mhurhangee/ep-ind-claims huggingface dataset:
Covering device for covering an area of a roof, preferably for fastening a solar panel or a photovoltaic module, comprising a metal plate with a deformable fitting region and with a cover region, wherein the cover region has corrugations, and a step protection device disposed on the underside of the metal plate, characterised in that the metal plate is at least substantially free of openings. a metal plate with a deformable fitting region and with a cover region, wherein the cover region has corrugations, and a step protection device disposed on the underside of the metal plate, characterised in that the metal plate is at least substantially free of openings.
A vessel prosthesis system comprising at least one vessel prosthesis for introduction into a blood vessel of a human body, wherein the vessel prosthesis comprises a proximal end, a distal end, an oblong hollow cylindrical main body extending in between the proximal end and the distal end having a longitudinal axis c and a circumference b, which main body comprises a vessel prosthesis material for forming a circumferentially substantially closed cover, wherein the vessel prosthesis material comprises a fabric structure from interwoven threads and having a mesh density, characterised in that the vessel prosthesis comprises, within the vessel prosthesis material, at least one perforation area located in between the proximal end and the distal end with a plurality of perforations comprising a diameter x selected from a range of 1.0 mm to 1.3 mm and wherein the plurality of perforations comprise a closed circumferential rim, over which rim no vessel prosthesis material extends in the direction of the perforations beyond the rim.
A method for producing a capacitive sensor, comprising, in this order, steps of: - forming trenches in a carrier based at least on one given material by etching said at least one given material, - making said given material porous at the walls and the bottom of the trenches, - filling the trenches using a conducting material. - forming trenches in a carrier based at least on one given material by etching said at least one given material, - making said given material porous at the walls and the bottom of the trenches, - filling the trenches using a conducting material.
A housing for a tyre parameter monitoring system, the housing comprising: a first fitting for engaging a valve stem of a snap-in type valve; and two arms (10, 12) that are shaped and spaced to provide a second fitting for engaging with a valve stem of a clamp-in type valve such that the valve stem of the clamp-in type valve is pivotably engaged with the housing and such that the angle between the valve stem of the clamp-in type valve and the housing is variable, wherein the two arms (10, 12) are connected by a web portion forming an aperture, the aperture being sized and shaped such that the valve stem of the snap-in type valve or the valve stem of the clamp-in type valve is insertable through the aperture, characterized in that the web portion comprises two slots in an inner surface, the inner surface facing towards the first fitting, wherein the slots are designed to engage the valve stem of the clamp-in type valve such that the valve stem is pivotably engaged with the slots, wherein the slots are arcuate and are designed to engage arcuate protrusions of a bar of the valve stem of the clamp-in type valve such that the valve stem is pivotably engaged with the housing, and wherein the arms (10, 12) and the first fitting protrude from an upper surface of the housing and the first fitting is positioned between and spaced apart from the two arms (10, 12) and is spaced apart from the inner surface of the web portion. a first fitting for engaging a valve stem of a snap-in type valve; and two arms (10, 12) that are shaped and spaced to provide a second fitting for engaging with a valve stem of a clamp-in type valve such that the valve stem of the clamp-in type valve is pivotably engaged with the housing and such that the angle between the valve stem of the clamp-in type valve and the housing is variable, wherein the two arms (10, 12) are connected by a web portion forming an aperture, the aperture being sized and shaped such that the valve stem of the snap-in type valve or the valve stem of the clamp-in type valve is insertable through the aperture, characterized in that the web portion comprises two slots in an inner surface, the inner surface facing towards the first fitting, wherein the slots are designed to engage the valve stem of the clamp-in type valve such that the valve stem is pivotably engaged with the slots, wherein the slots are arcuate and are designed to engage arcuate protrusions of a bar of the valve stem of the clamp-in type valve such that the valve stem is pivotably engaged with the housing, and wherein the arms (10, 12) and the first fitting protrude from an upper surface of the housing and the first fitting is positioned between and spaced apart from the two arms (10, 12) and is spaced apart from the inner surface of the web portion.
A domestic appliance device having an underside supportable on a rest surface, the device comprising: a retractable caster wheel assembly having a retracted and a lowered orientation; a rear fixed foot being located closer to a rear of the device than the caster wheel assembly; one or more rear wheels; characterized in that the one or more rear wheels are located closer to the rear of the device than the rear fixed foot; in the lowered orientation, the retractable caster wheel assembly and the rear wheel are in contact with the rest surface, and the rear fixed foot is raised above the rest surface, and in the retracted orientation, the rear wheel is raised above the rest surface and the rear fixed foot is in contact with the rest surface. a retractable caster wheel assembly having a retracted and a lowered orientation; a rear fixed foot being located closer to a rear of the device than the caster wheel assembly; one or more rear wheels; characterized in that the one or more rear wheels are located closer to the rear of the device than the rear fixed foot; in the lowered orientation, the retractable caster wheel assembly and the rear wheel are in contact with the rest surface, and the rear fixed foot is raised above the rest surface, and in the retracted orientation, the rear wheel is raised above the rest surface and the rear fixed foot is in contact with the rest surface.
A fabric closure for the open end of cargo containers of the type having a plurality of side walls, a top, a bottom, and at least one open end, said fabric closure comprising: (a) a cut and puncture-resistant, substantially waterproof, fabric panel formed primarily of high tenacity fibers having a tenacity greater than 20 grams/denier, the fabric panel having a top edge, bottom edge and opposed side edges, wherein the top, bottom and side edges of the fabric panel have means for attachment to the container side, top and bottom walls (14,16,20) adjacent the open end; (b) a selectively closable access opening formed in the fabric panel comprising: (i) a pair of spaced substantially vertical openings (523a, 523b) in the fabric panel, each adjacent one of the opposed side edges thereof, and each extending from the bottom edge of the fabric panel to a point adjacent the top; (ii) slide fasteners attached along adjacent edges of the length of each substantially vertical opening and movable between open and closed positions; characterized in that the vertical openings (523a, 523b) are so placed on the fabric panel that each vertical opening lies adjacent one of the side walls when the fabric panel is attached thereto, each slide fastener comprising one slide attached to a narrow section of the fabric panel which is, in turn, attachable to the side wall and the other side of the slide fastener attached to the edge of the main portion of the fabric panel so that when the slide fasteners are moved to the open position, the fabric panel may be folded up and out of the way to permit workable access to the interior of the container, and in that a bottom fastener (536,670) is attached to the bottom edge of the fabric panel, the bottom fastener (536,670) being configured to secure the bottom edge of the main portion of the fabric panel to the container and to facilitate locking of the slide fastener in the closed position. (a) a cut and puncture-resistant, substantially waterproof, fabric panel formed primarily of high tenacity fibers having a tenacity greater than 20 grams/denier, the fabric panel having a top edge, bottom edge and opposed side edges, wherein the top, bottom and side edges of the fabric panel have means for attachment to the container side, top and bottom walls (14,16,20) adjacent the open end; (b) a selectively closable access opening formed in the fabric panel comprising: (i) a pair of spaced substantially vertical openings (523a, 523b) in the fabric panel, each adjacent one of the opposed side edges thereof, and each extending from the bottom edge of the fabric panel to a point adjacent the top; (ii) slide fasteners attached along adjacent edges of the length of each substantially vertical opening and movable between open and closed positions; (i) a pair of spaced substantially vertical openings (523a, 523b) in the fabric panel, each adjacent one of the opposed side edges thereof, and each extending from the bottom edge of the fabric panel to a point adjacent the top; (ii) slide fasteners attached along adjacent edges of the length of each substantially vertical opening and movable between open and closed positions;
A seal for use in a vacuum pump comprising a seal element positioned between an inner seal carrier and an outer seal carrier which are respectively located at the inner and outer surfaces of the seal element; wherein each of the seal element and inner and outer seal carriers (2, 3) is substantially toroidal in shape, and the outer seal carrier comprises retention means to hold the seal element in position, and wherein the inner seal carrier comprises at least one recess located in a surface adjacent to the seal element; and characterised in that the seal element comprises a plurality of protrusions on an inner surface, which protrusions extend into the at least one recess of the inner seal carrier.
A method of preventing settlement of a sessile organism on a structure in water, comprising irradiating light comprising the spectrum of 409 to 412 nm to the structure, wherein the light consists of the spectrum of a part of 400 to 440 nm, wherein the light is irradiated by an LED emitter, a mercury lamp, or a fluorescent tube.
Method for monitoring at least one electronic object, characterized in that it comprises a method for instrumenting a container, forming a recipient for an assortment of materials configured to mix the assortment of materials, capable of being set moving in a preset coordinate system, wherein it comprises the following steps: - placing a plurality of communicating elements in the container on an internal surface of the container and determining a position of each of the communicating elements on the internal surface of the container, the internal surface of the container delimiting an internal volume having a known geometry, and the step of placing the communicating elements comprising the following steps; - randomly placing the communicating elements in the container, preferably while moving, - fastening the communicating elements on the internal surface of the container, - determining, by way of data delivered by the communicating elements and of the known geometry, the position of the various communicating elements relative to the internal surface of the container. - tracking the location of each communicating element over time in the preset coordinate system. and characterized in that it comprises the following complementary steps; - introducing at least one electronic object into the container, - tracking a behaviour of the at least one electronic object in the container, especially while the container is moving in the preset coordinate system, regarding an interaction of the at least one electronic object with each communicating element. - placing a plurality of communicating elements in the container on an internal surface of the container and determining a position of each of the communicating elements on the internal surface of the container, the internal surface of the container delimiting an internal volume having a known geometry, and the step of placing the communicating elements comprising the following steps; - randomly placing the communicating elements in the container, preferably while moving, - fastening the communicating elements on the internal surface of the container, - determining, by way of data delivered by the communicating elements and of the known geometry, the position of the various communicating elements relative to the internal surface of the container. - randomly placing the communicating elements in the container, preferably while moving, - fastening the communicating elements on the internal surface of the container, - determining, by way of data delivered by the communicating elements and of the known geometry, the position of the various communicating elements relative to the internal surface of the container. - tracking the location of each communicating element over time in the preset coordinate system. - introducing at least one electronic object into the container, - tracking a behaviour of the at least one electronic object in the container, especially while the container is moving in the preset coordinate system, regarding an interaction of the at least one electronic object with each communicating element.
A telescoping lifting column of a furniture part, in particular a vertically-adjustable furniture leg, having - a drive unit, - at least two column profiles (4, 5, 6), wherein at least two of the column profiles (4, 5, 6) are movable one inside the other in the longitudinal direction of the column profiles (4, 5, 6), - at least one spindle (26, 27), which is drivable indirectly by the drive unit, and on which a spindle nut (28, 29), which is rotationally-locked in relation to one of the column profiles (4, 5, 6), is movable by rotation in the longitudinal direction of the at least one spindle (26, 27), - wherein the rotationally-locked spindle nut (28, 29) is indirectly operationally linked to one of the column profiles (4, 5, 6), - wherein the at least one spindle nut (28, 29) is implemented as a multipart spindle nut (28, 29) and has an external contour for the rotationally-locked indirect operational link to one of the column profiles (4, 5, 6) characterized in that the indirect operational link between spindle nut (28, 29) and column profile (5, 6) is formed by a multipart, in particular two-part driver (7, 8). - a drive unit, - at least two column profiles (4, 5, 6), wherein at least two of the column profiles (4, 5, 6) are movable one inside the other in the longitudinal direction of the column profiles (4, 5, 6), - at least one spindle (26, 27), which is drivable indirectly by the drive unit, and on which a spindle nut (28, 29), which is rotationally-locked in relation to one of the column profiles (4, 5, 6), is movable by rotation in the longitudinal direction of the at least one spindle (26, 27), - wherein the rotationally-locked spindle nut (28, 29) is indirectly operationally linked to one of the column profiles (4, 5, 6), - wherein the at least one spindle nut (28, 29) is implemented as a multipart spindle nut (28, 29) and has an external contour for the rotationally-locked indirect operational link to one of the column profiles (4, 5, 6) characterized in that the indirect operational link between spindle nut (28, 29) and column profile (5, 6) is formed by a multipart, in particular two-part driver (7, 8).
A terminal apparatus comprising: a reception unit configured to perform, based on at least a first signal, a reference signal received power, RSRP, measurement for a first type cell, wherein the reception unit is configured to perform, based on a second signal, an RSRP measurement for a second type cell, in a case that information concerning a configuration of the second signal is included in a measurement object configuration, and the information includes information concerning a measurement period, transmission bandwidth, and a number of antenna ports, wherein the second type cell is activated or deactivated, and wherein the reception unit is configured to switch the measurement period for performing the RSRP measurement on the basis of the second signal, according to whether the second type cell is deactivated or activated. a reception unit configured to perform, based on at least a first signal, a reference signal received power, RSRP, measurement for a first type cell, wherein the reception unit is configured to perform, based on a second signal, an RSRP measurement for a second type cell, in a case that information concerning a configuration of the second signal is included in a measurement object configuration, and the information includes information concerning a measurement period, transmission bandwidth, and a number of antenna ports, wherein the second type cell is activated or deactivated, and wherein the reception unit is configured to switch the measurement period for performing the RSRP measurement on the basis of the second signal, according to whether the second type cell is deactivated or activated.
A semiconductor device (100, 200, 900), comprising: a substrate (106, 202) having a crystal orientation facing a channel flow direction, and a upper surface; at least one p-type semiconductor body and at least one n-type semiconductor body both disposed on the substrate (106, 202) and both having at least initially strained semiconductor material comprising silicon germanium, SiGe, the individual semiconductor bodies having a channel region disposed between a source region (130, 132) and a drain region (134, 136); a strained cladding layer disposed on the channel region (126, 128) of the n-type semiconductor body and being made of silicon, Si; a gate dielectric layer (122, 124) disposed over the cladding layer; and a gate electrode disposed over the gate dielectric layer, wherein no cladding layer exists on the p-type semiconductor bodies. a substrate (106, 202) having a crystal orientation facing a channel flow direction, and a upper surface; at least one p-type semiconductor body and at least one n-type semiconductor body both disposed on the substrate (106, 202) and both having at least initially strained semiconductor material comprising silicon germanium, SiGe, the individual semiconductor bodies having a channel region disposed between a source region (130, 132) and a drain region (134, 136); a strained cladding layer disposed on the channel region (126, 128) of the n-type semiconductor body and being made of silicon, Si; a gate dielectric layer (122, 124) disposed over the cladding layer; and a gate electrode disposed over the gate dielectric layer, wherein no cladding layer exists on the p-type semiconductor bodies.
A sticker adjuvant comprising a polyether amide or a polyether imide formed by the reaction of a polyether polyamine with an acid anhydride comprising polyisobutenyl succinic anhydride, wherein the polyether polyamine comprises a polyoxyalkylene diamine comprising the formula: wherein n = 15 to 50.
Jet regulator, comprising an outlet structure having an outlet grid with a regular arrangement of preferably untrimmed holes and an edge delimiting the outlet grid, wherein holes (17, 19, 25) of the outlet structure adjacent to the edge form a ring and delimit a water jet flowing through the outlet structure to the outside, wherein holes (17, 19, 25) of the ring are formed in deviation from the regular arrangement due to the limitation of the arrangement by the edge, so that the holes of the ring have different opening cross-sections, characterized in that each hole of the ring is enlarged at the expense of at least one adjacent hole in the interior of the ring in deviation from the regular arrangement, if its clear opening cross-section would otherwise be less than half as large as a clear opening cross-section of an adjacent hole of the ring if the regular arrangement were continued, and wherein at least one hole, which lies in the interior of the outlet structure and is adjacent to a hole (17, 19, 25) of the ring, is trimmed by this hole (17, 19, 25) of the ring in such a way that its clear opening cross-section is smaller than that of the largest and/or untrimmed holes of the regular arrangement and/or in that the at least one hole in the interior, at the expense of which the hole (17, 19, 25) in the ring was enlarged, has an opening cross-section that differs from zero and/or in that the hole in the interior, at the expense of which the hole (17, 19, 25) in the ring was enlarged, is combined with a further hole in the interior to form a larger hole.
A method for supporting a non-vector line, comprising: selecting n non-vector lines T L from lines that are in an initializing stage, wherein n is an integer greater than or equal to 1; controlling to perform no further initializing for other lines that are in the initializing stage except the T L until the T L fully enters a data transmission stage; and before the T L enters the data transmission stage, estimating a far-end crosstalk coefficient C TL-SV from the T L to a vector line Sv that is in the data transmission stage, wherein the C TL-SV is used in signal processing to eliminate far-end crosstalk caused by the T L to the Sv; wherein the estimating a far-end crosstalk coefficient C TL-SV from the T L to a vector line Sv that is in the data transmission stage comprises: performing no control on alignment between a sync symbol of the non-vector lines and a sync symbol of the vector line, and receiving a frequency domain signal existent on the T L and corresponding to a time point of the sync symbol of the vector line; receiving an error sample of the sync symbol of the Sv; and using the signal and the error sample to calculate the C TL-SV. selecting n non-vector lines T L from lines that are in an initializing stage, wherein n is an integer greater than or equal to 1; controlling to perform no further initializing for other lines that are in the initializing stage except the T L until the T L fully enters a data transmission stage; and before the T L enters the data transmission stage, estimating a far-end crosstalk coefficient C TL-SV from the T L to a vector line Sv that is in the data transmission stage, wherein the C TL-SV is used in signal processing to eliminate far-end crosstalk caused by the T L to the Sv; wherein the estimating a far-end crosstalk coefficient C TL-SV from the T L to a vector line Sv that is in the data transmission stage comprises: performing no control on alignment between a sync symbol of the non-vector lines and a sync symbol of the vector line, and receiving a frequency domain signal existent on the T L and corresponding to a time point of the sync symbol of the vector line; receiving an error sample of the sync symbol of the Sv; and using the signal and the error sample to calculate the C TL-SV. performing no control on alignment between a sync symbol of the non-vector lines and a sync symbol of the vector line, and receiving a frequency domain signal existent on the T L and corresponding to a time point of the sync symbol of the vector line; receiving an error sample of the sync symbol of the Sv; and using the signal and the error sample to calculate the C TL-SV.