mhurhangee/ep-ind-claims huggingface dataset:
A solder paste comprising, within a flux, an activator that has a dibasic acid with a molecular weight of 250 or less, a monobasic acid with a molecular weight of 150 or greater and 300 or less, and a dibasic acid with a molecular weight of 300 or greater and 600 or less; and at least one resin additive selected from the group consisting of polyethylenes having a density of 942 kg/m 3 or greater and polypropylenes, wherein the solder paste has the resin additive in an amount of 4% by weight or greater and 12% by weight or less when the total amount of the flux is taken as 100% by weight, and the solder paste has a viscosity, when measured according to the method and with the means for measurement as described in paragraph of the description, of 400 Pa·s or greater at 80°C, wherein the dibasic acid with a molecular weight of 250 or less is selected from the group of malonic acid, succinic acid, glutaric acid, adipic acid, suberic acid, sebacic acid, phthalic acid, hexahydrophthalic acid, aminosuccinic acid and diphenic acid, wherein the monobasic acid with a molecular weight of 150 or greater and 300 or less is selected from the group of decanoic acid, stearic acid, oleic acid, anisic acid, benzoylbenzoic acid, dichlorobenzoic acid, dibromosalicylic acid, diphenyl acetic acid and cuminic acid, and wherein the dibasic acid with a molecular weight of 300 or greater and 600 or less is selected from the group of an esterification product of diethylene glycol and succinic anhydride, a (meth)acrylic acid adduct of an unsaturated fatty acid and a dimer of an unsaturated fatty acid. wherein the dibasic acid with a molecular weight of 250 or less is selected from the group of malonic acid, succinic acid, glutaric acid, adipic acid, suberic acid, sebacic acid, phthalic acid, hexahydrophthalic acid, aminosuccinic acid and diphenic acid, wherein the monobasic acid with a molecular weight of 150 or greater and 300 or less is selected from the group of decanoic acid, stearic acid, oleic acid, anisic acid, benzoylbenzoic acid, dichlorobenzoic acid, dibromosalicylic acid, diphenyl acetic acid and cuminic acid, and wherein the dibasic acid with a molecular weight of 300 or greater and 600 or less is selected from the group of an esterification product of diethylene glycol and succinic anhydride, a (meth)acrylic acid adduct of an unsaturated fatty acid and a dimer of an unsaturated fatty acid.
A mobile device management apparatus comprising: a policy storing unit configured to receive and store security policies from a management server configured to manage an operation of a mobile device remotely; wherein the security policies define operation states with respect to functions of a mobile device and are classified into a plurality of profiles to which activation priorities are assigned; and a policy implementation unit configured to control the function of the mobile device by selectively activating the profiles in response to one or more of: a detection of an event occurring on the mobile device, and a command received from the management server; wherein each profile is assigned an activation index, and the policy implementation unit is further configured to activate a profile of which the activation index is greater than a preset reference value, wherein, when two or more events correspond to a profile, the activation index of the corresponding profile is increased by a number of the events two or more that occurred, and wherein, when the function of the mobile device is controlled by more than one of the security policies, the policy implementation unit is further configured to execute only the one of the security policies belonging to the layer having a higher respective activation priority. a policy storing unit configured to receive and store security policies from a management server configured to manage an operation of a mobile device remotely; wherein the security policies define operation states with respect to functions of a mobile device and are classified into a plurality of profiles to which activation priorities are assigned; and a policy implementation unit configured to control the function of the mobile device by selectively activating the profiles in response to one or more of: a detection of an event occurring on the mobile device, and a command received from the management server; a detection of an event occurring on the mobile device, and a command received from the management server; wherein each profile is assigned an activation index, and the policy implementation unit is further configured to activate a profile of which the activation index is greater than a preset reference value, wherein, when two or more events correspond to a profile, the activation index of the corresponding profile is increased by a number of the events two or more that occurred, and wherein, when the function of the mobile device is controlled by more than one of the security policies, the policy implementation unit is further configured to execute only the one of the security policies belonging to the layer having a higher respective activation priority.
A showcase strip lamp, comprising: a lamp tube, having a tube wall provided with a plurality of first light emitting holes arranged at intervals in the length direction; a circuit board, disposed in the lamp tube and having a front face facing the plurality of first light emitting holes; a plurality of light sources, corresponding to each first light emitting hole and arranged on the circuit board; a heat conducting member, being contact-connected between the back of the circuit board and the inner wall of the lamp tube; and an end cover assembly, disposed on ends of the lamp tube; wherein each first light emitting hole is correspondingly provided with a light shield, wherein an insulation baffle is provided between the front surface of the circuit board and the inner wall of the lamp tube, and the insulation baffle is provided with a second fixed connecting member that cooperates with the light shield, and there are two second fixed connecting member corresponding to each light shield, and the two second fixed connecting member are distributed on both sides of the second light emitting hole along the length direction of the lamp tube, characterized in that the first light emitting hole is a square hole, including two first sides parallel to the length direction of the lamp tube and two second sides perpendicular to the length direction of the lamp tube, the light shield is provided with two first fixed connecting members which are respectively engaged with the first side. a lamp tube, having a tube wall provided with a plurality of first light emitting holes arranged at intervals in the length direction; a circuit board, disposed in the lamp tube and having a front face facing the plurality of first light emitting holes; a plurality of light sources, corresponding to each first light emitting hole and arranged on the circuit board; a heat conducting member, being contact-connected between the back of the circuit board and the inner wall of the lamp tube; and an end cover assembly, disposed on ends of the lamp tube; wherein each first light emitting hole is correspondingly provided with a light shield, wherein an insulation baffle is provided between the front surface of the circuit board and the inner wall of the lamp tube, and the insulation baffle is provided with a second fixed connecting member that cooperates with the light shield, and there are two second fixed connecting member corresponding to each light shield, and the two second fixed connecting member are distributed on both sides of the second light emitting hole along the length direction of the lamp tube, characterized in that the first light emitting hole is a square hole, including two first sides parallel to the length direction of the lamp tube and two second sides perpendicular to the length direction of the lamp tube, the light shield is provided with two first fixed connecting members which are respectively engaged with the first side.
A method for imaging particles in a blood fluid sample using a particle analysis system configured for geometric hydrofocusing, the particles included in the blood fluid sample having a sample fluid viscosity, the method comprising: injecting the blood fluid sample into a flowpath of the flowcell (22, 33, 420) so that the blood fluid sample fluid flows in a sample flowstream (32, 428) with a flowstream width greater than a flowstream thickness, the sample flowstream flowing through a decrease in flowpath size (21, 419a) and traversing an imaging axis; focusing an image capture device by imaging an imaging target (44, 1000, 1344, 1470, 1472c, 1474c), wherein the image capture device has a field of view and the imaging target (44, 1000, 1344, 1470, 1472c, 1474c) has a position fixed relative to the flowcell (22, 33, 420) in the field of view; and acquiring a focused image of the particles, suitable for particle characterization and counting, within the flowstream with the image capture device, wherein the image capture device (24, 430) is focused on the sample flowstream using a displacement distance characterized in that the imaging target is not placed inside the sample flow stream and that the displacement distance has a value greater than zero; and acquiring the focused image comprises adjusting a distance between the image capture device (24, 430) and the flowcell (22, 33, 420) using the displacement distance. injecting the blood fluid sample into a flowpath of the flowcell (22, 33, 420) so that the blood fluid sample fluid flows in a sample flowstream (32, 428) with a flowstream width greater than a flowstream thickness, the sample flowstream flowing through a decrease in flowpath size (21, 419a) and traversing an imaging axis; focusing an image capture device by imaging an imaging target (44, 1000, 1344, 1470, 1472c, 1474c), wherein the image capture device has a field of view and the imaging target (44, 1000, 1344, 1470, 1472c, 1474c) has a position fixed relative to the flowcell (22, 33, 420) in the field of view; and acquiring a focused image of the particles, suitable for particle characterization and counting, within the flowstream with the image capture device, wherein the image capture device (24, 430) is focused on the sample flowstream using a displacement distance characterized in that the imaging target is not placed inside the sample flow stream and that the displacement distance has a value greater than zero; and acquiring the focused image comprises adjusting a distance between the image capture device (24, 430) and the flowcell (22, 33, 420) using the displacement distance.
A bulk acoustic wave resonator, BAWR, comprising: a bulk acoustic wave resonance unit comprising a first electrode forming an upper portion electrode, a second electrode forming a lower portion electrode, and a piezoelectric layer disposed between the first electrode and the second electrode; and an anti-resonant frequency modifying unit configured to modify an anti-resonant frequency generated by the bulk acoustic wave resonance unit, comprising a ground plane (641, 651) formed at a distance apart from the bulk acoustic wave resonance unit, wherein the ground plane has a plane first portion formed at a first distance apart from a side of the first electrode, CHARACTERISED IN THAT the ground plane has a second portion having a bent shape, extending over an area of a top of the first electrode at a second distance above the first electrode, wherein the anti-resonant frequency modifying unit is configured to modify the anti-resonant frequency, determined by a capacitance component generated between the bulk acoustic wave resonance unit and the ground plane. a bulk acoustic wave resonance unit comprising a first electrode forming an upper portion electrode, a second electrode forming a lower portion electrode, and a piezoelectric layer disposed between the first electrode and the second electrode; and an anti-resonant frequency modifying unit configured to modify an anti-resonant frequency generated by the bulk acoustic wave resonance unit, comprising a ground plane (641, 651) formed at a distance apart from the bulk acoustic wave resonance unit, wherein the ground plane has a plane first portion formed at a first distance apart from a side of the first electrode, CHARACTERISED IN THAT the ground plane has a second portion having a bent shape, extending over an area of a top of the first electrode at a second distance above the first electrode, wherein the anti-resonant frequency modifying unit is configured to modify the anti-resonant frequency, determined by a capacitance component generated between the bulk acoustic wave resonance unit and the ground plane.
A dual-mode microwave applicator for treating tissue, comprising: a control unit configured to control the applicator in an ablation mode and a sensing mode, wherein during the application mode microwave radiation is applied and during the sensing mode tumorous tissue is detected; a rod-shaped element with a tip; a coaxial line (213, 214) formed in the rod-shaped element to relay microwaves to the tip for treatment of the tissue, wherein the coaxial line comprises an inner conductor and an outer conductor, the outer conductor including a slot of a slot length formed at a slot distance from the tip; and a metal sleeve at a sleeve distance from the slot, wherein set values are set as follows: the sleeve distance is about 0.55 mm, the slot length is about 1.75 mm, and the slot distance is about 7.7 mm, wherein a tolerance region is ±0.5 mm or ±50% of the set values. a control unit configured to control the applicator in an ablation mode and a sensing mode, wherein during the application mode microwave radiation is applied and during the sensing mode tumorous tissue is detected; a rod-shaped element with a tip; a coaxial line (213, 214) formed in the rod-shaped element to relay microwaves to the tip for treatment of the tissue, wherein the coaxial line comprises an inner conductor and an outer conductor, the outer conductor including a slot of a slot length formed at a slot distance from the tip; and a metal sleeve at a sleeve distance from the slot, wherein set values are set as follows: the sleeve distance is about 0.55 mm, the slot length is about 1.75 mm, and the slot distance is about 7.7 mm, wherein a tolerance region is ±0.5 mm or ±50% of the set values.
Method for delivering and/or collecting of at least one mailing, - in which a vehicle drives to at least one receptacle through public traffic at least in part and - in which the at least one mailing to be delivered is taken from the vehicle and placed into the receptacle by a transfer device attached to the vehicle and/or the at least one mailing to be collected is brought from the receptacle to the vehicle by the transfer device attached to the vehicle, characterized in that - the transfer device removes the receptacle from, in particular out of, a holder of the receptacle and conveys it into the vehicle at least in part and - the mailing is placed into the receptacle and/or removed from the receptacle when said receptacle is located in the vehicle at least in part. - in which a vehicle drives to at least one receptacle through public traffic at least in part and - in which the at least one mailing to be delivered is taken from the vehicle and placed into the receptacle by a transfer device attached to the vehicle and/or the at least one mailing to be collected is brought from the receptacle to the vehicle by the transfer device attached to the vehicle, - the transfer device removes the receptacle from, in particular out of, a holder of the receptacle and conveys it into the vehicle at least in part and - the mailing is placed into the receptacle and/or removed from the receptacle when said receptacle is located in the vehicle at least in part.
A vibration welding device with a mechanically coupled multiple vibrator, with the device having the following features: a. at least three vibration units, each consisting of at least one pair of electromagnetic coils that oppose each other, by means of which a spring-supported vibrator arranged therebetween is settable in linear vibrations in a first direction, b. an elongated tool by means of which a component (B1, B2) to be welded is movable and that is mechanically connected to all vibration units, wherein c. the vibration units are arranged relative to the elongated tool such that the first direction of vibrations of the individual vibration units is oriented approximately transverse to a longitudinal axis of the tool such that, during a vibration welding process, two components (B1, B2) are weldable to each other by vibrations different than a longitudinal direction of the components (B1, B2), in particular transverse to a longitudinal direction. a. at least three vibration units, each consisting of at least one pair of electromagnetic coils that oppose each other, by means of which a spring-supported vibrator arranged therebetween is settable in linear vibrations in a first direction, b. an elongated tool by means of which a component (B1, B2) to be welded is movable and that is mechanically connected to all vibration units, wherein c. the vibration units are arranged relative to the elongated tool such that the first direction of vibrations of the individual vibration units is oriented approximately transverse to a longitudinal axis of the tool such that, during a vibration welding process, two components (B1, B2) are weldable to each other by vibrations different than a longitudinal direction of the components (B1, B2), in particular transverse to a longitudinal direction.
A sizing composition, comprising: 25 wt% to 80 wt% starch based on dry components; 15 wt% to 60 wt% cationic multivalent salt based on dry components; and an organic additive selected from: a water-swellable polymer having a weight average molecular weight ranging from 150,000 Mw to 1,000,000 Mw, a wax, or both the water-swellable polymer and the wax; wherein the cationic multivalent salt is made up of a polyvalent metallic ion and an anion; wherein the organic additive is present at from 0.1 wt.% to 10 wt.%. 25 wt% to 80 wt% starch based on dry components; 15 wt% to 60 wt% cationic multivalent salt based on dry components; and an organic additive selected from: a water-swellable polymer having a weight average molecular weight ranging from 150,000 Mw to 1,000,000 Mw, a wax, or both the water-swellable polymer and the wax; a water-swellable polymer having a weight average molecular weight ranging from 150,000 Mw to 1,000,000 Mw, a wax, or both the water-swellable polymer and the wax; wherein the cationic multivalent salt is made up of a polyvalent metallic ion and an anion; wherein the organic additive is present at from 0.1 wt.% to 10 wt.%.
A pool cleaner driven by a flow of water therethrough for operation along a submerged surface to be cleaned, the pool cleaner comprising: a housing having an inlet port and an outlet port, wherein suction applied to the outlet port results in suction at the inlet port for receiving water and debris therethrough; at least two wheels (14, 16) rotatably carried by the housing for rolling along a surface to be cleaned, wherein an outer diameter of the at least two wheels defines a perimeter thereof; a roller positioned on a bottom portion of the housing forward the inlet port, the roller having a tubular shape defined by an outer surface and an inner surface; an aft element (112, 92) positioned at the bottom portion of the housing aft the inlet port and generally opposing the roller, the aft element extending between the opposing side walls, wherein the aft element and the roller in combination with the opposing side wall portions of the housing form a plenum for water and enhancing adherence of the pool cleaner to the surface to be cleaned; a first axle carried between opposing side wall portions (106, 108) of the housing, characterized in that the roller is slidably rotatable about the first axle along the inner surface, and wherein an outside dimension of the first axle is sufficiently smaller that a diameter of the inner surface for permitting the roller to extend beyond the perimeter and for retracting the roller within the perimeter responsive to movement along the submerged surface. a housing having an inlet port and an outlet port, wherein suction applied to the outlet port results in suction at the inlet port for receiving water and debris therethrough; at least two wheels (14, 16) rotatably carried by the housing for rolling along a surface to be cleaned, wherein an outer diameter of the at least two wheels defines a perimeter thereof; a roller positioned on a bottom portion of the housing forward the inlet port, the roller having a tubular shape defined by an outer surface and an inner surface; an aft element (112, 92) positioned at the bottom portion of the housing aft the inlet port and generally opposing the roller, the aft element extending between the opposing side walls, wherein the aft element and the roller in combination with the opposing side wall portions of the housing form a plenum for water and enhancing adherence of the pool cleaner to the surface to be cleaned; a first axle carried between opposing side wall portions (106, 108) of the housing, characterized in that the roller is slidably rotatable about the first axle along the inner surface, and wherein an outside dimension of the first axle is sufficiently smaller that a diameter of the inner surface for permitting the roller to extend beyond the perimeter and for retracting the roller within the perimeter responsive to movement along the submerged surface.
A method for transforming a diesel engine into an engine running on Natural Gas for Vehicles, said diesel engine having, in each of its cylinders, a piston that is movable in translation within the cylinder and defining with the cylinder a combustion chamber of variable volume, the head of said cylinder, defined by a part of the cylinder head of the engine, comprising at least an orifice for receiving a glow plug and an orifice for receiving a fuel injection member for a diesel engine, said method comprising at least the steps of: a) removing the fuel injection system for a diesel engine, comprising a glow plug and a fuel injection member for injecting fuel into the diesel engine, b) installing an NGV injection system in the diesel engine, characterised in that during step a) the glow plug is removed and at least the orifice for receiving said glow plug is sealed, the injection member is removed and the receiving orifice of said member is partially sealed and in that during step b) the volume of the combustion chamber is increased by approximately 50% in order to obtain a compression ratio ideally close to 12, and the head of each initial piston is modified comprising at least one circular cavity with a bottom provided with a convex portion, by widening the diameter of the cavity by 20% and the convex portion is reduced in diameter and in height and in that the partially sealed receiving orifice is used to installing a spark plug, said spark plug being positioned angularly with respect to a longitudinal axis of the nearest piston such that the longitudinal axis of the spark plug, once in place in the orifice, forms an angle relative to the longitudinal axis of the nearest piston of between 19° and 35°, and in that said orifice is at least 3 mm away from any internal orifice or cavity of the cylinder head and in that during step b), the injection of NGV into an air intake duct of the engine is ensured.