mhurhangee/ep-ind-claims huggingface dataset:
A multifunctional system installable in a space at a ceiling, comprising: - at least one longitudinal profile couplable with the ceiling; - at least one first accessory and one second accessory (30, 40) that perform one or more functions in the space, said at least one first and one second accessory (30, 40) being alternatively and selectively removably couplable with said at least one longitudinal profile; wherein said at least one profile comprises a pair of lateral walls (11, 12) facing each other and an upper wall designated to be faced towards the ceiling cooperating with each other to internally define a compartment open at the bottom for removably receiving said at least one first or at least one second accessory, wherein said at least one first or one second accessory comprises: - at least one longitudinal conductive guide rail susceptible to be powered by means of electric power supply means; - at least one light source removably coupled with said at least one longitudinal conductive guide rail so that the latter power-supplies the former; wherein said multifunctional system further comprises at least one low voltage transformer coupled or couplable with said at least one profile and electrically connected with said at least one longitudinal conductive guide rail and with the electric power supply means so that said at least one light source is power-supplied at low voltage; characterized in that said at least one second accessory comprises at least one adapter element operatively coupled with said at least one light source and said adapter element being susceptible to be removably coupled with said at least one longitudinal conductive guide rail, the latter and said adapter element being mutually coupled by means of magnetic attraction. - at least one longitudinal profile couplable with the ceiling; - at least one first accessory and one second accessory (30, 40) that perform one or more functions in the space, said at least one first and one second accessory (30, 40) being alternatively and selectively removably couplable with said at least one longitudinal profile; - at least one longitudinal conductive guide rail susceptible to be powered by means of electric power supply means; - at least one light source removably coupled with said at least one longitudinal conductive guide rail so that the latter power-supplies the former;
A method for manufacturing a dental structure from an individual raw body that is transformed into a dental piece for the subsequent placement thereof by screwing on one or several osseointegrated dental implants with an axis, characterised in that it comprises the following stages: - Drilling the body, through its lower portion that is to be placed on the dental implant, along a first axis (a), coinciding with the axis of the dental implant, creating a first channel with a first diameter, - Inserting a milling tool from below into said first channel, with the shape according to a seat of a screw to be inserted in the first channel, to machine the first channel and the seat of the screw, - Machining the inside of the first channel, widening a first diameter thereof in at least a second section, determining a first section with the first diameter and the second section with a second diameter, which is greater than the first diameter, and - Drilling of said body, creating a second channel, performed before or after the first channel (21, 22),along a second axis (b) that forms an angle greater than 0° and less than or equal to 45° with the first axis (a) of the first channel (21, 22), connecting said second channel with said first channel (21, 22). - Drilling the body, through its lower portion that is to be placed on the dental implant, along a first axis (a), coinciding with the axis of the dental implant, creating a first channel with a first diameter, - Inserting a milling tool from below into said first channel, with the shape according to a seat of a screw to be inserted in the first channel, to machine the first channel and the seat of the screw, - Machining the inside of the first channel, widening a first diameter thereof in at least a second section, determining a first section with the first diameter and the second section with a second diameter, which is greater than the first diameter, and - Drilling of said body, creating a second channel, performed before or after the first channel (21, 22),along a second axis (b) that forms an angle greater than 0° and less than or equal to 45° with the first axis (a) of the first channel (21, 22), connecting said second channel with said first channel (21, 22).
A telescopic transmission cable device, comprising: a cable body and a rectification part, wherein the cable body comprises at least two wires insulated from each other, and one end of the cable body is a built-in end while the other end is an external connection end; wherein the telescopic transmission cable device is adapted to be in a coil state and in a linear state, wherein, in the coil state, the cable body is coiled up into a coil, the external connection end and the built-in end are respectively adapted to be connected to two input ends (31, 32) of the rectification part, and the two output ends (33, 34) of the rectification part are respectively adapted to be connected to a positive electrode and a negative electrode of a power supply to be charged, such that the coil is adapted to receive wireless electrical energy and charge the power supply to be charged through the rectification part; and in the linear state, the external connection end is connected to an external device, the two wires of the built-in end are respectively adapted to be connected to the positive electrode and the negative electrode of the power supply to be charged, and the two output ends (33, 34) of the rectification part are respectively adapted to be disconnected to the positive electrode and the negative electrode of the power supply to be charged, such that the cable body extends to be connected in a wired manner with the external device to allow a wired charge function to be carried out.
COMPACTION PROCESS OF A PIECE OF COMPOSITE MATERIALS, comprising: - applying a mould release agent on a surface of a coating piece manufacturing tool and carrying out its curing; - applying a layer with adhesive properties on the mould release agent, in order to leave a smooth surface of the piece to be obtained, the process further comprises: - extending along the layer with adhesive properties an aerator blanket with dimensions larger than said layer with adhesive properties; - extending a membrane with resilient properties on the entire surface of the tool, avoiding leaving folds and that the blanket does not protrude; the membrane with resilient properties including a vacuum valve in order to extract the air comprised between the membrane with resilient properties and the tool, and compacting the layer with adhesive properties keeping the vacuum for certain time; the membrane with resilient properties carries out a closing down just about the aerator blanket when applying vacuum by its resilient properties, avoiding the use of vacuum putty; and - removing the membrane with resilient properties and the aerator blanket. - applying a mould release agent on a surface of a coating piece manufacturing tool and carrying out its curing; - applying a layer with adhesive properties on the mould release agent, in order to leave a smooth surface of the piece to be obtained, the process further comprises: - extending along the layer with adhesive properties an aerator blanket with dimensions larger than said layer with adhesive properties; - extending a membrane with resilient properties on the entire surface of the tool, avoiding leaving folds and that the blanket does not protrude; the membrane with resilient properties including a vacuum valve in order to extract the air comprised between the membrane with resilient properties and the tool, and compacting the layer with adhesive properties keeping the vacuum for certain time; the membrane with resilient properties carries out a closing down just about the aerator blanket when applying vacuum by its resilient properties, avoiding the use of vacuum putty; and - removing the membrane with resilient properties and the aerator blanket. - extending along the layer with adhesive properties an aerator blanket with dimensions larger than said layer with adhesive properties; - extending a membrane with resilient properties on the entire surface of the tool, avoiding leaving folds and that the blanket does not protrude; the membrane with resilient properties including a vacuum valve in order to extract the air comprised between the membrane with resilient properties and the tool, and compacting the layer with adhesive properties keeping the vacuum for certain time; the membrane with resilient properties carries out a closing down just about the aerator blanket when applying vacuum by its resilient properties, avoiding the use of vacuum putty; and - removing the membrane with resilient properties and the aerator blanket.
A method for the protection of an electric power transmission network, where local protection functions are implemented by a plurality of local protection devices (3,3a,3b,3b',3c) located at a plurality of locations throughout the network, characterized in that the method comprises the steps of • measuring phasor data for voltages and currents at a plurality of locations (A,B) of the network, • transmitting said phasor data to a central processing device, • emulating, in the central processing device, protection functions that are implemented in the local protection devices (3,3a,3b,3b',3c), and • executing, in accordance with a given redundancy strategy, control commands that are issued redundantly by the local protection devices (3,3a,3b,3b',3c) and by the central processing device. • measuring phasor data for voltages and currents at a plurality of locations (A,B) of the network, • transmitting said phasor data to a central processing device, • emulating, in the central processing device, protection functions that are implemented in the local protection devices (3,3a,3b,3b',3c), and • executing, in accordance with a given redundancy strategy, control commands that are issued redundantly by the local protection devices (3,3a,3b,3b',3c) and by the central processing device.
A method for synchronising the position of multiple individual drives of a drive assembly and/or production assembly for a printing machine, within the framework of synchronising the position of the individual drives travel and/or adjustment ranges to be determined in order to align the individual drives in consideration of the overall system of the drive assembly and/or production assembly or by means of a central unit of the overall system of the drive assembly and/or production assembly being optimised, the travel and/or adjustment ranges being optimised in consideration of a permitted adjustment speed and/or at least one admissible adjustment movement and/or at least one current position angle (p n) of at least one individual drive as a boundary condition (c n), characterised in that within the framework of synchronising the position of the individual drives in a printing machine the current position angles (p n) of all of the individual drives, in particular of all of the axes, is inputted by means of a central control unit, and from this, by means of an optimisation algorithm in an overriding control system, an optimal target position is calculated for all of the individual drives and is communicated to the individual drives, in particular to corresponding drive controllers, and/or that deviations from the optimal target positions are corrected by a control circuit.
A sealing device comprising: a) A waterproofing membrane having top and bottom surfaces and comprising at least one polymer P1 and b) A protective film comprising a backing layer comprising at least one polymer P2, wherein the backing layer is directly attached over at least part of its surface to the bottom surface of the waterproofing membrane through thermal bonding and wherein the at least one polymer P2 is present in the backing layer in an amount of at least 50 wt.-%, the at least one polymer P2 is selected from propylene homopolymers and propylene copolymers, and the backing layer has a thickness of 5 - 75 μm. a) A waterproofing membrane having top and bottom surfaces and comprising at least one polymer P1 and b) A protective film comprising a backing layer comprising at least one polymer P2, wherein the backing layer is directly attached over at least part of its surface to the bottom surface of the waterproofing membrane through thermal bonding and wherein the at least one polymer P2 is present in the backing layer in an amount of at least 50 wt.-%, the at least one polymer P2 is selected from propylene homopolymers and propylene copolymers, and the backing layer has a thickness of 5 - 75 μm.
An oil separator, comprising: a first pipe suitable to be connected to a discharge port of a compressor; a second pipe suitable to be connected to a suction port of the compressor; a differential pressure generation mechanism that has a third pipe that connects the first pipe and the second pipe with each other and a filter portion located at a distal end of the third pipe at which the third pipe is connected to the first pipe, the differential pressure generation mechanism being configured to generate a differential pressure between a pressure of high-pressure refrigerant that flows in the first pipe and a pressure of low-pressure refrigerant that flows in the second pipe; and an oil return mechanism that has an oil return port opened and formed at the first pipe and disposed downstream of a connection position at which the third pipe is connected to the first pipe and a portion of an oil return circuit that connects the first pipe and the second pipe with each other via the oil return port, the filter portion in the differential pressure generation mechanism being configured to collect, by the differential pressure, the lubricating oil that is in a form of mist included in the high-pressure refrigerant, the first pipe allowing the collected lubricating oil to move downstream along an internal wall of the first pipe, the oil return mechanism being configured to return, via the oil return circuit and the oil return port, the collected lubricating oil included in the high-pressure refrigerant from the first pipe to the second pipe. a first pipe suitable to be connected to a discharge port of a compressor; a second pipe suitable to be connected to a suction port of the compressor; a differential pressure generation mechanism that has a third pipe that connects the first pipe and the second pipe with each other and a filter portion located at a distal end of the third pipe at which the third pipe is connected to the first pipe, the differential pressure generation mechanism being configured to generate a differential pressure between a pressure of high-pressure refrigerant that flows in the first pipe and a pressure of low-pressure refrigerant that flows in the second pipe; and an oil return mechanism that has an oil return port opened and formed at the first pipe and disposed downstream of a connection position at which the third pipe is connected to the first pipe and a portion of an oil return circuit that connects the first pipe and the second pipe with each other via the oil return port, the filter portion in the differential pressure generation mechanism being configured to collect, by the differential pressure, the lubricating oil that is in a form of mist included in the high-pressure refrigerant, the first pipe allowing the collected lubricating oil to move downstream along an internal wall of the first pipe, the oil return mechanism being configured to return, via the oil return circuit and the oil return port, the collected lubricating oil included in the high-pressure refrigerant from the first pipe to the second pipe.
An article-transport container comprising: a floor having a respective left-side and right-side closures (16,20) foldably joined thereto, a front end closure foldably joined to the floor and to the respective right-side and left-side closures wherein the front end closure further includes a front end strip and a front end canopy coupled to the front end strip about a front end canopy fold line wherein the front end strip includes a front end wall a first front anchor flap coupled to the front end wall about a first front anchor-flap fold line and a second front anchor flap coupled to the front end wall about a second front anchor-flap fold line a rear end closure foldably joined to the floor and to the respective right-side and left-side closures, and at least one quad-layer comer cooperates with the respective right-side and left-side closures to define an interior region adapted to receive articles therein wherein the at least one quad-layer corner includes respective outer and inner layers and respective first and second medial layers being sandwiched between the respective outer and inner layers to enhance stacking strength of the container while minimizing scarps produced during construction of the container. a floor having a respective left-side and right-side closures (16,20) foldably joined thereto, a front end closure foldably joined to the floor and to the respective right-side and left-side closures wherein the front end closure further includes a front end strip and a front end canopy coupled to the front end strip about a front end canopy fold line wherein the front end strip includes a front end wall a first front anchor flap coupled to the front end wall about a first front anchor-flap fold line and a second front anchor flap coupled to the front end wall about a second front anchor-flap fold line a rear end closure foldably joined to the floor and to the respective right-side and left-side closures, and at least one quad-layer comer cooperates with the respective right-side and left-side closures to define an interior region adapted to receive articles therein wherein the at least one quad-layer corner includes respective outer and inner layers and respective first and second medial layers being sandwiched between the respective outer and inner layers to enhance stacking strength of the container while minimizing scarps produced during construction of the container.
Method of recovering an organic acid from an aqueous solution, comprising: extracting the organic acid dissolved in the aqueous solution into a water immiscible extraction phase comprising an extractant for the organic acid, separating the extraction phase from the aqueous solution, adding an alcohol to the extraction phase separated from the aqueous solution and reacting the extraction phase separated from the aqueous solution with the alcohol to form an ester from the organic acid and the alcohol, wherein the alcohol is an alkyl alcohol having a total of between 1 and 5 carbon atoms, characterised in that extracting the organic acid comprises adding a water immiscible diluent to the extraction phase, wherein the diluent is free from alcohols and miscible with the extractant and in that reacting the extraction phase separated from the aqueous solution with the alcohol comprises a catalyst-free esterification reaction. extracting the organic acid dissolved in the aqueous solution into a water immiscible extraction phase comprising an extractant for the organic acid, separating the extraction phase from the aqueous solution, adding an alcohol to the extraction phase separated from the aqueous solution and reacting the extraction phase separated from the aqueous solution with the alcohol to form an ester from the organic acid and the alcohol, wherein the alcohol is an alkyl alcohol having a total of between 1 and 5 carbon atoms,
Process for the preparation of a silica melt comprising at least 35 wt% silica, preferably at least 40 wt% silica, more preferably at least 45 wt% silica or at least 50 wt% silica, wherein fine silica powder containing more than 50 wt%, preferably more than 60 wt%, even more preferably more than 70 or more than 80 wt% of particles showing a particle size of less than 50 μm, preferably less than 45 μm, notably fly ash and/or rice husk ash, is fed below bubbling melt level in a submerged combustion melter comprising at least one submerged burner arranged in the bottom of the melter.
Heat sink for cooling a plurality of electrical power modules comprising a thermally conductive body which has channels through which a coolant can flow, characterized in that the body has fin-like cooling elements on one side, wherein each fin-like cooling element can be thermally conductively connected to at least the top or bottom side of one of the plurality of electrical power modules which are to be cooled, and the body has coolant supply and discharge lines on another side, it being possible to connect the said coolant supply and discharge lines to the coolant which can flow through the interior of the channels.
A fluid control film comprising: a plurality of fluid control channels extending along a channel longitudinal axis, each of the fluid control channels comprising a surface and configured to allow capillary movement of liquid in the channels; and a hydrophilic surface treatment covalently bonded to at least a portion of the surface of the fluid control channels, wherein the fluid control film exhibits a capillary rise percent recovery of at least 10%, wherein the capillary rise percent recovery is the percentage of capillary rise retained after contamination with silicone oil and subsequent cleaning with water versus the capillary rise before contamination, wherein the capillary rise is determined when the fluid control film is placed in a volume of water oriented perpendicular to the surface of the water with one edge having channel openings submerged below the water for two minutes and the vertical height of the transported water above the submerged edge is measured, and wherein the hydrophilic surface treatment comprises functional groups selected from a non-zwitterionic sulfonate, a zwitterionic sulfonate, or a combination thereof. a plurality of fluid control channels extending along a channel longitudinal axis, each of the fluid control channels comprising a surface and configured to allow capillary movement of liquid in the channels; and a hydrophilic surface treatment covalently bonded to at least a portion of the surface of the fluid control channels, wherein the fluid control film exhibits a capillary rise percent recovery of at least 10%, wherein the capillary rise percent recovery is the percentage of capillary rise retained after contamination with silicone oil and subsequent cleaning with water versus the capillary rise before contamination, wherein the capillary rise is determined when the fluid control film is placed in a volume of water oriented perpendicular to the surface of the water with one edge having channel openings submerged below the water for two minutes and the vertical height of the transported water above the submerged edge is measured, and wherein the hydrophilic surface treatment comprises functional groups selected from a non-zwitterionic sulfonate, a zwitterionic sulfonate, or a combination thereof.