mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a layer structure in an electronic device, the method comprising a step of producing the layer structure as a composite layer structure with a first material and a second material, wherein - the composite layer structure is provided as a stack of at least three non-mixed sub-layers made of the first material and the second material, respectively, - within the stack of the at least three non-mixed sub-layers each first material sub-layer is followed by an adjacent second material sub-layer and each second material sub-layer is followed by an adjacent first material sub-layer, and - the first material and the second material is an organic material, characterized in that - the first material and the second material are selected to form a host-dopant material system for electrical doping so that free charge carriers are generated by charge transfer between the first material and the second material, - the energetic difference between the HOMO level of the first material providing a matrix material and the LUMO level of the second material is smaller than 0,5 eV, and - the host-dopant material system is formed as one of the following: a) the first material is an electron transport material with a reduction potential that is lower than -1,5 V vs. Fc/Fc+ and the second material is a donor material or b) the first material is a hole transport material with an oxidation potential that is higher than -0,2 V vs. Fc/Fc+ and the second material is an acceptor material. - the composite layer structure is provided as a stack of at least three non-mixed sub-layers made of the first material and the second material, respectively, - within the stack of the at least three non-mixed sub-layers each first material sub-layer is followed by an adjacent second material sub-layer and each second material sub-layer is followed by an adjacent first material sub-layer, and - the first material and the second material is an organic material, characterized in that - the first material and the second material are selected to form a host-dopant material system for electrical doping so that free charge carriers are generated by charge transfer between the first material and the second material, - the energetic difference between the HOMO level of the first material providing a matrix material and the LUMO level of the second material is smaller than 0,5 eV, and - the host-dopant material system is formed as one of the following: a) the first material is an electron transport material with a reduction potential that is lower than -1,5 V vs. Fc/Fc+ and the second material is a donor material or b) the first material is a hole transport material with an oxidation potential that is higher than -0,2 V vs. Fc/Fc+ and the second material is an acceptor material. a) the first material is an electron transport material with a reduction potential that is lower than -1,5 V vs. Fc/Fc+ and the second material is a donor material or b) the first material is a hole transport material with an oxidation potential that is higher than -0,2 V vs. Fc/Fc+ and the second material is an acceptor material.
A transportation refrigeration system, comprising: a transportation refrigeration unit; a cold box; a transportation refrigeration unit gas engine; a gas circuit (116, 118) connected to the transportation refrigeration unit and arranged to connect thereto a split bottle gas supply having a plurality of electric lock-off valves; and a controller operably connected to the transportation refrigeration unit; a pressure sensor arranged to measure gas pressure in the gas circuit (116, 118) and in communication with the controller; and wherein the controller is responsive to instructions recorded on a memory to: close the electric lock-off valves of the split bottle gas supply; receive a first measurement of gas pressure in the gas circuit (116, 118); open a first of the electric lock-off valves of the split bottle gas supply; start the gas engine after opening the first electric lock-off valve; close the first electric lock-off valve; receive a second measurement of gas pressure in the gas circuit (116, 118); and determine health of the first electric lock-off valve using the first and second measurements of gas pressure in the gas circuit (116, 118). a transportation refrigeration unit; a cold box; a transportation refrigeration unit gas engine; a gas circuit (116, 118) connected to the transportation refrigeration unit and arranged to connect thereto a split bottle gas supply having a plurality of electric lock-off valves; and a controller operably connected to the transportation refrigeration unit; a pressure sensor arranged to measure gas pressure in the gas circuit (116, 118) and in communication with the controller; and wherein the controller is responsive to instructions recorded on a memory to: close the electric lock-off valves of the split bottle gas supply; receive a first measurement of gas pressure in the gas circuit (116, 118); open a first of the electric lock-off valves of the split bottle gas supply; start the gas engine after opening the first electric lock-off valve; close the first electric lock-off valve; receive a second measurement of gas pressure in the gas circuit (116, 118); and determine health of the first electric lock-off valve using the first and second measurements of gas pressure in the gas circuit (116, 118). close the electric lock-off valves of the split bottle gas supply; receive a first measurement of gas pressure in the gas circuit (116, 118); open a first of the electric lock-off valves of the split bottle gas supply; start the gas engine after opening the first electric lock-off valve; close the first electric lock-off valve; receive a second measurement of gas pressure in the gas circuit (116, 118); and determine health of the first electric lock-off valve using the first and second measurements of gas pressure in the gas circuit (116, 118).
Seal for a door without a threshold, wherein the seal has a cross-sectionally u-shaped housing rail which is designed to be cuboidal in its outer shape, a carrier rail and a sealing strip fastened to the carrier rail, wherein the carrier rail and the sealing strip are held in the housing rail such that they can be lowered and raised and wherein the housing rail defines a substantially cuboidal interior, characterized in that this interior has a widened sub-region in which a triggering bolt for actuating the seal is held so as to be displaceable in the longitudinal direction of the housing rail, wherein the widened sub-region is obtained by internal thinning of at least one wall of the housing rail.
A cannula assembly comprising: a cannula housing; a cannula sleeve extending distally from the cannula housing; and a suction cup assembly adjustably securable over the cannula sleeve, the suction cup assembly including: a sealing component including: a neck portion; and inner and outer cups (1330, 1340) extending distally from the neck portion, the inner cup nested within the outer cup, the sealing component formed of a compressible material to create suction when pressed against tissue to form fluid-tight seals against tissue; and a locking component disposed about the neck portion of the sealing component, the locking component including a locking sleeve and a latch coupled to the locking sleeve to selectively compress the locking sleeve to adjustably secure the suction cup assembly at a position along the cannula sleeve. a cannula housing; a cannula sleeve extending distally from the cannula housing; and a suction cup assembly adjustably securable over the cannula sleeve, the suction cup assembly including: a sealing component including: a neck portion; and inner and outer cups (1330, 1340) extending distally from the neck portion, the inner cup nested within the outer cup, the sealing component formed of a compressible material to create suction when pressed against tissue to form fluid-tight seals against tissue; and a locking component disposed about the neck portion of the sealing component, the locking component including a locking sleeve and a latch coupled to the locking sleeve to selectively compress the locking sleeve to adjustably secure the suction cup assembly at a position along the cannula sleeve. a sealing component including: a neck portion; and inner and outer cups (1330, 1340) extending distally from the neck portion, the inner cup nested within the outer cup, the sealing component formed of a compressible material to create suction when pressed against tissue to form fluid-tight seals against tissue; and a neck portion; and inner and outer cups (1330, 1340) extending distally from the neck portion, the inner cup nested within the outer cup, the sealing component formed of a compressible material to create suction when pressed against tissue to form fluid-tight seals against tissue; and a locking component disposed about the neck portion of the sealing component, the locking component including a locking sleeve and a latch coupled to the locking sleeve to selectively compress the locking sleeve to adjustably secure the suction cup assembly at a position along the cannula sleeve.
A turbine shroud segment (22, 222, 322, 422) comprising a carrier segment (24, 224, 324, 424) comprising metallic materials, the carrier segment (24, 224, 324, 424) includes a mount plate and a plurality of receiving walls (37a, 37b, 37c, 37d) that extend inwardly in a radial direction from the mount plate toward a central axis to define an attachment-receiving space (34, 234, 334, 434), a blade track segment (26, 226, 326, 426) comprising ceramic matrix composite materials, the blade track segment (26, 226, 326, 426) formed to include a runner (52, 252, 352, 452) shaped to extend partway around a central axis and an attachment portion (54, 254, 354, 454) that extends radially outward from the runner (52, 252, 352, 452) into the attachment-receiving space channel formed by the carrier segment (24, 224, 324, 424), and a seal member (58, 258, 358, 458) that extends radially between the receiving walls (37a, 37b, 37c, 37d) of the carrier segment (24, 224, 324, 424) and the runner (52, 252, 352, 452) of the blade track segment (26, 226, 326, 426) to resist the movement of gasses into the attachment-receiving space (34, 234, 334, 434), wherein at least one of the receiving walls (37a, 37b, 37c, 37d) included in the carrier segment (24, 224, 324, 424) is formed to include buffer air passageways (31, 231, 331, 431) configured to discharge buffer air along the seal member (58, 258, 358, 458) to resist the movement of gasses into the attachment-receiving space (34, 234, 334, 434), wherein the plurality of receiving walls (37a, 37b, 37c, 37d) are formed to include a seal channel that extends radially outwardly and opens facing radially inwardly and the seal channel receives the seal member (58, 258, 358, 458).
A radio frequency, RF, coil array (600, 700) for a magnetic resonance imaging, MRI, system, comprising: a plurality of RF coils, each RF coil comprising an integrated capacitor coil loop, wherein each integrated capacitor coil loop comprises two parallel stranded wire conductors (502, 504) and a dielectric material that encapsulates and separates the two parallel stranded wire conductors (502, 504); a plurality of coupling electronics units each coupled to a respective coil loop; an interfacing connector configured to couple to a cable of the MRI system; and a plurality of coil-interfacing cables each coupling a respective coupling electronics unit to the interfacing connector. a plurality of RF coils, each RF coil comprising an integrated capacitor coil loop, wherein each integrated capacitor coil loop comprises two parallel stranded wire conductors (502, 504) and a dielectric material that encapsulates and separates the two parallel stranded wire conductors (502, 504); a plurality of coupling electronics units each coupled to a respective coil loop; an interfacing connector configured to couple to a cable of the MRI system; and a plurality of coil-interfacing cables each coupling a respective coupling electronics unit to the interfacing connector.
Method for managing contactless power transfer from a transmitter to a receiver that are coupled to one another, comprising generation of a magnetic field by the transmitter from a command at a control frequency for a switching resonant circuit (100, 103), communication of information by the receiver involving modulation of said magnetic field, detection of said modulation by the transmitter so as to extract said information and adjustment of said control frequency according to said received information, characterized in that said detection of the modulation comprises detection (11, 14) of the variations in the control frequency, and in that the switching resonant circuit is controlled by means of a control signal that is internal to an oscillating loop that maintains itself at said control frequency and incorporates said switching resonant circuit (100, 103), the control signal being a delayed signal resulting from detection of the changes of slope of a signal that is internal to the resonant circuit, and the detection of the variations in said control frequency comprises determination of the period of said control signal.
A surface temperature measuring device comprising: a housing having a first section (a), preferably at its respective ends, for fastening the housing to a container wall, e.g. a pipe, said housing having a second section (b) with a first layer acting as a thermally insulating layer, and forming a closed cavity when said housing is attached to said container wall, the closed cavity being filled with a gas or a solid, and a passage in said second section (b) for inserting a rod shaped measuring insert in said cavity, wherein said second section (b) of said housing comprises a first annular member being, preferably radially, displaced from said container wall when attached to said container wall, said first annular member being a thermally conductive second layer, and said first annular member is circumferentially surrounded by a heating element. a housing having a first section (a), preferably at its respective ends, for fastening the housing to a container wall, e.g. a pipe, said housing having a second section (b) with a first layer acting as a thermally insulating layer, and forming a closed cavity when said housing is attached to said container wall, the closed cavity being filled with a gas or a solid, and a passage in said second section (b) for inserting a rod shaped measuring insert in said cavity, wherein said second section (b) of said housing comprises a first annular member being, preferably radially, displaced from said container wall when attached to said container wall, said first annular member being a thermally conductive second layer, and said first annular member is circumferentially surrounded by a heating element.
A device for thermally treating a pourable plant product, particularly for roasting coffee beans, comprising a receiving device for receiving said plant product, a gas supply channel for supplying a heated gas from a heating device to the receiving device, wherein the gas supply channel is divided, at least in the direction of the gas flow and directly upstream of the receiving device, into two supply sub-channels (14a, 14b) following each other in the direction of gravity, through which heated gas can be supplied to said receiving device, wherein at least one of the supply sub-channels can be closed or can be reduced in its cross-sectional area, independently from the other supply sub-channel and upstream of the receiving device, in such a manner that substantially no more gas is flowing to the receiving device through said supply sub-channel, or that the gas volume flow through said supply sub-channel can be reduced, characterized in that two supply sub-channels (14a, 14b) are provided, one supply sub-channel is widened in its end section immediately upstream of the receiving device and the other supply sub-channel is tapered in its end section immediately upstream of the receiving device, the widening supply sub-channel being arranged above the tapering supply sub-channel, seen in the direction of gravity.
Lamp comprising - a housing, - light sources arranged in the housing for generating a light, - a first reflector element for influencing the light and - a second reflector element for influencing the light, wherein said reflector elements (3, 4) are arranged such that they are surrounded by the housing, wherein the first reflector element comprises a first side region and the second reflector element comprises a second side region and the second side region is in contact with the first side region, wherein, on the first side region, the first reflector element comprises a spring element which rests against the second side region under elastic tension such that light is prevented from passing through between the first side region and the second side region, and wherein the first side region extends along a transverse direction and, when viewed normal to the transverse direction, the spring element has a substantially C-shaped cross-section, characterized in that that the second reflector element comprises a further spring element, which rests against the spring element of the first reflector element under elastic tension. - a housing, - light sources arranged in the housing for generating a light, - a first reflector element for influencing the light and - a second reflector element for influencing the light, wherein said reflector elements (3, 4) are arranged such that they are surrounded by the housing,
A halogen-free flame retardant package comprising, Inorganic hypophosphite: 6-95 parts by weight; Expandable graphite: 1-20 parts by weight; Melamine or derivatives thereof: 0-65 parts by weight; Organic phosphorus-based flame retardants: 5-45 parts by weight.
A styrene copolymer composition comprising: a) 60 to 99.9% by weight of at least one styrene copolymer as matrix component A, b) 0.1 to 5% by weight of at least one type of PMMA-based, cross-linked copolymer beads as light diffuser component B, wherein the polymer beads have an average particle diameter from 0.5 to 20 μm and a refractive index ranging from 1.34 to 1.55, and c) 0 to 39.9% by weight of at least one further component C which is different to A and B, wherein the sum of components A) to C) is 100% by weight, and wherein the styrene copolymer composition exhibits a light transmittance (determined by ASTM D1003) of greater than 80%, a haze (determined by ASTM D1003-95) of greater than 90% and a Yellowness Index (determined by ASTM E313) of less than 4.5. a) 60 to 99.9% by weight of at least one styrene copolymer as matrix component A, b) 0.1 to 5% by weight of at least one type of PMMA-based, cross-linked copolymer beads as light diffuser component B, wherein the polymer beads have an average particle diameter from 0.5 to 20 μm and a refractive index ranging from 1.34 to 1.55, and c) 0 to 39.9% by weight of at least one further component C which is different to A and B,
An integrated antenna structure, comprising: a substrate (210, 610, 710); and a dual-polarized antenna unit (220, 620, 720) disposed in the substrate (210, 610, 710) and near a side edge (210E, 610E, 710E) of the substrate (210, 610, 710), the dual-polarized antenna unit (220, 620, 720) comprising a horizontally polarized antenna (222, 622, 722) and a vertically polarized antenna (224, 624, 724); characterised by a dielectric lens (650, 660, 750, 760) disposed in the substrate (210, 610, 710) and near the side edge (210E, 610E, 710E), the dielectric lens (650, 660, 750, 760) formed of at least one non-conductive via structure. a substrate (210, 610, 710); and a dual-polarized antenna unit (220, 620, 720) disposed in the substrate (210, 610, 710) and near a side edge (210E, 610E, 710E) of the substrate (210, 610, 710), the dual-polarized antenna unit (220, 620, 720) comprising a horizontally polarized antenna (222, 622, 722) and a vertically polarized antenna (224, 624, 724); characterised by a dielectric lens (650, 660, 750, 760) disposed in the substrate (210, 610, 710) and near the side edge (210E, 610E, 710E), the dielectric lens (650, 660, 750, 760) formed of at least one non-conductive via structure.
An air chuck comprising: a finger support part including a pair of fingers (5, 5) that is openable and closable; a chuck main body part including an operation mechanism operable to open and close the pair of fingers (5, 5); and two linking mechanisms that detachably link the finger support part to the chuck main body part, wherein the finger support part includes a pair of lock shafts (13, 13) that is configured to shift between a lock position and a non-lock position, the pair of lock shafts (13, 13) is configured to shift to the non-lock position so as to render the pair of fingers (5, 5) capable of being opened and closed when the finger support part is linked to the chuck main body part, and the pair of lock shafts (13, 13) is configured to shift to the lock position to lock the pair of fingers (5, 5) so as to render the pair of fingers (5, 5) incapable of being opened and closed when the finger support part is detached from the chuck main body part, and each lock shaft of the pair of lock shafts (13, 13) is provided with a corresponding one of the two respective linking mechanisms, and when the finger support part is linked to the chuck main body part, each of the linking mechanisms is configured to cause the corresponding lock shaft to shift from the lock position to the non-lock position and to link the finger support part to the chuck main body part via the lock shaft. the finger support part includes a pair of lock shafts (13, 13) that is configured to shift between a lock position and a non-lock position, the pair of lock shafts (13, 13) is configured to shift to the non-lock position so as to render the pair of fingers (5, 5) capable of being opened and closed when the finger support part is linked to the chuck main body part, and the pair of lock shafts (13, 13) is configured to shift to the lock position to lock the pair of fingers (5, 5) so as to render the pair of fingers (5, 5) incapable of being opened and closed when the finger support part is detached from the chuck main body part, and each lock shaft of the pair of lock shafts (13, 13) is provided with a corresponding one of the two respective linking mechanisms, and when the finger support part is linked to the chuck main body part, each of the linking mechanisms is configured to cause the corresponding lock shaft to shift from the lock position to the non-lock position and to link the finger support part to the chuck main body part via the lock shaft.
Generator arrangement for supplying electrical consumers (9, 10, 12) in an electrical network, in particular an on-board vehicle network, comprising a generator having a plurality of strands which are connected in a star connection, and a rectifier circuit which is connected to the strands and generates a DC voltage (U B6) for supplying the consumers (9, 10, 12), characterized in that - the star point of the star connection is led out of the generator as a further connection, and - a voltage converter is provided which is connected both to the output of the rectifier circuit and to the star point and comprises a switching device which selects the rectifier voltage (U B6) or the star point voltage (U M3) as input voltage for the voltage converter as a function of the height of a generator voltage (U B6, U M3). - the star point of the star connection is led out of the generator as a further connection, and - a voltage converter is provided which is connected both to the output of the rectifier circuit and to the star point and comprises a switching device which selects the rectifier voltage (U B6) or the star point voltage (U M3) as input voltage for the voltage converter as a function of the height of a generator voltage (U B6, U M3).