mhurhangee/ep-ind-claims huggingface dataset:
System for monitoring and/or controlling the energy and water management of at least one subscriber of an energy distribution network and of a water distribution network, wherein the subscriber is a private household or a company, comprising a device for monitoring and controlling the energy and water management of at least one subscriber of an energy distribution network and of a water distribution network, wherein the device has at least one first interface to which at least one energy consumption meter is connected, wherein the device has a second interface to which at least one water consumption meter is connected, wherein the device further has an arrangement for determining and displaying the costs currently incurred by the subscriber and the CO 2 emission currently caused by the subscriber, wherein the subscriber comprises a plurality of consumers (21, 22, 23, 24), wherein the consumers (21, 22, 23, 24) comprise at least one water consumer (23, 24), at least one heat consumer and at least one electrical consumer, characterized in that at least one switching device which can be actuated in a predeterminable manner by the device is connected to the device, for the predeterminable operation of the consumers (21, 22, 23, 24) of the subscriber, in that the switching device is designed to exclude one or more of the consumers (21, 22, 23, 24) from operation and to disconnect them from the energy distribution network and/or from the water distribution network depending on the supply situation, and in that the device and/or the system are themselves consumers (21, 22, 23, 24) of the subscriber and are thus included in the subscriber.
An over-the-air test system for testing a device under test over-the-air, wherein the over-the-air test system comprises a signal generation and/or analysis equipment, a reflector with a focal point, one center antenna and antenna elements, wherein the center antenna is orientated towards the focal point of the reflector, wherein the antenna elements are symmetrically located around the center antenna, wherein the signal generation and/or analysis equipment is connected with the center antenna and the antenna elements, and wherein the over-the-air test system is configured to operate the center antenna and the antenna elements differently such that an operational frequency range of the center antenna is different to an operational frequency range of the antenna elements, characterized in that the antenna elements are configured to generate quiet zones that are located adjacent to each other, thereby establishing a combined quiet zone associated with a combined space, wherein the combined space substantially equals the space of the main quiet zone that is generated by the center antenna.
Printing system for three-dimensional objects, comprising • a control unit for storing and executing a robot program, • an industrial robot which is controlled by the control unit and which comprises an arm with several members (16, 18, 22, 28, 38) that's tip is movable along a predetermined movement path (56, 86) according to path data of the robot program, • a printing unit (30, 72) which is mounted on the tip of the robot arm and controlled by the control unit, which comprises at least one print nozzle (52, 74, 76, 78) for applying pointwise a respective portion (32, 34) of a print material at respective coordinates (60, 64, 88, 90) according to object data of the robot program, characterized in that means for anticipatory determining the real actual position of the at least one print nozzle (52, 7 4, 76, 78) are foreseen and in that the system is foreseen to skip the application of a respective portion of print material in that case that a difference in between anticipatory determined real actual position of the at least one print nozzle and a respective coordinate (60, 64, 88, 90) according to the object data of the robot program is exceeding a certain limit. • a control unit for storing and executing a robot program, • an industrial robot which is controlled by the control unit and which comprises an arm with several members (16, 18, 22, 28, 38) that's tip is movable along a predetermined movement path (56, 86) according to path data of the robot program, • a printing unit (30, 72) which is mounted on the tip of the robot arm and controlled by the control unit, which comprises at least one print nozzle (52, 74, 76, 78) for applying pointwise a respective portion (32, 34) of a print material at respective coordinates (60, 64, 88, 90) according to object data of the robot program,
A method comprising: disposing a coating on a base of an assembly using a friction surfacing process, wherein the coating has a density greater than 98 percent of a theoretical density of the coating and a dilution less than 0.5 volume % of the coating.
A backlight unit, comprising: a light guiding plate (131, 231, 331,431, 531, 731); an LED assembly (120, 220, 320, 420, 520, 720); and a bottom cover (150, 250, 350, 450, 550, 750) on which the LED assembly and the light guiding plate are provided, at least one first protruding portion (152, 252, 352, 452, 552, 752) protruding from the bottom cover and coupling the LED assembly to the bottom cover; and at least one second protruding portion (151, 251, 351, 451, 551, 751) protruding from the bottom cover to support the light guiding plate, wherein the LED assembly includes: a plurality of LED light sources (121, 221, 321, 421, 521, 721); a substrate (122, 222, 322, 422, 522, 722) on which the plurality of LED light sources are mounted; and a support (123, 223, 323, 423, 523, 723) on which the substrate is mounted, the support including a hole (125, 425, 525, 725), wherein the hole (125, 425, 525, 725) is formed at a position corresponding to a position of the first protruding portion (152, 252, 352, 452, 552, 752). a light guiding plate (131, 231, 331,431, 531, 731); an LED assembly (120, 220, 320, 420, 520, 720); and a bottom cover (150, 250, 350, 450, 550, 750) on which the LED assembly and the light guiding plate are provided, at least one first protruding portion (152, 252, 352, 452, 552, 752) protruding from the bottom cover and coupling the LED assembly to the bottom cover; and at least one second protruding portion (151, 251, 351, 451, 551, 751) protruding from the bottom cover to support the light guiding plate, wherein the LED assembly includes: a plurality of LED light sources (121, 221, 321, 421, 521, 721); a substrate (122, 222, 322, 422, 522, 722) on which the plurality of LED light sources are mounted; and a support (123, 223, 323, 423, 523, 723) on which the substrate is mounted, the support including a hole (125, 425, 525, 725), a plurality of LED light sources (121, 221, 321, 421, 521, 721); a substrate (122, 222, 322, 422, 522, 722) on which the plurality of LED light sources are mounted; and a support (123, 223, 323, 423, 523, 723) on which the substrate is mounted, the support including a hole (125, 425, 525, 725), wherein the hole (125, 425, 525, 725) is formed at a position corresponding to a position of the first protruding portion (152, 252, 352, 452, 552, 752).
A fuel supply system for a ship engine, the fuel supply system comprising; a submerged pump configured to be disposed in an LNG storage tank of a ship for supplying LNG to the ship engine (E; E1); a high-pressure pump configured to receive LNG from the submerged pump and to pressurize the LNG to a high pressure; and a return channel branching off upstream of the high pressure pump for returning LNG upstream of the high-pressure pump to the LNG storage tank to secure a minimum flowrate of the submerged pump, a flow control valve disposed in the return channel, a flow controller configured to control a flow rate of LNG returned to the LNG storage tank to secure a minimum flow rate of the submerged pump; and a temperature controller configured to detect a temperature of LNG in front of the high-pressure pump and to control the flow rate of LNG returned to the LNG storage tank to maintain the temperature of LNG in front of the high-pressure pump below a liquefaction temperature of LNG; wherein the flow control valve is configured to control the flow rate of LNG returned to the LNG storage tank under control of the flow controller and the temperature controller so as to regulate a flow rate of LNG returned through the return channel to control a temperature of LNG in front of the high-pressure pump to prevent boil-off gas from flowing into the high-pressure pump. a submerged pump configured to be disposed in an LNG storage tank of a ship for supplying LNG to the ship engine (E; E1); a high-pressure pump configured to receive LNG from the submerged pump and to pressurize the LNG to a high pressure; and a return channel branching off upstream of the high pressure pump for returning LNG upstream of the high-pressure pump to the LNG storage tank to secure a minimum flowrate of the submerged pump, a flow control valve disposed in the return channel, a flow controller configured to control a flow rate of LNG returned to the LNG storage tank to secure a minimum flow rate of the submerged pump; and a temperature controller configured to detect a temperature of LNG in front of the high-pressure pump and to control the flow rate of LNG returned to the LNG storage tank to maintain the temperature of LNG in front of the high-pressure pump below a liquefaction temperature of LNG; wherein the flow control valve is configured to control the flow rate of LNG returned to the LNG storage tank under control of the flow controller and the temperature controller so as to regulate a flow rate of LNG returned through the return channel to control a temperature of LNG in front of the high-pressure pump to prevent boil-off gas from flowing into the high-pressure pump.
Use of a skin-cleansing oil-in-water emulsion, containing (a) 1 to 10% by weight of at least one wax component with a melting point of at least 30°C, selected from the group of pentaerythritol esters, dipentaerythritol esters, and/or tripentaerythritol esters, as well as mixtures thereof, whereby the wax component is selected from the group of esters that can be obtained by reacting the pentaerythritol or dipentaerythritol with a fatty acid mixture, containing 40 to 50% by weight of C16 fatty acid and 45 to 55% by weight of C18 fatty acid, (b) 1 to 30% by weight of at least one oil component that is liquid at 25°C, and (c) 40 to 95% by weight of water, (d) nonionic surfactants/emulsifiers in a total amount of 0 to 0.7% by weight, based on the total weight of the emulsion, for the cleansing of skin, particularly for the cleansing of facial skin. (a) 1 to 10% by weight of at least one wax component with a melting point of at least 30°C, selected from the group of pentaerythritol esters, dipentaerythritol esters, and/or tripentaerythritol esters, as well as mixtures thereof, whereby the wax component is selected from the group of esters that can be obtained by reacting the pentaerythritol or dipentaerythritol with a fatty acid mixture, containing 40 to 50% by weight of C16 fatty acid and 45 to 55% by weight of C18 fatty acid, (b) 1 to 30% by weight of at least one oil component that is liquid at 25°C, and (c) 40 to 95% by weight of water, (d) nonionic surfactants/emulsifiers in a total amount of 0 to 0.7% by weight, based on the total weight of the emulsion,
A particulate microencapsulated acetamide herbicide comprising: a water-immiscible core material comprising the acetamide herbicide, wherein the acetamide herbicide is an acetanilide herbicide selected from the group consisting of acetochlor, metolachlor, and S-metolachlor and a microcapsule having a shell wall comprising a polyurea, the microcapsule containing the core material, wherein the shell wall is formed in a polymerization medium by a polymerization reaction between a polyisocyanate component comprising a polyisocyanate or mixture of polyisocyanates and a polyamine component comprising a polyamine or mixture of polyamines to form the polyurea, wherein the ratio of amine molar equivalents contained in the polyamine component to isocyanate molar equivalents contained in the polyisocyanate component is from 1.15:1 to 1.4:1, and wherein a population of the microcapsules has a mean particle size of from 7 μm to 15 μm. a water-immiscible core material comprising the acetamide herbicide, wherein the acetamide herbicide is an acetanilide herbicide selected from the group consisting of acetochlor, metolachlor, and S-metolachlor and a microcapsule having a shell wall comprising a polyurea, the microcapsule containing the core material, wherein the shell wall is formed in a polymerization medium by a polymerization reaction between a polyisocyanate component comprising a polyisocyanate or mixture of polyisocyanates and a polyamine component comprising a polyamine or mixture of polyamines to form the polyurea, wherein the ratio of amine molar equivalents contained in the polyamine component to isocyanate molar equivalents contained in the polyisocyanate component is from 1.15:1 to 1.4:1, and wherein a population of the microcapsules has a mean particle size of from 7 μm to 15 μm.
A device (201, 401) for modifying light distribution, the device comprising a transparent body (203, 403) made of transparent material having refractive index greater than one, and the transparent body comprising a first surface (204, 304, 404), a second surface (205, 405) on an opposite side of the transparent body with respect to the first surface, and at least one third surface (206, 406) joining the first surface, wherein: - the second surface (205, 405) defines a cavity opening away from the first surface (204, 404), - the second surface (205, 405) is configured to reflect, towards the third surface (206, 406), at least a part of light received via the first surface (204, 404), - the third surface (206, 406) is configured to reflect, towards the second surface (205, 405), the light reflected from the second surface (205, 405), and - the second surface (205, 405) is configured to act as a light egress surface for the light reflected from the third surface (206, 406), characterized in that the third surface (206, 406) comprises at least one groove (207, 307, 407) on a propagation path of a part of the light reflected from the second surface (205, 405) so that the part of the light reflected from the second surface (205, 405) propagates across the groove prior to being reflected from the third surface (206, 406). - the second surface (205, 405) defines a cavity opening away from the first surface (204, 404), - the second surface (205, 405) is configured to reflect, towards the third surface (206, 406), at least a part of light received via the first surface (204, 404), - the third surface (206, 406) is configured to reflect, towards the second surface (205, 405), the light reflected from the second surface (205, 405), and - the second surface (205, 405) is configured to act as a light egress surface for the light reflected from the third surface (206, 406),
A film having at least one reflection band where a reflectance of 30% or more is maintained over a continuous part covering 100 nm or more in the wavelength range of 1,200 to 1,800 nm for incident light at least entering from one side, having an average transmittance of 70% or more over the wavelength range of 430 to 600 nm, and having an average axial rigidity between the film's main orientation axis direction and the direction perpendicular thereto of 10 kN/m or more and 45 kN/m or less, the main orientation axis being the in-plane direction of the film where the measured refractive index is highest, compared to other refractive index measurements, wherein the film has a lamination unit 1 in which layers (A-layers) containing a thermoplastic resin A as primary component and layers (B-layers) containing a thermoplastic resin B as primary component stacked alternately to meet the requirement (i) described below and a lamination unit 2 in which layers (C-layers) containing a thermoplastic resin C as primary component and layers (D-layers) containing a thermoplastic resin D as primary component stacked alternately to meet the requirement (ii) described below: (i) any A-layer and B-layer located adjacent to each other have a thickness ratio (thickness of A-layer / thickness of B-layer) of 0.7 or more and 1.4 or less, and (ii) compared to the thinnest layer (having a thickness ratio of 1) of three layers located adjacent to each other, one of the other two layers has a thickness ratio of 1.0 or more and 1.4 or less whereas the remaining layer has a thickness ratio of 5 or more and 9 or less, and wherein the axial rigidity is determined as follows: for the direction where the film's in-plane refractive index is high and the direction perpendicular thereto, three 1 cm (width) x 10 cm strips each are taken and the Young's modulus of the film is measured by a TensilonTM universal tester (RTG-1210) manufactured by Baldwin, the Young's modulus measurements being averaged, and the axial rigidity is calculated as: average Young's modulus x cross section area (thickness μm x 1 cm) / length (10 cm). (i) any A-layer and B-layer located adjacent to each other have a thickness ratio (thickness of A-layer / thickness of B-layer) of 0.7 or more and 1.4 or less, and (ii) compared to the thinnest layer (having a thickness ratio of 1) of three layers located adjacent to each other, one of the other two layers has a thickness ratio of 1.0 or more and 1.4 or less whereas the remaining layer has a thickness ratio of 5 or more and 9 or less,
A piece (11, 124) of hygiene equipment comprising a processing circuit (111, 121) and a radio circuit (112, 123), wherein the radio circuit (112, 123) is configured to receive and transmit a radio signal carrying payload data (211,...), wherein the processing circuit (111, 121) is configured to obtain information on a positional relationship to another device (12, 13,...) by instructing the radio circuit (112, 123) to receive and/or transmit a radio signal carrying first payload data, wherein the processing circuit (111, 121) is configured to generate second payload data on the basis of the obtained information on the obtained positional relationship, and to instruct the radio circuit (112, 123) to transmit a radio signal carrying said second payload data, wherein the processing circuit is configured to transmit an outbound radio signal carrying specific transmission payload data and/or to receive an inbound radio signal carrying specific reception payload data for determining a communication partner to which outbound radio signals are to be transmitted and from which inbound radio signals are to be received, and wherein the piece (11, 124) of hygiene equipment is further configured to dispense a consumable to a user or to dispose a consumable from a user, and further comprises a sensor section configured to determine a value relating to a reservoir of said consumable, wherein the processing circuit is arranged to compile said payload data (211,...) in relation to the determined value. wherein the radio circuit (112, 123) is configured to receive and transmit a radio signal carrying payload data (211,...), wherein the processing circuit (111, 121) is configured to obtain information on a positional relationship to another device (12, 13,...) by instructing the radio circuit (112, 123) to receive and/or transmit a radio signal carrying first payload data, wherein the processing circuit (111, 121) is configured to generate second payload data on the basis of the obtained information on the obtained positional relationship, and to instruct the radio circuit (112, 123) to transmit a radio signal carrying said second payload data, wherein the processing circuit is configured to transmit an outbound radio signal carrying specific transmission payload data and/or to receive an inbound radio signal carrying specific reception payload data for determining a communication partner to which outbound radio signals are to be transmitted and from which inbound radio signals are to be received, and wherein the piece (11, 124) of hygiene equipment is further configured to dispense a consumable to a user or to dispose a consumable from a user, and further comprises a sensor section configured to determine a value relating to a reservoir of said consumable, wherein the processing circuit is arranged to compile said payload data (211,...) in relation to the determined value.
A biopsy device comprising: an outer needle hub; an outer needle (20; 20') defining a longitudinal axis along a length thereof and coupled at a proximal end to the outer needle hub, the outer needle including: an outer needle tip at an opposite distal end; a tissue slicing feature defined at said tip configured for cutting tissue; and an inner surface including a countersink formed at said tip, said countersink tapered from a distalmost end of said outer needle tip; an inner needle hub; an inner needle coupled at a proximal end to said inner needle hub, the inner needle including an inner needle tip at an opposite distal end, said inner needle coaxially disposed within said outer needle, characterized in that said countersink is tapered at approximately a one to two degree angle relative to the inner surface. an outer needle hub; an outer needle (20; 20') defining a longitudinal axis along a length thereof and coupled at a proximal end to the outer needle hub, the outer needle including: an outer needle tip at an opposite distal end; a tissue slicing feature defined at said tip configured for cutting tissue; and an inner surface including a countersink formed at said tip, said countersink tapered from a distalmost end of said outer needle tip; an outer needle tip at an opposite distal end; a tissue slicing feature defined at said tip configured for cutting tissue; and an inner surface including a countersink formed at said tip, said countersink tapered from a distalmost end of said outer needle tip; an inner needle hub; an inner needle coupled at a proximal end to said inner needle hub, the inner needle including an inner needle tip at an opposite distal end, said inner needle coaxially disposed within said outer needle, characterized in that said countersink is tapered at approximately a one to two degree angle relative to the inner surface.