mhurhangee/ep-ind-claims huggingface dataset:
Article storage for articles provided with transponders and designed as textiles, with a storage space for loading and/or unloading articles and with a reading arrangement for contactless identification of the transponders, wherein the storage space is surrounded by a housing and by wall sections (14, 16, 18, 19), wherein the storage space has a plurality of storage compartments, wherein the storage space is subdivided into the plurality of storage compartments by an organizing structure, wherein the organizing structure has a plurality of shelves, wherein the storage space can be closed by a closing device, wherein the reading arrangement is set up for determining and/or delimiting the position of the transponders within the storage space by determining the transit time, wherein the reading arrangement has a reading unit which is set up for contactless identification of transponders at a maximum distance of up to 2,5 m, wherein the reading arrangement comprises a plurality of reference transponders and the reference transponders of the reading arrangement are arranged within the storage space, wherein within each shelf one reference transponder of the plurality of reference transponders is arranged centrally and a plurality of reference transponders of the plurality of reference transponders are arranged at the edges, wherein the reading unit is arranged in a housing roof of the article storage, wherein the reading arrangement is set up to determine transit time differences between the reference transponders and the transponders, wherein at least one of the storage compartments can only be filled up to an error-tolerant utilization height and wherein the fillability up to an error-tolerant utilization height is achieved by means of barriers on the underside of the shelf, which is arranged above the at least one of the storage compartments.
A method of increasing grain yield in a plant grown under drought stress, osmotic stress, or nitrogen deficiency, said method comprising growing a plant comprising an exogenous nucleic acid under drought stress, osmotic stress, or nitrogen deficiency, said exogenous nucleic acid comprising a regulatory region operably linked to a nucleotide sequence encoding a polypeptide having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO:2, wherein grain yield of said plant is increased as compared to the corresponding yield of a control plant that does not comprise said nucleic acid, and wherein the plant is a Oryza sativa plant.
A luminaire comprising a light source in the form of at least one LED, as well as a reflector, wherein the reflector defines a light exit opening on a side opposite the light source through a circumferential edge of the reflector, wherein a planar light-permeable cover is arranged in the light exit opening, which has light-guiding and/or light-scattering microstructures distributed over the cover, and wherein the planar light-permeable cover extends inwards towards the light source with respect to a fictitious plane defined by the circumferential edge of the reflector, wherein the height (h) of the light-permeable cover with which it projects from the fictitious plane into the reflector, is less than 1 / 5 preferably 1⁄8 of the largest diameter in the fictitious plane, characterized in that the shape of the light-guiding cover is defined by the side walls of a pyramid or cone, wherein the base side of the pyramid or cone corresponds to the fictitious plane. wherein a planar light-permeable cover is arranged in the light exit opening, which has light-guiding and/or light-scattering microstructures distributed over the cover, and wherein the planar light-permeable cover extends inwards towards the light source with respect to a fictitious plane defined by the circumferential edge of the reflector, wherein the height (h) of the light-permeable cover with which it projects from the fictitious plane into the reflector, is less than 1 / 5 preferably 1⁄8 of the largest diameter in the fictitious plane, characterized in that the shape of the light-guiding cover is defined by the side walls of a pyramid or cone, wherein the base side of the pyramid or cone corresponds to the fictitious plane.
A catalyst for thermal decomposition of an organic substance, which comprises at least one inorganic oxide selected from titanium oxide, a titanium/niobium composite oxide, a titanium/silicon composite oxide, a composite oxide of at least one element selected from silicon and tungsten with titanium, a composite oxide of at least one element selected from silicon and molybdenum with titanium, a titanium/aluminum composite oxide, zirconium oxide, a titanium/zirconium composite oxide, and a titanium-containing perovskite compound, and has the form of spherical granule having a particle diameter of 0.1 to 1.2 mm, such that the granules pass through a 15-mesh standard sieve having a wire diameter of 0.5 mm and an opening of 1.19 mm made from stainless-steel wire mesh and do not pass through a 150-mesh standard sieve having a wire diameter of 0.065 mm and an opening of 0.104 mm, a pore volume as measured by a mercury intrusion method of 0.1 to 0.3 mL/g, a tap density of 1.05 to 1.4 g/mL, and a wear rate of 2% by weight or less, wherein the tap density and wear rate are measured according to the methods described herein.
Electric generator allowing the conversion of mechanical energy to electrical energy, comprising at least: - a first axial flow electrical machine comprising a first rotor mounted in rotation about a first axis and a first stator to generate a first magnetic flow; - a second axial flow electrical machine comprising a second rotor separate from the first rotor, which is coaxial to the first rotor and a second stator to generate a second magnetic flow; - first securing means to secure the first and second rotors so that the first and second rotors can be simultaneously set in rotation about the first axis to generate the first and second magnetic flows simultaneously characterized in that: - the first rotor surrounds the first stator; - the second rotor surrounds the second stator, and in that the first and second rotors each comprise first (106, 206) and second (108, 208) walls arranged on either sides of the first and second stators respectively, so as to respectively define a first and a second annular housings configured to receive the first and second stators respectively, the second wall of the first rotor and the first wall of the second rotor being arranged facing one another, and the first securing means comprising a slide connection (32, 34) configured to allow radial movement of the second wall of the first rotor relative to the first wall of the second rotor when assembling the electric generator, and the first securing means being configured to join together the second wall of the first rotor and the first wall of the second rotor in a direction perpendicular both to the axial direction of the first and second rotors, and to the direction of said radial movement of the sliding connection. - a first axial flow electrical machine comprising a first rotor mounted in rotation about a first axis and a first stator to generate a first magnetic flow; - a second axial flow electrical machine comprising a second rotor separate from the first rotor, which is coaxial to the first rotor and a second stator to generate a second magnetic flow; - first securing means to secure the first and second rotors so that the first and second rotors can be simultaneously set in rotation about the first axis to generate the first and second magnetic flows simultaneously characterized in that: - the first rotor surrounds the first stator; - the second rotor surrounds the second stator,
An integrated circuit device comprising: a circuitry element (302, 402, 502); and logic circuitry (386, 486, 586) coupled to the circuitry element (302, 402, 502), the logic circuitry (386, 486, 586) operable to: receive an initiation signal (370, 470, 570) to destroy the circuitry element (302, 402, 502), and destroy the circuitry element (302, 402, 502) by inducing latch-up in the circuitry element (302, 402, 502) responsive to the initiation signal (370, 470, 570); characterized in that the logic circuitry (386, 486, 586) is further operable to decouple the circuitry element (302, 402, 502) from the first supply voltage (356, 456, 556) and couple the decoupled circuitry element (302, 402, 502) to a second supply voltage (358, 458, 558) to thereby induce said latch-up. a circuitry element (302, 402, 502); and logic circuitry (386, 486, 586) coupled to the circuitry element (302, 402, 502), the logic circuitry (386, 486, 586) operable to: receive an initiation signal (370, 470, 570) to destroy the circuitry element (302, 402, 502), and destroy the circuitry element (302, 402, 502) by inducing latch-up in the circuitry element (302, 402, 502) responsive to the initiation signal (370, 470, 570); receive an initiation signal (370, 470, 570) to destroy the circuitry element (302, 402, 502), and destroy the circuitry element (302, 402, 502) by inducing latch-up in the circuitry element (302, 402, 502) responsive to the initiation signal (370, 470, 570); characterized in that the logic circuitry (386, 486, 586) is further operable to decouple the circuitry element (302, 402, 502) from the first supply voltage (356, 456, 556) and couple the decoupled circuitry element (302, 402, 502) to a second supply voltage (358, 458, 558) to thereby induce said latch-up.
A transition frame for a cooling system (205, 300, 400, 500, 600, 700, 800, 1210, 1310) for an equipment rack comprising: a top connected to a first side and a second side, said sides connected to a bottom; wherein each of said top, said bottom, said first side and said second side has a rack face (125, 140) opposing a door face (130, 145); wherein said rack face (125, 140) is adjacent said equipment rack and operationally connected with said rack; said door face is adjacent a cooling system door and operationally connected with said cooling door (215, 1305); wherein cooling of equipment in said rack is maintained through said door (215, 1305), and wherein dissimilar dimensions of said rack and said door (215, 1305) are accommodated characterized in that at least one of said operational connection with said rack and said operational connection with said cooling door (215, 1305) comprises threaded fittings-tapped in said transition frame (205, 300, 400, 500, 600, 700, 800, 1210, 1310). a top connected to a first side and a second side, said sides connected to a bottom; wherein each of said top, said bottom, said first side and said second side has a rack face (125, 140) opposing a door face (130, 145); wherein said rack face (125, 140) is adjacent said equipment rack and operationally connected with said rack; said door face is adjacent a cooling system door and operationally connected with said cooling door (215, 1305); wherein cooling of equipment in said rack is maintained through said door (215, 1305), and wherein dissimilar dimensions of said rack and said door (215, 1305) are accommodated characterized in that at least one of said operational connection with said rack and said operational connection with said cooling door (215, 1305) comprises threaded fittings-tapped in said transition frame (205, 300, 400, 500, 600, 700, 800, 1210, 1310).
A system for controlled thermal energy transfer, comprising: a thermal energy source; a thermal energy sink, spaced apart from said thermal energy source; a suspension; an electrocaloric structure, said electrocaloric structure carried by said suspension and configured for alternating physical movement between thermal communication with said thermal energy source and thermal communication with said thermal energy sink; and a control signal source simultaneously providing both a temperature control signal for controlling the temperature of said electrocaloric structure and a movement control signal for controlling said alternating physical movement of said electrocaloric structure between thermal communication with said thermal energy source and thermal communication with said thermal energy sink, wherein said suspension is configured to bias said electrocaloric structure into thermal communication with said thermal energy source in the absence of said movement control signal, and said control signal source is configured to provide said movement control signal for moving said electrocaloric structure out of thermal communication with said thermal energy source, against said bias, and into thermal communication with said thermal energy sink. a thermal energy source; a thermal energy sink, spaced apart from said thermal energy source; a suspension; an electrocaloric structure, said electrocaloric structure carried by said suspension and configured for alternating physical movement between thermal communication with said thermal energy source and thermal communication with said thermal energy sink; and a control signal source simultaneously providing both a temperature control signal for controlling the temperature of said electrocaloric structure and a movement control signal for controlling said alternating physical movement of said electrocaloric structure between thermal communication with said thermal energy source and thermal communication with said thermal energy sink, wherein said suspension is configured to bias said electrocaloric structure into thermal communication with said thermal energy source in the absence of said movement control signal, and said control signal source is configured to provide said movement control signal for moving said electrocaloric structure out of thermal communication with said thermal energy source, against said bias, and into thermal communication with said thermal energy sink.
Method for imaging a molecular strand, the method comprising - providing a sample volume comprising the strand with trapping beads attached on opposite ends of the strand; and - providing an excitation beam having an excitation focus in the sample volume wherein an excitation of a fluorophore on the strand by the excitation focus results in a fluorescence response when the excitation focus coincides with the fluorophore; characterized in that the method further comprises the following steps: - scanning the excitation focus in the sample volume along a one dimensional scanning line; - providing optical traps, trapping the trapping beads at the ends of the strand in the sample volume and extending the strand between the optical traps to form a one-dimensional trapping line parallel to the one-dimensional scanning line; - aligning the one-dimensional trapping line to coincide with the one-dimensional scanning line to have the scanning excitation focus coincide with the strand; and - recording the fluorescence response as a function of a plurality of distinct scanning positions of the excitation focus along the one-dimensional scanning line. - providing a sample volume comprising the strand with trapping beads attached on opposite ends of the strand; and - providing an excitation beam having an excitation focus in the sample volume wherein an excitation of a fluorophore on the strand by the excitation focus results in a fluorescence response when the excitation focus coincides with the fluorophore; characterized in that the method further comprises the following steps: - scanning the excitation focus in the sample volume along a one dimensional scanning line; - providing optical traps, trapping the trapping beads at the ends of the strand in the sample volume and extending the strand between the optical traps to form a one-dimensional trapping line parallel to the one-dimensional scanning line; - aligning the one-dimensional trapping line to coincide with the one-dimensional scanning line to have the scanning excitation focus coincide with the strand; and - recording the fluorescence response as a function of a plurality of distinct scanning positions of the excitation focus along the one-dimensional scanning line. - scanning the excitation focus in the sample volume along a one dimensional scanning line; - providing optical traps, trapping the trapping beads at the ends of the strand in the sample volume and extending the strand between the optical traps to form a one-dimensional trapping line parallel to the one-dimensional scanning line; - aligning the one-dimensional trapping line to coincide with the one-dimensional scanning line to have the scanning excitation focus coincide with the strand; and - recording the fluorescence response as a function of a plurality of distinct scanning positions of the excitation focus along the one-dimensional scanning line.
Connector arrangement comprising: - at least two cables, each comprising one cable sheath, and respectively one shielding arranged within the cable sheath, the shielding being exposed from the cable sheath at one cable end, - a connector housing made of an electrically conductive material, in which there is realized a respective a leadthrough for each cable, the exposed shielding of each cable being located in the respective leadthrough, and being frictionally connected to the connector housing, and - a crimp barrel, the crimp barrel enclosing each leadthrough, characterized in that the crimp barrel encloses the connector housing and is frictionally connected to the connector housing. - at least two cables, each comprising one cable sheath, and respectively one shielding arranged within the cable sheath, the shielding being exposed from the cable sheath at one cable end, - a connector housing made of an electrically conductive material, in which there is realized a respective a leadthrough for each cable, the exposed shielding of each cable being located in the respective leadthrough, and being frictionally connected to the connector housing, and - a crimp barrel, the crimp barrel enclosing each leadthrough, characterized in that the crimp barrel encloses the connector housing and is frictionally connected to the connector housing.
System with at least two DIN rails and a connecting element for connecting at least two DIN rails with at least one bottom wall and two side walls (3a, 3b) emerging from the bottom wall on opposite sides, wherein the DIN rails are designed to accommodate, in a form-fitting and/or force-fitting manner, at least one light-emitting module in an accommodating area delimited by the bottom wall and the side walls (3a, 3b), wherein cable tie cutouts arranged in a regular longitudinal pattern are introduced in at least one of the two side walls (3a, 3b), wherein - the connecting element has a bottom wall and two side walls (12a, 12b) emerging from the bottom wall on opposite sides, - the walls (11, 12a, 12b) form a profile, - the connecting element is designed for accommodating at least one DIN rail in an accommodating area delimited by the bottom wall and the side walls (12a, 12b), and - the connecting element has latching elements arranged in a regular longitudinal pattern on at least one wall (11, 12a, 12b) for latching with an accommodated DIN rail, characterized in that - the latching elements are in the form of latching projections, which are arranged on the side walls (12a, 12b), are directed towards the accommodating area for the DIN rail and are configured and arranged for latching at least one of the cable tie cutouts of the DIN rail. - the connecting element has a bottom wall and two side walls (12a, 12b) emerging from the bottom wall on opposite sides, - the walls (11, 12a, 12b) form a profile, - the connecting element is designed for accommodating at least one DIN rail in an accommodating area delimited by the bottom wall and the side walls (12a, 12b), and - the connecting element has latching elements arranged in a regular longitudinal pattern on at least one wall (11, 12a, 12b) for latching with an accommodated DIN rail, - the latching elements are in the form of latching projections, which are arranged on the side walls (12a, 12b), are directed towards the accommodating area for the DIN rail and are configured and arranged for latching at least one of the cable tie cutouts of the DIN rail.
A composite antenna device comprising: a rod antenna for receiving a radio wave of a first frequency band; and a patch antenna including an antenna element board for receiving a radio wave of a second frequency band higher than the first frequency band, wherein the patch antenna is arranged side by side at a position with a distance L between a center of the antenna element board of the patch antenna and a feeding portion of the rod antenna shorter than a wavelength of the radio wave of the second frequency band; and a feeding point that supplies power to the patch antenna is disposed at a position displaced from one end on the side of the front end of the antenna element board far from the rod antenna of the patch antenna by a distance Y, characterized in that Y satisfies the relation Y ≅ L/εr 1/2 with εr being a specific permittivity of the dielectric body of the antenna element board of the patch antenna. a rod antenna for receiving a radio wave of a first frequency band; and a patch antenna including an antenna element board for receiving a radio wave of a second frequency band higher than the first frequency band, wherein the patch antenna is arranged side by side at a position with a distance L between a center of the antenna element board of the patch antenna and a feeding portion of the rod antenna shorter than a wavelength of the radio wave of the second frequency band; and a feeding point that supplies power to the patch antenna is disposed at a position displaced from one end on the side of the front end of the antenna element board far from the rod antenna of the patch antenna by a distance Y, characterized in that Y satisfies the relation Y ≅ L/εr 1/2 with εr being a specific permittivity of the dielectric body of the antenna element board of the patch antenna.