material, the arc welding method comprising the steps of: a) detecting a short-circuit between the welding wire and the base material; characterized by c) increasing the welding current in absolute value after a predetermined short-circuit standby time elapses from a time point at which the short-circuit between the welding wire and the base material is detected in the step a); b) after the step c) is started, changing a feeding speed of the welding wire from a first feeding speed to a second feeding speed on a negative side of the first feeding speed when a speed in a direction in which the welding wire is fed toward the base material is defined as positive; and l) returning the feeding speed of the welding wire from the second feeding speed to the first feeding speed after the opening of the short-circuit between the welding wire and the base material is detected a) detecting a short-circuit between the welding wire and the base material; characterized by c) increasing the welding current in absolute value after a predetermined short-circuit standby time elapses from a time point at which the short-circuit between the welding wire and the base material is detected in the step a); b) after the step c) is started, changing a feeding speed of the welding wire from a first feeding speed to a second feeding speed on a negative side of the first feeding speed when a speed in a direction in which the welding wire is fed toward the base material is defined as positive; and l) returning the feeding speed of the welding wire from the second feeding speed to the first feeding speed after the opening of the short-circuit between the welding wire and the base material is detected
Fitness apparatus having a housing on which are arranged a first supporting element (3.1) and also a second supporting element (3.2), which can each be moved linearly in two spatial dimensions, located at right angles to one another, wherein the housing has at least one active element (10.1-10.5), by means of which a movement of the first supporting element (3.1) or the second supporting element (3.2) out of a respective starting position is counteracted by a force, and wherein the housing has at least one coupling element, which couples the linear movement of the first supporting element (3.1) in a first direction of a first of the two spatial dimensions to a linear movement of the second supporting element (3.2) in the second direction, which opposes the first direction in this first of the two spatial dimensions, wherein the supporting elements (3.1, 3.2) are guided in the first spatial dimension by means of at least one linear guide (6.1, 6.2; 9.1, 9.4), characterized in that the housing has at least one first linear guide (6.1, 6.2), which extends in the first spatial dimension, wherein a carriage (8.1) is arranged in a movable manner on this at least one first linear guide (6.1, 6.2), and wherein this carriage (8.1) has arranged on it at least one second linear guide (7.1-7.8), which extends in the second spatial dimension, and the two supporting elements (3.1, 3.2) are arranged in a movable manner on this at least one second linear guide (7.1-7.8).
Multi-function module, comprising actuators for control of a thermo-active climate control-reinforced concrete ceiling of a building, which reinforced concrete ceiling comprises an integrated and water bearing piping that is hydraulically located between a feed line and a return line, and an integrated portion (38, 138) that conducts inlet air to an outflow opening (40, 140), wherein the multi-function module comprises the outflow opening (40, 140), at least one controllable valve that is adapted and arranged to control a water flow through the water bearing piping and, as a further actuator, an inlet air controller adapted to control the amount of inlet air flowing through the portion that conducts inlet air to the outflow opening (40, 140) to the outflow opening.
A communication device comprising: an acquiring unit configured to transmit first identification information for identifying the communication device to a first connection destination and to acquire information about a second connection destination according to the first identification information; and a transmitter configured to transmit data to the second connection destination, wherein the information about the second connection destination includes information about a service that is permitted to be used for the communication device among services provided by the second connection destination, information about a communication protocol to be used for communication with the second connection destination and information for specifying a data format of information to be sent to the second connection destination, and wherein the transmitter is configured to generate information about the data format from information that is acquired from a terminal connected via a first network and to transmit the generated information to the second connection destination via a second network using the communication protocol. an acquiring unit configured to transmit first identification information for identifying the communication device to a first connection destination and to acquire information about a second connection destination according to the first identification information; and a transmitter configured to transmit data to the second connection destination, wherein the information about the second connection destination includes information about a service that is permitted to be used for the communication device among services provided by the second connection destination, information about a communication protocol to be used for communication with the second connection destination and information for specifying a data format of information to be sent to the second connection destination, and wherein the transmitter is configured to generate information about the data format from information that is acquired from a terminal connected via a first network and to transmit the generated information to the second connection destination via a second network using the communication protocol.
A female transgenic rabbit characterized in that, it contains, in its genome, one or more copies of a transgene comprising a polynucleotide encoding the human phospholipid transfer protein (PLTP), placed under the transcriptional control of a promoter allowing specific expression thereof in the mammary gland cells of said animal, and in that it secretes active human PLTP in its milk.
An emulsion composition comprising 0.05-3% by mass of macadamia nut oil fatty acid phytosteryl, 1-5% by mass of methyl polysiloxane, and one or more oils selected from the group consisting of glyceryl tri(2-ethylhexanoate), methylphenyl polysiloxane, cetyl ethylhexanoate, pentaerythrityl tetraethylhexanoate, and tripropylene glycol pivalate, wherein the content ratio of to,:, is 1:3 to 1:200, and wherein the total content of oils in the emulsion composition is 1-8% by mass. 0.05-3% by mass of macadamia nut oil fatty acid phytosteryl, 1-5% by mass of methyl polysiloxane, and one or more oils selected from the group consisting of glyceryl tri(2-ethylhexanoate), methylphenyl polysiloxane, cetyl ethylhexanoate, pentaerythrityl tetraethylhexanoate, and tripropylene glycol pivalate,