mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring crosslink densities in a sulfur-containing polymer composite material, the method comprising: a measurement step of irradiating the sulfur-containing polymer composite material with high intensity monochromatic X-rays and measuring an X-ray absorption spectrum of the composite material while varying the energy of the X-rays, wherein the X-rays have a number of photons of 10 7 photons/s or more, and a brilliance of 10 10 photons/s/mrad 2 / mm 2 /0.1% bw or higher; characterized in that the method further comprises: a visualization step of determining a three-dimensional structure of sulfur atoms in the sulfur-containing polymer composite material by a reverse Monte Carlo method from the X-ray absorption spectrum; and a calculation step of calculating, from the three-dimensional structure of sulfur atoms, the crosslink density of sulfide bonds having each 1 to 8 sulfur atoms. a measurement step of irradiating the sulfur-containing polymer composite material with high intensity monochromatic X-rays and measuring an X-ray absorption spectrum of the composite material while varying the energy of the X-rays, wherein the X-rays have a number of photons of 10 7 photons/s or more, and a brilliance of 10 10 photons/s/mrad 2 / mm 2 /0.1% bw or higher; characterized in that the method further comprises: a visualization step of determining a three-dimensional structure of sulfur atoms in the sulfur-containing polymer composite material by a reverse Monte Carlo method from the X-ray absorption spectrum; and a calculation step of calculating, from the three-dimensional structure of sulfur atoms, the crosslink density of sulfide bonds having each 1 to 8 sulfur atoms. a visualization step of determining a three-dimensional structure of sulfur atoms in the sulfur-containing polymer composite material by a reverse Monte Carlo method from the X-ray absorption spectrum; and a calculation step of calculating, from the three-dimensional structure of sulfur atoms, the crosslink density of sulfide bonds having each 1 to 8 sulfur atoms.
Hinges system comprising a first hinge and a second hinge, each of them being fixable at a part to a fixed system F and at the other part to a wing B, said hinges system comprising a cam mechanism for an automatic closing of the wing B once it has been opened and released, and a fluid-operated device adapted to move a fluid from a first chamber to a second chamber and vice versa, through the rotational motion of the wing B in order to control the closing speed of the wing B, wherein the first hinge comprises the cam mechanism and the second hinge comprises the fluid-operated device; wherein the first hinge comprises a fixed part, fixable to the fixed system F, and a movable part, fixable to the wing B; the movable part being rotating and translating with respect to the fixed part; characterized by the fact that the fixed part comprises a first fixed body which is fixable to the fixed system F and to which a first shaft is rigidly coupled and a first roller is rotatably coupled; and wherein the movable part comprises a first rotating body in which a first hole is obtained and which comprises a first ramp; the first shaft being received in the first hole so that the first rotating body is rotatable around the first shaft; the first roller being in abutment and adapted to roll on the first ramp, so that in the rotational motion of the first rotating body with respect to the first fixed body, the first rotating body is also forced to translate in the direction of development of the first shaft; and in that a stroke end element is fixed to the first shaft, in which element a lower surface inclined is obtained and a blocking element is fixed to the movable body and has an upper surface inclined according to a conformation homologous to that of the stroke end element, so that the blocking element abuts on the stroke end element in a position of maximum opening of the wing and that in the closing phase of the wing B, the upper end of the blocking element follows the profile of the lower surface of the stroke end element so as to avoid sudden movements of the wing B.
A method of operating a wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) to communicate a file, comprising: determining if the wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is to operate in a first mode of communication operation in which received portions (532; 564; 1012) of said file are transmitted or a second mode of communication operation in which combinations (568; 574) of portions (532; 564; 1012) of said file are transmitted, said determining the mode of operation being based on at least one of motion of said wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) or a geographic region in which said wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is located, at least one of said combinations (568; 574) of file portions (532; 564; 1012) including fewer bits than a number of input bits used to generate said at least one combination (568; 574) of file portions (532; 564; 1012); and transmitting packets communicating received file portions (532; 564; 1012) if it is determined that the wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is to operate in said first mode of operation; and transmitting packets communicating combinations (568; 574) of file portions (532; 564; 1012) if it is determined that the wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is to operate in said second mode of operation. determining if the wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is to operate in a first mode of communication operation in which received portions (532; 564; 1012) of said file are transmitted or a second mode of communication operation in which combinations (568; 574) of portions (532; 564; 1012) of said file are transmitted, said determining the mode of operation being based on at least one of motion of said wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) or a geographic region in which said wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is located, at least one of said combinations (568; 574) of file portions (532; 564; 1012) including fewer bits than a number of input bits used to generate said at least one combination (568; 574) of file portions (532; 564; 1012); and transmitting packets communicating received file portions (532; 564; 1012) if it is determined that the wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is to operate in said first mode of operation; and transmitting packets communicating combinations (568; 574) of file portions (532; 564; 1012) if it is determined that the wireless device (132; 134; 136; 138; 140; 142; 144; 300; 524; 546; 550; 552; 587; 599; 808; 810; 812) is to operate in said second mode of operation.
Method for preventing new deposits in drainage systems located in a tunnel or connected to a tunnel, characterized in that mineral salts are added to the mountain water continuously or at intervals, wherein the mineral salts are stabilizing salts, wherein the stabilizing salts are at least one salt selected from the following group: sodium sulfate, sodium chloride, magnesium sulfate, magnesium chloride, calcium magnesium chloride, sodium magnesium chloride, potassium sulfate, potassium chloride, calcium chloride or hydrates or mixtures thereof, wherein the stabilizing salts prevent the formation of new inorganic incrustations in the form of lime deposits, and wherein the stabilizing salts are added to the mountain water to be treated in such an amount that at the end of the drainage system a concentration in water in the range of 1-200 ppm is reached.
An energy conversion system comprising: a first device comprising a deformable enclosure containing heat-sensitive molecules capable of deforming the enclosure when the temperature exceeds a threshold temperature; and a second pyroelectric and/or piezoelectric device in contact with the enclosure. a first device comprising a deformable enclosure containing heat-sensitive molecules capable of deforming the enclosure when the temperature exceeds a threshold temperature; and a second pyroelectric and/or piezoelectric device in contact with the enclosure.
A method for remote power management, the method comprising: receiving an awake request message from a first wireless device at a second wireless device; configuring the second wireless device to operate in a first awake mode during a transmit time until a release message is received from the first wireless device based upon the awake request message; setting an awake mode indicator in a beacon message to a first status (CAM_flag) based upon the awake request message; and sending the beacon message from the second device during the transmit time, receiving, by the second wireless device, sensor data from the first wireless device; sending, by the second wireless device, calibration data based on the received sensor data to the first wireless device. receiving an awake request message from a first wireless device at a second wireless device; configuring the second wireless device to operate in a first awake mode during a transmit time until a release message is received from the first wireless device based upon the awake request message; setting an awake mode indicator in a beacon message to a first status (CAM_flag) based upon the awake request message; and sending the beacon message from the second device during the transmit time, receiving, by the second wireless device, sensor data from the first wireless device; sending, by the second wireless device, calibration data based on the received sensor data to the first wireless device.
Combination of a replaceable container having walls and a connector for the container, the container having a member with an opening in one of the walls, the container to be used in a medical machine, wherein the connector is comprised by at least a body; the inner side of which is traversed by inlet and outlet tubes extending from a central member within such container when the connector is attached to the container by joining the central member to the member with the opening, towards an outer side of the connector; wherein said tubes separately extend leading to two laterally spaced-apart apertures that are removably attachable to a mounting means and supplementary connection of said machine, wherein said outer side comprises a cap that is initially open such that it exposes a portion of each of said tubes which extent parallel or along the edge of said outer side of the connector and wherein the cap is bonded to the connector body by means of flexible, hinged or frangible linkages in such a manner that said cap is capable of folding around said linkages until it covers said initially exposed portions of said tubes.
A retrofit-style lamp (100, 200, 300), comprising: a plurality of light emitting diodes; and a one-dimensional linear batwing lens, wherein the one-dimensional linear batwing lens beam shapes light emitted by at least two light emitting diodes of the plurality of light emitting diodes, wherein the one-dimensional linear batwing lens extends in one direction in a linear direction; and wherein the plurality of light emitting diodes are located in a region beneath a central portion extending in the linear direction of the one-dimensional linear batwing lens to produce, through beam shaping, a substantially batwing and/or batwing-type light distribution from the plurality of light emitting diodes. a plurality of light emitting diodes; and a one-dimensional linear batwing lens, wherein the one-dimensional linear batwing lens beam shapes light emitted by at least two light emitting diodes of the plurality of light emitting diodes, wherein the one-dimensional linear batwing lens extends in one direction in a linear direction; and wherein the plurality of light emitting diodes are located in a region beneath a central portion extending in the linear direction of the one-dimensional linear batwing lens to produce, through beam shaping, a substantially batwing and/or batwing-type light distribution from the plurality of light emitting diodes.
A preparation method of a compound shown in formula I, wherein R 1 is COOH, X is (CH 2) m, m is ranged from 10 to 20, R 2 is n is 1 or 2; the preparation method comprising the following steps: carrying out a condensation reaction on H-R 2 and R 5 N-Glu(OR 4)-OR 3, wherein R 3 is a carboxyl protecting group, R 4 is a carboxyl activating group, and R 5 is an amino protecting group, a compound shown in formula II is obtained; removing the carboxyl protecting group R 3 and the amino protecting group R 5 of the compound shown in formula II to obtain a compound shown in formula III carrying out a condensation reaction on the compound shown in formula III and to obtain the compound shown in formula I. carrying out a condensation reaction on H-R 2 and R 5 N-Glu(OR 4)-OR 3, wherein R 3 is a carboxyl protecting group, R 4 is a carboxyl activating group, and R 5 is an amino protecting group, a compound shown in formula II is obtained; removing the carboxyl protecting group R 3 and the amino protecting group R 5 of the compound shown in formula II to obtain a compound shown in formula III carrying out a condensation reaction on the compound shown in formula III and to obtain the compound shown in formula I.
A method for terminal-based Internet address management, wherein an IP address consists of a network address and a host address, the method comprising: when a network address of a subnet segment which a terminal accesses conflicts with a network address of a subnet segment in which a Universal Integrated Circuit Card, UICC, is currently located, which is the network address of the IP address of the connection port between the terminal and the UICC, sending, by the terminal, a network address conflict message to the UICC; after receiving the network address conflict message, releasing, by the UICC, an Internet Protocol, IP, address currently used, and returning, by the UICC, a corresponding release message to the terminal; re-obtaining, by the terminal and the UICC, non-conflicting IP addresses with a network address of the subnet segment in which the UICC is currently located different from the network address of the subnet segment which the terminal accesses. when a network address of a subnet segment which a terminal accesses conflicts with a network address of a subnet segment in which a Universal Integrated Circuit Card, UICC, is currently located, which is the network address of the IP address of the connection port between the terminal and the UICC, sending, by the terminal, a network address conflict message to the UICC; after receiving the network address conflict message, releasing, by the UICC, an Internet Protocol, IP, address currently used, and returning, by the UICC, a corresponding release message to the terminal; re-obtaining, by the terminal and the UICC, non-conflicting IP addresses with a network address of the subnet segment in which the UICC is currently located different from the network address of the subnet segment which the terminal accesses.
A mobile transport system, for the transportation of objects, in particular in a technical system, comprising a vehicle frame, a pair of first support wheels and a pair of second support wheels, which are rotatably mounted, a first drive wheel rotatable about a first drive axis running in a transverse direction, a second drive wheel rotatable about a second drive axis running in the transverse direction and a swing frame pivotable relative to the vehicle frame about a swing axis, wherein the first support wheels are arranged on the vehicle frame and the second support wheels are arranged on the swing frame, wherein a drive unit is arranged on the swing frame and has a drive frame, characterised in that the first drive wheel is rotatably mounted on a first swing arm pivotable relative to the drive frame about a first swing axis, and the second drive wheel is rotatably mounted on a second swing arm pivotable relative to the drive frame about a second swing axis, and in that the drive frame is pivotable relative to the swing frame about a steering axis. a vehicle frame, a pair of first support wheels and a pair of second support wheels, which are rotatably mounted, a first drive wheel rotatable about a first drive axis running in a transverse direction, a second drive wheel rotatable about a second drive axis running in the transverse direction and a swing frame pivotable relative to the vehicle frame about a swing axis, wherein the first support wheels are arranged on the vehicle frame and the second support wheels are arranged on the swing frame, wherein a drive unit is arranged on the swing frame and has a drive frame, characterised in that the first drive wheel is rotatably mounted on a first swing arm pivotable relative to the drive frame about a first swing axis, and the second drive wheel is rotatably mounted on a second swing arm pivotable relative to the drive frame about a second swing axis, and in that the drive frame is pivotable relative to the swing frame about a steering axis.
Method for regulation of the transmission power of a first radio station in a mobile radio system using a timeslot method, with a radio link existing between the first radio station and at least one second radio station, in which radio signals are interchanged on radio channels (11, 12, 14), with the radio channels being configured as timeslots, and with the quality of the radio link being determined from the received signals in the at least one second radio station, and with commands to adjust the transmission power being sent from the at least one second radio station to the first radio station as a function of the determined quality, characterized in that the quality of the radio link is determined in the second radio station in the event of no information for the second radio station being transmitted in one or more successive timeslots, according to the following priority: - if signals are received by the at least one second radio station in a timeslot that is reserved for the transmission from the first radio station to a different second radio station in the radio cell, the quality of the radio link is determined by the at least one second radio station on the basis of a signal-to-interference ratio of the received signals; - if signals are received by the at least one second radio station in none of the timeslots that are reserved for the transmission from the first radio station to a different second radio station in the radio cell, the quality of the radio link is estimated by the at least one second radio station on the basis of an attenuation in the received timeslot of a physical common control channel defined according to the 3GPP TSG RAN TS 25.221 V3.0.0 standard, and in that the quality of the radio link is determined in the second radio station all the more frequently the faster the second radio station moves. - if signals are received by the at least one second radio station in a timeslot that is reserved for the transmission from the first radio station to a different second radio station in the radio cell, the quality of the radio link is determined by the at least one second radio station on the basis of a signal-to-interference ratio of the received signals; - if signals are received by the at least one second radio station in none of the timeslots that are reserved for the transmission from the first radio station to a different second radio station in the radio cell, the quality of the radio link is estimated by the at least one second radio station on the basis of an attenuation in the received timeslot of a physical common control channel defined according to the 3GPP TSG RAN TS 25.221 V3.0.0 standard,
A glass comprising, in mole percent on an oxide basis in the ranges: SiO 2 67-70, Al 2 O 3 11-13, B 2 O 3 4-6, MgO 3-5.5, CaO 5.5-7, SrO 3-5, BaO 0.09-<1, and (MgO+CaO+SrO+BaO)/ Al 2 O 3 in the range of 1.0 to 1.18 wherein the glass exhibits a strain point > 700 °C, an annealing point greater than or equal to 750 °C, a Young's modulus > 79 GPa, T 35kP - T liq > 65 °C, a density < 2.55 g/cm 3, and a CTE less than 36 × 10 -7 / °C. SiO 2 67-70, Al 2 O 3 11-13, B 2 O 3 4-6, MgO 3-5.5, CaO 5.5-7, SrO 3-5, BaO 0.09-<1, and (MgO+CaO+SrO+BaO)/ Al 2 O 3 in the range of 1.0 to 1.18 wherein the glass exhibits a strain point > 700 °C, an annealing point greater than or equal to 750 °C, a Young's modulus > 79 GPa, T 35kP - T liq > 65 °C, a density < 2.55 g/cm 3, and a CTE less than 36 × 10 -7 / °C.
A method of quantification of conjugated dienes in a feed or a product stream by a Gas Chromatography, wherein the Gas Chromatography is coupled with Mass Spectrometry in a selective hydrogenation process, wherein said method comprises of: a) passing a portion of a feed or a product stream to be processed by the SHP, through a GC column having a length ranging from 140 to 170 m; b) determining concentration of each conjugated dienes by a mass spectrometer; c) performing the SHP on the feed or the product stream to obtain a SHP product; d) passing a portion of the SHP product through the GC column having a length ranging from 140 to 170 m; e) determining concentration of each conjugated dienes by the mass spectrometer; and f) comparing the concentration of the conjugated dienes of step (b) and (e) to determine the amount of hydrogenation of conjugated dienes in the SHP. a) passing a portion of a feed or a product stream to be processed by the SHP, through a GC column having a length ranging from 140 to 170 m; b) determining concentration of each conjugated dienes by a mass spectrometer; c) performing the SHP on the feed or the product stream to obtain a SHP product; d) passing a portion of the SHP product through the GC column having a length ranging from 140 to 170 m; e) determining concentration of each conjugated dienes by the mass spectrometer; and f) comparing the concentration of the conjugated dienes of step (b) and (e) to determine the amount of hydrogenation of conjugated dienes in the SHP.