mhurhangee/ep-ind-claims huggingface dataset:
A multi-part dental cement comprising a first paste and a second paste, wherein the first paste comprises an acid group-containing (meth)acrylic polymerizable monomer (a), a polyfunctional (meth)acrylic polymerizable monomer (b) containing no acid group, an oxidizing agent (c-1) of a chemical polymerization initiator, and a filler (d), the second paste comprises a polyfunctional (meth)acrylic polymerizable monomer (b) containing no acid group, a reducing agent (c-2) of a chemical polymerization initiator, and a filler (e), the filler (d) is treated with a surface treatment agent and has an average particle diameter of 0.01 to 50.0 μm, the surface treatment agent comprises a silane coupling agent represented by the following general formula: CH 2 =C(R 1)-COO-(CH 2) p -Si-R 2 q R 3 (3-q), wherein R 1 is a hydrogen atom or a methyl group, R 2 is an optionally substituted hydrolyzable group, R 3 is an optionally substituted C 1 to C 3 alkyl group, p is an integer of 1 to 13, and q is 2 or 3, and an organosilazane represented by the following general formula: R 4 R 5 R 6 -Si-NH-Si-R 7 R 8 R 9, wherein R 4, R 5, and R 6 are each independently a hydrogen atom or an optionally substituted C 1 to C 3 alkyl group, at least one of R 4, R 5, and R 6 is an optionally substituted C 1 to C 3 alkyl group, R 7, R 8, and R 9 are each independently a hydrogen atom or an optionally substituted C 1 to C 3 alkyl group, and at least one of R 7, R 8, and R 9 is an optionally substituted C 1 to C 3 alkyl group, wherein the molar ratio between the silane coupling agent of the filler (d) and the organosilazane of the filler (d) is [silane coupling agent]:[organosilazane] = 1:1 to 1:20, and the average particle diameter of the filler (d) and the filler (e) is measured as described in the description.
A method of operating a network node to control a first Unmanned Aerial Vehicle, UAV, in a wireless telecommunications network, the method comprising: determining a collision risk for the first UAV; the method characterised by: determining a reporting rate for the first UAV based on the collision risk; and sending a reporting rate update message to the first UAV so as to cause the first UAV to report its position at the determined reporting rate. determining a collision risk for the first UAV; the method characterised by: determining a reporting rate for the first UAV based on the collision risk; and sending a reporting rate update message to the first UAV so as to cause the first UAV to report its position at the determined reporting rate. determining a reporting rate for the first UAV based on the collision risk; and sending a reporting rate update message to the first UAV so as to cause the first UAV to report its position at the determined reporting rate.
Method for controlling the temperature of a plurality of photovoltaic panels exposed to the wind and comprising a plurality of devices for spraying a liquid, suitable for applying a coolant liquid onto the plurality of panels, the method being characterised in that it comprises the steps of: - measuring a temperature of at least one panel; - measuring the speed of the wind; - activating the spraying of at least one of the devices for spraying the liquid, when: - the measured temperature is greater than or equal to a first predetermined temperature value; and - the measured speed of the wind is less than or equal to a first predetermined wind speed value; - the deactivation of the spraying of all or part of the devices for spraying liquid when: - the measured temperature is less than or equal to a second predetermined temperature value, which is less than the first predetermined temperature value; and - the measured speed of the wind is greater than or equal to a second predetermined wind speed value, which is greater than the first predetermined wind speed value; the method being such that the activation, deactivation, and/or spraying pressure of certain liquid spraying devices are controlled in relation to the measured speed of the wind, and that one or moments of activation and/or of deactivation of the spraying are determined, and the pressure of spraying of at least certain spraying devices, based on an algorithm of searching for peaks and troughs in a modelling of the wind speed and/or the wind direction. - measuring a temperature of at least one panel; - measuring the speed of the wind; - activating the spraying of at least one of the devices for spraying the liquid, when: - the measured temperature is greater than or equal to a first predetermined temperature value; and - the measured speed of the wind is less than or equal to a first predetermined wind speed value; - the measured temperature is greater than or equal to a first predetermined temperature value; and - the measured speed of the wind is less than or equal to a first predetermined wind speed value; - the deactivation of the spraying of all or part of the devices for spraying liquid when: - the measured temperature is less than or equal to a second predetermined temperature value, which is less than the first predetermined temperature value; and - the measured speed of the wind is greater than or equal to a second predetermined wind speed value, which is greater than the first predetermined wind speed value; - the measured temperature is less than or equal to a second predetermined temperature value, which is less than the first predetermined temperature value; and - the measured speed of the wind is greater than or equal to a second predetermined wind speed value, which is greater than the first predetermined wind speed value;
A probe assembly for use in sensors configured to convert between motion and electrical signals, the probe assembly comprising: a probe rod defining a first end, wherein the probe rod is configured to, in an operational configuration, be at least partially received by a sensor device; and a probe head configured to receive the first end of the probe rod, wherein the probe head is configured to mate with the first end so as to secure the probe rod therein, the probe head defining an opening configured to at least partially receive the first end of the probe rod therein such that the first end of the probe rod is substantially aligned with an exterior surface of the probe head; wherein the first end of the probe rod is welded to the probe head via a butt weld in which the first end of the probe rod and the probe head are joined in the same plane, wherein the first end of the probe rod further defines a first threaded element and the probe head further defines a second threaded element such that connection between the first threaded element and the second threaded element is configured to secure the probe rod within the probe head. a probe rod defining a first end, wherein the probe rod is configured to, in an operational configuration, be at least partially received by a sensor device; and a probe head configured to receive the first end of the probe rod, wherein the probe head is configured to mate with the first end so as to secure the probe rod therein, the probe head defining an opening configured to at least partially receive the first end of the probe rod therein such that the first end of the probe rod is substantially aligned with an exterior surface of the probe head; wherein the first end of the probe rod is welded to the probe head via a butt weld in which the first end of the probe rod and the probe head are joined in the same plane, wherein the first end of the probe rod further defines a first threaded element and the probe head further defines a second threaded element such that connection between the first threaded element and the second threaded element is configured to secure the probe rod within the probe head.
A polycondensate comprising one or more structural units of formula, -Z-(CH 2) 2n -Z'- where Z and Z' are each -X-C(=O)∼, -C(=O)-HN-CH 2 ∼, - C(=O)-O-CH 2 ∼, -NH-C(=O)-O-CH 2 ∼, -O-C(=O)-NH-CH 2 ∼ and are the same or different; X is 0 or NH; ∼ is the bond to the (CH 2) 2n group; and n = ≥ 12. Z and Z' are each -X-C(=O)∼, -C(=O)-HN-CH 2 ∼, - C(=O)-O-CH 2 ∼, -NH-C(=O)-O-CH 2 ∼, -O-C(=O)-NH-CH 2 ∼ and are the same or different; X is 0 or NH; ∼ is the bond to the (CH 2) 2n group; and n = ≥ 12.
An apparatus for self-extracting a cell to extract an effective cell that is a separation target from a cell solution, comprising: a flow path casing including an upper substrate and a lower substrate combined with each other, and a fluid path formed to fluidize the cell solution therein; a separation portion disposed on the fluid path and provided with a separation channel selectively blocking the effective cell that is an extraction target in the cell included in the cell solution from passing therethrough; and characterized in that the upper substrate and the lower substrate have a magnetic property; and in that the apparatus further comprises a magnetic field control portion forming a magnetic field in the flow path portion to separate the effective cell blocking the separation channel from the separation channel. a flow path casing including an upper substrate and a lower substrate combined with each other, and a fluid path formed to fluidize the cell solution therein; a separation portion disposed on the fluid path and provided with a separation channel selectively blocking the effective cell that is an extraction target in the cell included in the cell solution from passing therethrough; and characterized in that the upper substrate and the lower substrate have a magnetic property; and in that the apparatus further comprises a magnetic field control portion forming a magnetic field in the flow path portion to separate the effective cell blocking the separation channel from the separation channel.
An ultrasonic welding system (100, 400) comprising: a support structure (106, 406) for supporting a workpiece (102a1, 300, 300a1); a weld head assembly (112, 412) including an ultrasonic converter carrying a sonotrode (112a, 412a), the sonotrode being configured to operate during a welding operation at a bond force of between 5-500 kg, and with a sonotrode tip motion amplitude of between 5-150 microns; the system (100, 400) being characterised by: the weld head assembly being movable along a plurality of substantially horizontal axes; a camera (114, 414), said camera preferably being carried by the weld head assembly, for imaging operations related to the alignment between sonotrode and clamped workpiece. a support structure (106, 406) for supporting a workpiece (102a1, 300, 300a1); a weld head assembly (112, 412) including an ultrasonic converter carrying a sonotrode (112a, 412a), the sonotrode being configured to operate during a welding operation at a bond force of between 5-500 kg, and with a sonotrode tip motion amplitude of between 5-150 microns; the system (100, 400) being characterised by: the weld head assembly being movable along a plurality of substantially horizontal axes; a camera (114, 414), said camera preferably being carried by the weld head assembly, for imaging operations related to the alignment between sonotrode and clamped workpiece.
A containerized data center modular rack system configured to mount electronic equipment, comprising: a container structure with a floor and a ceiling configured to house a modular rack system, a plurality of bottom anchor assemblies disposed in the floor of the container structure, a plurality of top anchor assemblies disposed in the ceiling of the container structure, and a plurality of modular supports each having an upper end configured to be removably secured to one of the plurality of top anchor assemblies disposed in the ceiling of the container structure, wherein each of the plurality of modular supports is extendable and retractable to achieve a desired height and has a lower end configured to be removably secured to one of the plurality of bottom anchor assemblies disposed in the floor of the container structure, and a plurality of openings configured to mount electronic equipment, wherein the plurality of modular supports are arranged in the container structure to form an equipment rack and the configurability of the modular rack system allows the supported electronic equipment to be mounted in configurations specific to the application. a container structure with a floor and a ceiling configured to house a modular rack system, a plurality of bottom anchor assemblies disposed in the floor of the container structure, a plurality of top anchor assemblies disposed in the ceiling of the container structure, and a plurality of modular supports each having an upper end configured to be removably secured to one of the plurality of top anchor assemblies disposed in the ceiling of the container structure, wherein each of the plurality of modular supports is extendable and retractable to achieve a desired height and has a lower end configured to be removably secured to one of the plurality of bottom anchor assemblies disposed in the floor of the container structure, and a plurality of openings configured to mount electronic equipment, wherein the plurality of modular supports are arranged in the container structure to form an equipment rack and the configurability of the modular rack system allows the supported electronic equipment to be mounted in configurations specific to the application.
A method for wireless communication performed by a base station or a user equipment, the method comprising: identifying a plurality of search space set occasions for a slot, the plurality of search space set occasions associated with one or more search space sets configured for the slot, each search space set comprising a set of control channel candidates of one or more aggregation levels of a plurality of aggregation levels; determining a total number of available blind decodes for the slot based at least in part on a blind decoding limitation; mapping each control channel candidate for each of the plurality of search space set occasions to one or more available blind decodes; determining, when the mapping of the sets of control channel candidates for the plurality of search space set occasions exceeds a control channel element limitation, an applied set of control channel candidates by iteratively dropping control channel candidates along at least one dimension according to a prioritized order until the applied set of control channel candidates does not exceed the control channel element limitation; and communicating based at least in part on the applied set of control channel candidates. identifying a plurality of search space set occasions for a slot, the plurality of search space set occasions associated with one or more search space sets configured for the slot, each search space set comprising a set of control channel candidates of one or more aggregation levels of a plurality of aggregation levels; determining a total number of available blind decodes for the slot based at least in part on a blind decoding limitation; mapping each control channel candidate for each of the plurality of search space set occasions to one or more available blind decodes; determining, when the mapping of the sets of control channel candidates for the plurality of search space set occasions exceeds a control channel element limitation, an applied set of control channel candidates by iteratively dropping control channel candidates along at least one dimension according to a prioritized order until the applied set of control channel candidates does not exceed the control channel element limitation; and communicating based at least in part on the applied set of control channel candidates.
Nonpathogenic Cobetia marina strain useful in aquaculture, said strain being an isolated strain of Cobetia marina, gram negative, oxidase positive, deposited under registry CECT N° 7764; which grows in cyclic aromatic hydrocarbons as the only carbon source.
A pre-impregnated part, usable in a thermoplastic manner, and intended to manufacture a finished part made from composite material, the pre-impregnated part comprising: - a main layer made from a first composite material including a first matrix made from a thermoplastic material and first reinforcing fibers embedded in the first matrix, the main layer being obtained from a main complex including at least a first layer of fibers comprising at least the first reinforcing fibers and at least a first layer of matrix comprising the thermoplastic material, - a reinforcing layer made from a second composite material including a second matrix made from a thermoplastic material and second reinforcing fibers embedded in the second matrix, the reinforcing layer being obtained from a reinforcing complex including at least a second layer of fibers comprising at least the second reinforcing fibers and at least a second matrix layer comprising the thermoplastic material, said reinforcing layer being fastened on at least a portion of the main layer, the pre-impregnated part having the flattened shape of at least a portion of the finished part to be manufactured from said pre-impregnated part, characterised in that the surface of the main layer is smaller than the developed surface of the part to be manufactured. - a main layer made from a first composite material including a first matrix made from a thermoplastic material and first reinforcing fibers embedded in the first matrix, the main layer being obtained from a main complex including at least a first layer of fibers comprising at least the first reinforcing fibers and at least a first layer of matrix comprising the thermoplastic material, - a reinforcing layer made from a second composite material including a second matrix made from a thermoplastic material and second reinforcing fibers embedded in the second matrix, the reinforcing layer being obtained from a reinforcing complex including at least a second layer of fibers comprising at least the second reinforcing fibers and at least a second matrix layer comprising the thermoplastic material, said reinforcing layer being fastened on at least a portion of the main layer, the pre-impregnated part having the flattened shape of at least a portion of the finished part to be manufactured from said pre-impregnated part, characterised in that the surface of the main layer is smaller than the developed surface of the part to be manufactured.
An eccentric and polycentric articulated tensioning joint for an orthopaedic brace with adjustable angular excursion to be placed in correspondence of body joints of a user, comprising two bars (13, 14), each hinged to a respective rotation pin (17, 18) placed on an element of a base structure, two bars being connected to each other by means of respective toothed profiles provided at a circular end of each bar, so as to be set in synchronous motion relative to each other, characterised in that it further comprises a pair of loops (15, 16), wherein each loop comprises two elongate slot-shaped strap loop elements (40, 41) positioned relative to each other at a predetermined angle, as well as an elongate bored end (23, 24) comprising first teeth which the respective rotation pin (17, 18) is inserted in, the pin (17, 18) further comprising second teeth cooperating with the first teeth, and in that each of said bars (13, 14) comprises an elongate opening (29, 30) allowing a shank of a screw element, which connects one of the bars (13, 14) to one of the loops (15, 16), to slide inside it, so that the movement of reciprocal rotation of the bars (13, 14) results in a translational movement of respective approaching or moving away of said loops (15, 16).
A heat exchanger comprising: a sub-heat exchange unit which has a plurality of sub-fins stacked at intervals, a sub-plate disposed on one end side in a stacking direction of the sub-fins, and a sub-pipe disposed to penetrate the sub-fins and the sub-plate; and a main heat exchange unit which has a plurality of main fins stacked at intervals, a main plate disposed on one end side in a stacking direction of the main fins, and a main pipe disposed to penetrate the main fins and the main plate, characterized in that a sub-side engagement section is provided in the sub-plate to protrude away from the sub-fins along a surface of the sub-plate, and the main plate is provided with a main-side engagement section with which the sub-side engagement section is engaged from the stacking direction of the main fins, in a state in which the sub-heat exchange unit is disposed adjacent to the main heat exchange unit. a sub-heat exchange unit which has a plurality of sub-fins stacked at intervals, a sub-plate disposed on one end side in a stacking direction of the sub-fins, and a sub-pipe disposed to penetrate the sub-fins and the sub-plate; and a main heat exchange unit which has a plurality of main fins stacked at intervals, a main plate disposed on one end side in a stacking direction of the main fins, and a main pipe disposed to penetrate the main fins and the main plate, characterized in that a sub-side engagement section is provided in the sub-plate to protrude away from the sub-fins along a surface of the sub-plate, and the main plate is provided with a main-side engagement section with which the sub-side engagement section is engaged from the stacking direction of the main fins, in a state in which the sub-heat exchange unit is disposed adjacent to the main heat exchange unit.
A polymer composition, comprising: from about 50 weight percent (wt.%) to about 95 wt.% of a matrix phase comprising a polypropylene polymer comprising from 0 to 7 mole percent (mol.%) of units derived from ethylene, a C 4 -C 10 alpha olefin or combinations thereof; from about 5 wt.% to about 50 wt.% of a dispersed phase being a propylene/alpha olefin copolymer having from 10 mol.% to 70 mol.% of units derived from ethylene or a C 4 -C 10 alpha olefin or combinations thereof, wherein the weight percentages of the matrix phase and the dispersed phase are based on the total weight of the matrix phase and the dispersed phase, wherein the matrix phase has a melt flow rate of from about 0.1 dg/min. to about 10 dg/min; and the dispersed phase has a melt flow rate of from about 1 dg/min. to about 200 dg/min, being measured using a load of 2.16 kg at 230 °C following ASTM D 1238, and the polymer composition satisfies the following inequality: y≤55x+8, wherein x is a ratio of Mw solubles/Mw insolubles and is less than or equal to 0.85, Mw solubles is weight average molecular weight of a soluble fraction of the polymer composition in xylene at 25°C following ASTM D5492, Mw insoluble is weight average molecular weight of an insoluble fraction of the polymer composition in xylene at 25°C following ASTM D5492, and y is the haze value being measured on a 0.508 millimeter (20 mil) thick injection molded plaque according to ASTM D1003. from about 50 weight percent (wt.%) to about 95 wt.% of a matrix phase comprising a polypropylene polymer comprising from 0 to 7 mole percent (mol.%) of units derived from ethylene, a C 4 -C 10 alpha olefin or combinations thereof; from about 5 wt.% to about 50 wt.% of a dispersed phase being a propylene/alpha olefin copolymer having from 10 mol.% to 70 mol.% of units derived from ethylene or a C 4 -C 10 alpha olefin or combinations thereof, wherein the weight percentages of the matrix phase and the dispersed phase are based on the total weight of the matrix phase and the dispersed phase, wherein the matrix phase has a melt flow rate of from about 0.1 dg/min. to about 10 dg/min; and the dispersed phase has a melt flow rate of from about 1 dg/min. to about 200 dg/min, being measured using a load of 2.16 kg at 230 °C following ASTM D 1238, and the polymer composition satisfies the following inequality: y≤55x+8, wherein x is a ratio of Mw solubles/Mw insolubles and is less than or equal to 0.85, Mw solubles is weight average molecular weight of a soluble fraction of the polymer composition in xylene at 25°C following ASTM D5492, Mw insoluble is weight average molecular weight of an insoluble fraction of the polymer composition in xylene at 25°C following ASTM D5492, and y is the haze value being measured on a 0.508 millimeter (20 mil) thick injection molded plaque according to ASTM D1003.