mhurhangee/ep-ind-claims huggingface dataset:
Manufacturing mould for manufacturing a cable harness for a vehicle, - wherein the manufacturing mould comprises a mould body and at least a first actuator, - wherein the mould body is formed from an elastically reversibly deformable material and at least partially surrounds a mould cavity, - wherein the first actuator is coupled to a first partial portion of the mould body, - wherein the first partial portion at least partially delimits the mould cavity on the inside, - wherein the cable harness can at least be manufactured in the mould cavity, - wherein the first actuator is configured to reversibly pivot the first partial portion between a first position and a second position which is different from the first position. - wherein the manufacturing mould comprises a mould body and at least a first actuator, - wherein the mould body is formed from an elastically reversibly deformable material and at least partially surrounds a mould cavity, - wherein the first actuator is coupled to a first partial portion of the mould body, - wherein the first partial portion at least partially delimits the mould cavity on the inside, - wherein the cable harness can at least be manufactured in the mould cavity, - wherein the first actuator is configured to reversibly pivot the first partial portion between a first position and a second position which is different from the first position.
A light effect system for forming a light beam, said light effect system comprising: ∘ first light forming means (105a; 301a-301 e) adapted to form at least a part of said light beam, said first light forming means comprising at least one light effect edge (201a, 201b, 306a-306g) formed in at least a part of the outer perimeter of said first light forming means; ∘ at least a first actuator (413, 513, 613, 814a) adapted to rotate said first light forming means around a first rotational point and around an axis substantially parallel to the central axis of said light beam; ∘ at least a second actuator (514, 601, 815a) adapted to move said first light forming means in relation to said light beam, such that said first rotational point moves in an area outside said light beam and radially to the central axis of said light beam; characterized in that said first light forming means comprises at least one light effect region (203a, 203b and 203c, 303a-303g, 303i) said light effect region being formed in said first light forming means between the outer perimeter of said first light forming means and said rotational point of said first light forming means and where said light effect region is formed as at least one of a colour filter (203a, 203b and 203c, 303a-303g) adjacent to said light effect edge or an aperture (309, 311) configured to shape said light beam. ∘ first light forming means (105a; 301a-301 e) adapted to form at least a part of said light beam, said first light forming means comprising at least one light effect edge (201a, 201b, 306a-306g) formed in at least a part of the outer perimeter of said first light forming means; ∘ at least a first actuator (413, 513, 613, 814a) adapted to rotate said first light forming means around a first rotational point and around an axis substantially parallel to the central axis of said light beam; ∘ at least a second actuator (514, 601, 815a) adapted to move said first light forming means in relation to said light beam, such that said first rotational point moves in an area outside said light beam and radially to the central axis of said light beam;
An electrochemical cell comprising: a positive current collector, in which an injection part, an ejection part and a passage are defined, wherein air including oxygen is injected through the injection part, an exhaust gas is ejected through the ejection part, and the passage defines a single path having a meandering shape, which connects the injection part and the ejection part; and a unit cell disposed to be adjacent to the positive current collector, wherein the unit cell comprises: a positive electrode layer adjacent to the positive current collector, wherein the oxygen is an active material thereof; a negative electrode metal layer disposed opposite to the positive current collector with respect to the positive electrode layer; and an electrolyte membrane interposed between the positive electrode layer and the negative electrode metal layer, wherein the positive electrode layer contacts a surface of the positive current collector, characterised in that at least a part of the passage is opened toward a surface of the positive electrode layer, and in that the positive electrode layer is positioned immediately next to the passage. a positive current collector, in which an injection part, an ejection part and a passage are defined, wherein air including oxygen is injected through the injection part, an exhaust gas is ejected through the ejection part, and the passage defines a single path having a meandering shape, which connects the injection part and the ejection part; and a unit cell disposed to be adjacent to the positive current collector, wherein the unit cell comprises: a positive electrode layer adjacent to the positive current collector, wherein the oxygen is an active material thereof; a negative electrode metal layer disposed opposite to the positive current collector with respect to the positive electrode layer; and an electrolyte membrane interposed between the positive electrode layer and the negative electrode metal layer, a positive electrode layer adjacent to the positive current collector, wherein the oxygen is an active material thereof; a negative electrode metal layer disposed opposite to the positive current collector with respect to the positive electrode layer; and an electrolyte membrane interposed between the positive electrode layer and the negative electrode metal layer, wherein the positive electrode layer contacts a surface of the positive current collector, characterised in that at least a part of the passage is opened toward a surface of the positive electrode layer, and in that the positive electrode layer is positioned immediately next to the passage.
A process for the production of chlorine dioxide by reducing chlorate ions in an acidic aqueous reaction medium using methanol as a reducing agent, the process comprising - formation of an aqueous solution comprising chlorine dioxide by withdrawing gas comprising chlorine dioxide from the aqueous reaction medium and absorbing chlorine dioxide from said gas into water, - bringing at least part of the aqueous solution comprising chlorine dioxide to its end-application within an average residence time of less than 30 minutes, - maintaining part of the obtained aqueous solution comprising chlorine dioxide in at least one storage tank and maintaining it at a lower temperature than a temperature of the aqueous solution comprising chlorine dioxide brought thereto; wherein the aqueous solution comprising chlorine dioxide that is brought to the at least one storage tank is purified prior to entering the at least one storage tank by stripping off chlorine dioxide gas from the aqueous solution and then absorbing the chlorine dioxide into water to obtain a purified aqueous solution that is brought to the at least one storage tank. - formation of an aqueous solution comprising chlorine dioxide by withdrawing gas comprising chlorine dioxide from the aqueous reaction medium and absorbing chlorine dioxide from said gas into water, - bringing at least part of the aqueous solution comprising chlorine dioxide to its end-application within an average residence time of less than 30 minutes, - maintaining part of the obtained aqueous solution comprising chlorine dioxide in at least one storage tank and maintaining it at a lower temperature than a temperature of the aqueous solution comprising chlorine dioxide brought thereto; wherein the aqueous solution comprising chlorine dioxide that is brought to the at least one storage tank is purified prior to entering the at least one storage tank by stripping off chlorine dioxide gas from the aqueous solution and then absorbing the chlorine dioxide into water to obtain a purified aqueous solution that is brought to the at least one storage tank.
Process for the treatment of a mixture of solid and liquid organic wastes, characterized in that it comprises the following stages: - milling the solid and liquid wastes; - recovering a higher liquid content fraction of the waste, the dry matter content of said higher liquid fraction of the waste being between 5 and 20%; - another fraction of the waste being a lower liquid content fraction having a dry matter content greater than 20 % is transferred to a thermophilic or mesophilic aerobiosis treatment unit; - treating the higher liquid content fraction by methanization to produce gas and using the gas to produce the heat required for treatment of the waste in the aerobic phase mesophilic or thermophilic treatment unit; - then incorporating the methanized higher liquid content fraction with the lower liquid content fraction treated by thermophilic or mesophilic aerobiosis in order to obtain a substrate having a dry matter content comprised between 20 and 50 %; - treating the resulting substrate by mesophilic or thermophilic anaerobiosis; and - recovering said treated substrate in the form of compost. - milling the solid and liquid wastes; - recovering a higher liquid content fraction of the waste, the dry matter content of said higher liquid fraction of the waste being between 5 and 20%; - another fraction of the waste being a lower liquid content fraction having a dry matter content greater than 20 % is transferred to a thermophilic or mesophilic aerobiosis treatment unit; - treating the higher liquid content fraction by methanization to produce gas and using the gas to produce the heat required for treatment of the waste in the aerobic phase mesophilic or thermophilic treatment unit; - then incorporating the methanized higher liquid content fraction with the lower liquid content fraction treated by thermophilic or mesophilic aerobiosis in order to obtain a substrate having a dry matter content comprised between 20 and 50 %; - treating the resulting substrate by mesophilic or thermophilic anaerobiosis; and - recovering said treated substrate in the form of compost.
A multiple-input multiple-output, MIMO, antenna comprising at least two single antennas arranged on a printed circuit board, PCB; each single antenna comprising: an antenna support (2a, 2b), a feeding point (4a, 4b), a grounding point and an antenna radiation part (5a, 5b), wherein the antenna support (2a, 2b) is arranged on the PCB, and the antenna radiation part (5a, 5b) is arranged on the antenna support (2a, 2b); characterized in that the multiple-input multiple-output antenna further comprising a feeding grounding branch node (3a, 3b) used for shielding low-frequency coupling between the single antennas and the feeding grounding branch node (3a, 3b) is connected with the antenna radiation part (5a, 5b) via the feeding point (4a, 4b) and the grounding point.
A filleting system for poultry or poultry parts, such as chickens or chicken parts, comprising a conveyor system or line incorporating carriers for the poultry or poultry parts, with at least one processing station provided in or along the conveying path of the conveyor system or line for processing the poultry or poultry parts, wherein the processing station is a cutting instrument (6, 7) that is placed following a fillet scraper, and is embodied with a cutting-edge or cutting edges (6, 7) for cutting loose tissue connections that have remained between the carcass of the poultry or poultry part and it's inner and outer fillets after passing the fillet scraper, characterized in that the cutting instrument is placed next to the path of said carriers and has two cutting edges (6, 7), each extending away from the conveying path of the carriers and said cutting edges (6, 7) converging towards and into each other at a far end from the path of the carriers.
A cable patch panel comprising: a software-configurable network interface device having a first side, a second side different than the first side, a switch, and a configuration interface, the first side comprising a first plurality of network interface ports (302, 304) that, when the cable patch panel is situated in at least one panel of a cage enclosure demarcating a customer area and provider area within a communication facility having an infrastructure network configured to interconnect a plurality of customer networks (106, 107, 110), are accessible only to a communication facility provider for the communication facility the second side comprising a second plurality of network interface ports (308, 310) that, when the cable patch panel is situated in the at least one panel of the cage enclosure demarcating the customer area and provider area, are accessible only to a customer of the communication facility provider, and the configuration interface configured to, in response to receiving configuration data defining a connection between at least one port of the first plurality of network interface ports (302, 304) and at least one port of the second plurality of network interface ports (308, 310), configure the switch to create the connection between the at least one port of the first plurality of network interface ports (302, 304) and the at least one port of the second plurality of network interface ports (308, 310). a software-configurable network interface device having a first side, a second side different than the first side, a switch, and a configuration interface, the first side comprising a first plurality of network interface ports (302, 304) that, when the cable patch panel is situated in at least one panel of a cage enclosure demarcating a customer area and provider area within a communication facility having an infrastructure network configured to interconnect a plurality of customer networks (106, 107, 110), are accessible only to a communication facility provider for the communication facility the second side comprising a second plurality of network interface ports (308, 310) that, when the cable patch panel is situated in the at least one panel of the cage enclosure demarcating the customer area and provider area, are accessible only to a customer of the communication facility provider, and the configuration interface configured to, in response to receiving configuration data defining a connection between at least one port of the first plurality of network interface ports (302, 304) and at least one port of the second plurality of network interface ports (308, 310), configure the switch to create the connection between the at least one port of the first plurality of network interface ports (302, 304) and the at least one port of the second plurality of network interface ports (308, 310).
A solar reflector assembly comprising: an elongated tube having an inner portion to facilitate liquid ballast, made of semi-rigid material; and a flat section built into a wall of the tube or attached to the wall of the tube; a reflective material attached to said flat section to reflect solar radiation; wherein the elongated tube comprises a rotation assembly coupled to each end thereof such that the elongated tube has an axis of rotation oriented generally parallel to a surface of a supporting body of liquid; characterised in that, the solar reflector assembly further comprises: a calibration point at each end of the tube; and an actuator at at least one end of the tube; wherein the actuator or actuators is/are adapted to apply a torque to the elongated tube so as to twist it uniformly along its length, so as to bring flat-surface normal vectors at each end of the tube largely into alignment with each other, whereby, by virtue of the linear nature of deformation of the tube when a torque is applied, by bringing the two ends of the tube into calibration independently, the span between the two ends will also be brought into calibration. an elongated tube having an inner portion to facilitate liquid ballast, made of semi-rigid material; and a flat section built into a wall of the tube or attached to the wall of the tube; a reflective material attached to said flat section to reflect solar radiation; wherein the elongated tube comprises a rotation assembly coupled to each end thereof such that the elongated tube has an axis of rotation oriented generally parallel to a surface of a supporting body of liquid; a calibration point at each end of the tube; and an actuator at at least one end of the tube; wherein the actuator or actuators is/are adapted to apply a torque to the elongated tube so as to twist it uniformly along its length, so as to bring flat-surface normal vectors at each end of the tube largely into alignment with each other, whereby, by virtue of the linear nature of deformation of the tube when a torque is applied, by bringing the two ends of the tube into calibration independently, the span between the two ends will also be brought into calibration.
Rotor blade with a rotor blade body that has a rotor blade body cavity, and with a rotor blade tip that is connected to the rotor blade body cavity and that has at least one drainage opening through which moisture present inside the rotor blade body cavity can be discharged, wherein in the rotor blade tip at least one retention device (6, 7, 8) for solid particles is arranged in front of the drainage opening, characterized in that multiple retention devices (6, 7, 8) are arranged in series and the permeability of the retention devices (6, 7, 8) decreases towards the drainage opening.
A production method for a film laminate, comprising bonding a tough film having an elongated shape to a brittle film having an elongated shape while conveying the brittle film, wherein the method comprises bonding the tough film and the brittle film to each other by bringing the tough film close to the brittle film, followed by blowing of a gas from a side of the tough film opposite to the brittle film such that the brittle film and the tough film are brought into contact with each other by the blowing of the gas, wherein the brittle film has a fracture toughness value of from 0.1 MPa/m 1/2 to 10 MPa/m 1/2 and is a glass film, a ceramic film, or a film formed of a semiconductor material or an acrylic resin; and wherein the tough film is a resin film having a fracture toughness value that is larger than the brittle film and from 2 MPa/m 1/2 to 20 MPa/m 1/2. wherein the method comprises bonding the tough film and the brittle film to each other by bringing the tough film close to the brittle film, followed by blowing of a gas from a side of the tough film opposite to the brittle film such that the brittle film and the tough film are brought into contact with each other by the blowing of the gas, wherein the brittle film has a fracture toughness value of from 0.1 MPa/m 1/2 to 10 MPa/m 1/2 and is a glass film, a ceramic film, or a film formed of a semiconductor material or an acrylic resin; and wherein the tough film is a resin film having a fracture toughness value that is larger than the brittle film and from 2 MPa/m 1/2 to 20 MPa/m 1/2.
A flexibility suite for routing optical fibres within a telecommunications switch installation between an incoming cable and one of a plurality of equipment racks (2, 12), whereby the flexibility suite comprises: at least one a first flexibility point and a second flexibility point, at least one of the flexibility points being provided with a blown fibre flexibility tube module; the first flexibility point including a patch panel having plurality of conduits, each of the plurality of conduits having a first end and a second end, the first ends being disposed in a first array and the second ends being disposed in a second array; and the second flexibility point including a patch panel having a plurality of conduits, each of the plurality of conduits having a first end and a second end, the first ends being disposed in a third array and second ends being disposed in a fourth array; the flexibility suite being configured to route optical fibres by permitting during use, any one of the second ends on the second array to be interconnected with any one of the first ends on the third array by means of patch tubes so that by interconnecting selected conduit ends in the second and third arrays, a continuous tubular path can be formed between any one of the first ends in the first array and any one of the second ends in the fourth array allowing for a single unbroken optical fibre to be installed through the continuous tubular path; whereby the blown fibre flexibility tube module is provided with mandrels for bend control and guiding blown fibre tubes. a first flexibility point and a second flexibility point, at least one of the flexibility points being provided with a blown fibre flexibility tube module; the first flexibility point including a patch panel having plurality of conduits, each of the plurality of conduits having a first end and a second end, the first ends being disposed in a first array and the second ends being disposed in a second array; and the second flexibility point including a patch panel having a plurality of conduits, each of the plurality of conduits having a first end and a second end, the first ends being disposed in a third array and second ends being disposed in a fourth array; the flexibility suite being configured to route optical fibres by permitting during use, any one of the second ends on the second array to be interconnected with any one of the first ends on the third array by means of patch tubes so that by interconnecting selected conduit ends in the second and third arrays, a continuous tubular path can be formed between any one of the first ends in the first array and any one of the second ends in the fourth array allowing for a single unbroken optical fibre to be installed through the continuous tubular path; whereby the blown fibre flexibility tube module is provided with mandrels for bend control and guiding blown fibre tubes.
A MEMS resonator having an effective spring constant (k z) and comprising a substrate and a beam arrangement comprising beams (4a, 4b) having a beam spring constant (k B), the MEMS resonator further comprising a cavity defined between the beam arrangement and the substrate, wherein the resonator is adapted to resonate in an oscillation direction along an oscillation axis (z), wherein the beams (4a, 4b) extend at a non-zero angle π/2-θ to the oscillation direction (z), wherein the resonator has a predetermined geometry comprising opposite freestanding masses, with the oscillation axis connecting the centre of the freestanding masses, wherein the beam arrangement comprises a first pair of beams symmetrically arranged with respect to the oscillation axis (z) with one beam on each side of the oscillation axis and a second pair of beams symmetrically arranged with respect to the oscillation axis (z) with one beam on each side of the oscillation axis, wherein each beam of the first pair of beams is supported to a respective anchor point located on respective supports (8, 80) on the substrate at a mid point between the freestanding masses, on opposite sides of the oscillation axis and each beam of the first pair of beams extends from its respective anchor point towards a first common junction point situated at the same one of the freestanding masses, and each beam of the second pair of beams is supported to a respective one of said anchor points and each beam of the second pair of beams extends from its respective anchor point towards a second junction point situated at the other one of the freestanding masses, wherein the beams are formed from one or more materials, the or each material having a coefficient of thermal expansion CTE, the CTE of the or each material together with the predetermined geometry of the resonator causing said non-zero angle π/2-θ to vary with temperature, such that the temperature dependence of the beam spring constant is compensated for, resulting in the effective spring constant of the resonator remaining substantially constant within an operating temperature range.