mhurhangee/ep-ind-claims huggingface dataset:
1. A switch plug suitable for being used in a patch cord, the patch cord being provided with a ninth wire and a tenth wire in addition to the normal signal-carrying wires of a patch cord, wherein the switch plug comprises: a ninth wire conductor connectable to the ninth wire, a tenth wire conductor connectable to the tenth wire, and a single-pole switch, the switch plug being characterised in that said switch is a double-throw switch, having first and second switch contacts (40, 42) and a pole, the switch being configured to change states when the switch plug is inserted into a switch port of an Ethernet switch, the pole being electrically connected to the tenth wire conductor; the switch plug being further characterised by comprising: a first capacitor, the first capacitor having a first capacitance and being electrically connected to the ninth wire conductor and to the first switch contact; and a second capacitor, the second capacitor having a second capacitance and being electrically connected to the ninth wire conductor and to the second switch contact, the first capacitance being different than the second capacitance. a ninth wire conductor connectable to the ninth wire, a tenth wire conductor connectable to the tenth wire, and a single-pole switch, the switch plug being characterised in that said switch is a double-throw switch, having first and second switch contacts (40, 42) and a pole, the switch being configured to change states when the switch plug is inserted into a switch port of an Ethernet switch, the pole being electrically connected to the tenth wire conductor; the switch plug being further characterised by comprising: a first capacitor, the first capacitor having a first capacitance and being electrically connected to the ninth wire conductor and to the first switch contact; and a second capacitor, the second capacitor having a second capacitance and being electrically connected to the ninth wire conductor and to the second switch contact, the first capacitance being different than the second capacitance. a first capacitor, the first capacitor having a first capacitance and being electrically connected to the ninth wire conductor and to the first switch contact; and a second capacitor, the second capacitor having a second capacitance and being electrically connected to the ninth wire conductor and to the second switch contact, the first capacitance being different than the second capacitance.
A method performed by a wireless communication device to enable the reception of a beam sweep transmission, characterized in that the method comprises: - obtaining information enabling said wireless communication device to determine whether it is stationary, or essentially stationary; - acquiring configuration information comprising information about the starting time for the beam sweep transmission; - determining a time when to initiate a reception of the beam sweep transmission based at least partially on the obtained information and the acquired configuration information, thereby allowing said wireless communication device to enter, or remain in, a first activity state until said determined time, wherein the first activity state is at least one of an idle state, a dormant state, an energy saving state and a non-receiving state; and - entering, at the determined time, a second activity state that is a receiving state whereby said wireless communication device is capable to receive the beam sweep. - obtaining information enabling said wireless communication device to determine whether it is stationary, or essentially stationary; - acquiring configuration information comprising information about the starting time for the beam sweep transmission; - determining a time when to initiate a reception of the beam sweep transmission based at least partially on the obtained information and the acquired configuration information, thereby allowing said wireless communication device to enter, or remain in, a first activity state until said determined time, wherein the first activity state is at least one of an idle state, a dormant state, an energy saving state and a non-receiving state; and - entering, at the determined time, a second activity state that is a receiving state whereby said wireless communication device is capable to receive the beam sweep.
An optical cable for communications comprising at least one micromodule, said micromodule comprising a retaining element and number N of optical fibers housed in said retaining element, wherein: - a diameter of a circumference encircling said number N of optical fibers is 90% to 95% of an inner diameter of said retaining element; and - said retaining element is made of a film grade polymeric material having an elongation at break equal to or higher than 500%, a melt flow index MFI lower than 3 g/10 min and a density lower than 1 g/cm 3. - a diameter of a circumference encircling said number N of optical fibers is 90% to 95% of an inner diameter of said retaining element; and - said retaining element is made of a film grade polymeric material having an elongation at break equal to or higher than 500%, a melt flow index MFI lower than 3 g/10 min and a density lower than 1 g/cm 3.
A divided-wall column, comprising: a partition plate arranged along an axial direction of the divided-wall column; and a first shaft arranged along a radial direction of the divided-wall column, and a first splitter plate with an end connected to the first shaft, wherein the first splitter plate is configured to be pivotable around the first shaft, so as to control distribution of a stream from below the first splitter plate into spaces formed at two sides of the partition plate; wherein the first shaft is configured to be able to drive the first splitter plate to rotate; characterized in that the first shaft and the first splitter plate are both placed beneath the partition plate, wherein the partition plate and the first shaft are located in a same axial plane of the divided-wall column; further comprising a second shaft arranged along the radial direction of the divided-wall column, and a second splitter plate with an end connected to the second shaft, which are both placed above the partition plate, wherein the second splitter plate is configured to be pivotable around the second shaft, so as to control distribution of the stream from above the second splitter plate into the spaces formed at two sides of the partition plate. a partition plate arranged along an axial direction of the divided-wall column; and a first shaft arranged along a radial direction of the divided-wall column, and a first splitter plate with an end connected to the first shaft, wherein the first splitter plate is configured to be pivotable around the first shaft, so as to control distribution of a stream from below the first splitter plate into spaces formed at two sides of the partition plate; wherein the first shaft is configured to be able to drive the first splitter plate to rotate; characterized in that the first shaft and the first splitter plate are both placed beneath the partition plate, wherein the partition plate and the first shaft are located in a same axial plane of the divided-wall column; further comprising a second shaft arranged along the radial direction of the divided-wall column, and a second splitter plate with an end connected to the second shaft, which are both placed above the partition plate, wherein the second splitter plate is configured to be pivotable around the second shaft, so as to control distribution of the stream from above the second splitter plate into the spaces formed at two sides of the partition plate.
A data reception method for receiving data in units of packets at a receiver, said method comprising the following steps performed by the receiver of: receiving an uncompressed packet including uncompressed transmission data, and subsequently receiving compressed packets each including compressed data which is obtained by compressing at least a portion of transmission data, wherein the transmission data of the compressed packet includes a plurality of compression target data to be decompressed, and restoring the plurality of compression target data of a compressed packet, wherein the plurality of compression target data includes a packet identification of an Internet Protocol, IP, packet and a sequence number of a Real Time Transport Protocol, RTP, packet, and characterized in that the step of restoring the plurality of compression target data comprises restoring the packet identification of the IP packet using a difference-specifying additional information for calculating difference data between the whole or a part of transmission data of an uncompressed packet and the whole or a part of transmission data of a compressed packet, wherein the difference-specifying additional information is included in the compressed packet to be restored and is also used for restoring the sequence number of the RTP packet. receiving an uncompressed packet including uncompressed transmission data, and subsequently receiving compressed packets each including compressed data which is obtained by compressing at least a portion of transmission data, wherein the transmission data of the compressed packet includes a plurality of compression target data to be decompressed, and restoring the plurality of compression target data of a compressed packet, wherein the plurality of compression target data includes a packet identification of an Internet Protocol, IP, packet and a sequence number of a Real Time Transport Protocol, RTP, packet, and characterized in that the step of restoring the plurality of compression target data comprises restoring the packet identification of the IP packet using a difference-specifying additional information for calculating difference data between the whole or a part of transmission data of an uncompressed packet and the whole or a part of transmission data of a compressed packet, wherein the difference-specifying additional information is included in the compressed packet to be restored and is also used for restoring the sequence number of the RTP packet.
A liquid ADW detergent composition charcterised by: a) an alkali metal carbonate; b) a dispersant polymer; c) from 0.5 wt. % to 10 wt. % of an alkali metal silicate; d) a low-foaming non-ionic surfactant; e) enzymes; and f) water; wherein said composition exhibits a viscosity at 1 sec -1 of from 5,000 Cps - 40,000 Cps, as measured at 25°C using an Advance Rheometer AR2000 as specified in the description and wherein said composition is free of a phosphate builder. a) an alkali metal carbonate; b) a dispersant polymer; c) from 0.5 wt. % to 10 wt. % of an alkali metal silicate; d) a low-foaming non-ionic surfactant; e) enzymes; and f) water;
A 3D augmented reality display, comprising: a microdisplay (310, 410, 510, 610, 710, 810) for providing a virtual 3D image for display to a user, which is configured to provide a set of elemental images each having information of a different perspective of a 3D scene, characterised in that it further comprises: variable focus display optics configured to receive optical radiation from the microdisplay and configured to create a 3D lightfield from the received radiation at a location that may be varied by the variable focus optics; and an eyepiece (540, 640) in optical communication with the display optics configured to receive the 3D lightfield from the display optics and deliver the received radiation to an exit pupil of the augmented reality display. a microdisplay (310, 410, 510, 610, 710, 810) for providing a virtual 3D image for display to a user, which is configured to provide a set of elemental images each having information of a different perspective of a 3D scene, characterised in that it further comprises: variable focus display optics configured to receive optical radiation from the microdisplay and configured to create a 3D lightfield from the received radiation at a location that may be varied by the variable focus optics; and an eyepiece (540, 640) in optical communication with the display optics configured to receive the 3D lightfield from the display optics and deliver the received radiation to an exit pupil of the augmented reality display.
A valve comprising: a valve stem assembly comprising at least one wall and at least one passage (252, 352, 452, 552) at least partially defined within said valve stem assembly, said at least one passage (252, 352, 452, 552) defines a first opening (256, 356, 456, 556), wherein at least one portion of said at least one wall defines an erosion site (260, 360, 460, 560) that is configured to undergo contact with solid particles such that a second opening (268, 368, 468, 568) of said passage is defined; and at least one sensing device (262, 462, 562) coupled in flow communication with said at least one passage (252, 352, 452, 552) through said first opening (256, 356, 456, 556), said at least one sensing device (262, 462, 562) is configured to transmit a signal representative of an increased fluid flow through said at least one passage. a valve stem assembly comprising at least one wall and at least one passage (252, 352, 452, 552) at least partially defined within said valve stem assembly, said at least one passage (252, 352, 452, 552) defines a first opening (256, 356, 456, 556), wherein at least one portion of said at least one wall defines an erosion site (260, 360, 460, 560) that is configured to undergo contact with solid particles such that a second opening (268, 368, 468, 568) of said passage is defined; and at least one sensing device (262, 462, 562) coupled in flow communication with said at least one passage (252, 352, 452, 552) through said first opening (256, 356, 456, 556), said at least one sensing device (262, 462, 562) is configured to transmit a signal representative of an increased fluid flow through said at least one passage.
Compact bipolarisation power divider for a radiofrequency supply source with dual orthogonal polarisation emitting at a wavelength for use, the divider comprising four orthomode transducers, the divider comprising: - eight identical wave guides, each wave guide comprising two bends (16, 17), four identical T-shaped junctions, the four orthomode transducers all being identical and of substantially parallelepipedal form with a square base, each transducer comprising a lower face and an upper emission face and four lateral faces, each transducer comprising on each of two adjacent lateral faces a wave guide which is connected to the lower face of the transducer; - the four transducers being arranged to form a square, each transducer being connected to two junctions which are perpendicular to each other, each junction being connected with the two branches of the T thereof to the tips of two wave guides, all the four junctions forming a Greek cross centred on the square of the transducers; characterised in that the power divider comprises: - four identical "twists" and two power distributors (41, 42), each pair of junctions located in a same plane being connected via the base of the junctions using two twists to the two outputs of a power distributor comprising a single input; - a coupler whose input is intended to be connected to the radiofrequency supply source and the two mutually perpendicular outputs being connected to the inputs of the two power distributors, the divider constituted in this manner being able to generate signals which are polarised in a circular manner. - eight identical wave guides, each wave guide comprising two bends (16, 17), four identical T-shaped junctions, the four orthomode transducers all being identical and of substantially parallelepipedal form with a square base, each transducer comprising a lower face and an upper emission face and four lateral faces, each transducer comprising on each of two adjacent lateral faces a wave guide which is connected to the lower face of the transducer; - the four transducers being arranged to form a square, each transducer being connected to two junctions which are perpendicular to each other, each junction being connected with the two branches of the T thereof to the tips of two wave guides, all the four junctions forming a Greek cross centred on the square of the transducers; characterised in that the power divider comprises: - four identical "twists" and two power distributors (41, 42), each pair of junctions located in a same plane being connected via the base of the junctions using two twists to the two outputs of a power distributor comprising a single input; - a coupler whose input is intended to be connected to the radiofrequency supply source and the two mutually perpendicular outputs being connected to the inputs of the two power distributors, the divider constituted in this manner being able to generate signals which are polarised in a circular manner.
A scroll compressor, comprising: a housing having therein a suction chamber and a discharge chamber; a fixed scroll fixed in the housing; a movable scroll disposed in the housing in engagement with the fixed scroll to form therebetween a compression chamber (30, 30A, 30B) into which low pressure refrigerant is introduced from the suction chamber and from which high pressure refrigerant is discharged into the discharge chamber, the movable scroll orbiting relative to the fixed scroll to vary the volume of the compression chamber (30, 30A, 30B); and an injection passage (52, 152) through which medium-pressure refrigerant is introduced into the compression chamber, characterized by a selector device (60, 100, 110, 121, 130) connecting the compression chamber to the injection passage (52, 152) or disconnecting the compression chamber from the injection passage (52, 152) with the change of the pressure or the temperature of the refrigerant in the suction chamber. a housing having therein a suction chamber and a discharge chamber; a fixed scroll fixed in the housing; a movable scroll disposed in the housing in engagement with the fixed scroll to form therebetween a compression chamber (30, 30A, 30B) into which low pressure refrigerant is introduced from the suction chamber and from which high pressure refrigerant is discharged into the discharge chamber, the movable scroll orbiting relative to the fixed scroll to vary the volume of the compression chamber (30, 30A, 30B); and an injection passage (52, 152) through which medium-pressure refrigerant is introduced into the compression chamber, characterized by a selector device (60, 100, 110, 121, 130) connecting the compression chamber to the injection passage (52, 152) or disconnecting the compression chamber from the injection passage (52, 152) with the change of the pressure or the temperature of the refrigerant in the suction chamber.
A resin material comprising; at least one thermoset polymer resin; carbon conductive additive material, wherein the carbon conductive additive material is carbon nanotubes, carbon nanofibres, or a combination of carbon nanotubes and carbon nanofibres; and at least one thermoplastic polymer resin; wherein the thermoset polymer resin is selected from epoxy resins, cyanate ester resins, bismaleimide resins, isocyanate modified epoxy resins, benzoxazine resins, phenolic resins, or any combination thereof; the at least one thermoplastic polymer resin being present in the range 0.5 wt. % to 25 wt. % of the resin material and being dissolved in the thermoset polymer resin, and, on curing, the thermoplastic polymer resin phase separating from the thermoset polymer resin to form domains substantially comprised of thermoplastic polymer resin and being of a size in the range 20 to 5000 nm when measuring the largest cross-sectional dimension of the domain, at least 95 wt% of the thermoplastic polymer resin present in the resin material being in the form of the phase separated domains; and whereby at least 90 wt.% of the carbon conductive additive material is present in the non-thermoplastic polymer phase.
Device for converting light energy into electrical energy and/or hydrogen comprising a reactor, wherein the reactor comprises an anode compartment comprising an anodic material and a cathode compartment and where the anode compartment comprises a) an anodophilic micro-organism capable of oxidizing an electron donor compound, and b) a living plant or part thereof, capable of converting light energy by means of photosynthesis into the electron donor compound, wherein the root zone of the plant is essentially placed in the anodic material.
A wiring module that is attachable to an electrical storage element group in which a plurality of electrical storage elements each including a pair of positive and negative electrode terminals (63A, 63B) are lined up, comprising: a bus bar holding member that is made of an insulating material and is attachable to the electrical storage element group; bus bars (2, 4) that are connectable to the electrode terminals (63A, 63B) and that are held on a side of the bus bar holding member that is opposite to a side facing the electrical storage element group; detection terminals for detecting states of the electrical storage elements, the detection terminals being electrically connected to the bus bars (2, 4) and being held by the bus bar holding member; detection wires that are drawn from the detection terminals; a wire routing path that is provided on the side of the bus bar holding member that faces the electrical storage elements, the detection wires being routed along the wire routing path; and a partition wall portion that separates the detection wires accommodated in the wire routing path from the electrical storage element group; characterised in that the wire routing path and the partition wall portion are formed integrally with the bus bar holding member. a bus bar holding member that is made of an insulating material and is attachable to the electrical storage element group; bus bars (2, 4) that are connectable to the electrode terminals (63A, 63B) and that are held on a side of the bus bar holding member that is opposite to a side facing the electrical storage element group; detection terminals for detecting states of the electrical storage elements, the detection terminals being electrically connected to the bus bars (2, 4) and being held by the bus bar holding member; detection wires that are drawn from the detection terminals; a wire routing path that is provided on the side of the bus bar holding member that faces the electrical storage elements, the detection wires being routed along the wire routing path; and a partition wall portion that separates the detection wires accommodated in the wire routing path from the electrical storage element group; characterised in that the wire routing path and the partition wall portion are formed integrally with the bus bar holding member.