mhurhangee/ep-ind-claims huggingface dataset:
An expansion-joint bridging device formed as a lamellar carriageway crossover, which bridges an existing expansion joint between two building structure parts of a building structure which can be driven over, with the following characteristics: - the expansion joint is spanned by at least two cross-members which are supported in a load-bearing manner on both building structure parts, wherein at least one of the load-bearing supports allows a displacement movement of the respective cross-beam relative to the relevant building structure part; - at least one lamella arranged above the cross-members is supported displaceably in relation to the cross-members; characterised by the following features: - an overload protection device, which is not rigidly fixed to either of the building structure parts, is arranged at least substantially parallel to the at least one lamella; - the overload protection device comprises two support profiles facing one another with a space in between and supported on the cross-members, and a filler profile which bridges the gap between the support profiles; - between the two support profiles, at least one fixing device (31, 49) acts to secure their positions relative to one another; - if a threshold value for the force acting on the two support profiles which would cause them to converge is exceeded, the fixing device (31, 49) releases the positional securing to the extent that both support profiles, by displacing the filler profile upwards out of the gap, can move towards each other. - the expansion joint is spanned by at least two cross-members which are supported in a load-bearing manner on both building structure parts, wherein at least one of the load-bearing supports allows a displacement movement of the respective cross-beam relative to the relevant building structure part; - at least one lamella arranged above the cross-members is supported displaceably in relation to the cross-members; - an overload protection device, which is not rigidly fixed to either of the building structure parts, is arranged at least substantially parallel to the at least one lamella; - the overload protection device comprises two support profiles facing one another with a space in between and supported on the cross-members, and a filler profile which bridges the gap between the support profiles; - between the two support profiles, at least one fixing device (31, 49) acts to secure their positions relative to one another; - if a threshold value for the force acting on the two support profiles which would cause them to converge is exceeded, the fixing device (31, 49) releases the positional securing to the extent that both support profiles, by displacing the filler profile upwards out of the gap, can move towards each other.
A method to refurbish a non-convective zone in a salinity gradient solar pond (SGSP) comprising the steps of: draining completely an upper convective zone and a lower convective zone from a salinity gradient solar pond utilizing a plurality of transfer units, wherein each transfer unit comprises a plurality of hoses and a plurality of pumps, wherein only the non-convective zone remains in the salinity gradient solar pond; storing the drained upper convective zone in a corresponding upper convective zone of at least one surrounding pond and the drained lower convective zone in a corresponding lower convective zone of the at least one surrounding pond; refurbishing the non-convective zone of the salinity gradient solar pond; and returning the upper convective zone and the lower convective zone from the at least one surrounding pond to the salinity gradient solar pond via the plurality of transfer units. draining completely an upper convective zone and a lower convective zone from a salinity gradient solar pond utilizing a plurality of transfer units, wherein each transfer unit comprises a plurality of hoses and a plurality of pumps, wherein only the non-convective zone remains in the salinity gradient solar pond; storing the drained upper convective zone in a corresponding upper convective zone of at least one surrounding pond and the drained lower convective zone in a corresponding lower convective zone of the at least one surrounding pond; refurbishing the non-convective zone of the salinity gradient solar pond; and returning the upper convective zone and the lower convective zone from the at least one surrounding pond to the salinity gradient solar pond via the plurality of transfer units.
A wireless communication system including a base station and a terminal, the terminal comprising: a controller configured to perform control to receive, at the same timing, a plurality of signals that are broadcast to the terminal by receiving a plurality of signals in which the plurality of signals are frequency-multiplexed on a frequency axis from the base station, wherein the base station is configured to perform frequency-multiplexing one or more first signals with a second signal on the frequency axis, and characterised by being configured to transmit, when a transmission period of one or more first signals is longer than a transmission period of the second signal other than the first signal among the plurality of signals, the plurality of signals using a beam at a transmission timing while allowing the first signal to be transmitted at the same timing as the second signal, the first signal being a system information signal, the second signal being a physical broadcast channel signal. a controller configured to perform control to receive, at the same timing, a plurality of signals that are broadcast to the terminal by receiving a plurality of signals in which the plurality of signals are frequency-multiplexed on a frequency axis from the base station, wherein the base station is configured to perform frequency-multiplexing one or more first signals with a second signal on the frequency axis, and characterised by being configured to transmit, when a transmission period of one or more first signals is longer than a transmission period of the second signal other than the first signal among the plurality of signals, the plurality of signals using a beam at a transmission timing while allowing the first signal to be transmitted at the same timing as the second signal, the first signal being a system information signal, the second signal being a physical broadcast channel signal.
Wheel, comprising a rim with a rim well and with a two-part wheel spider, wherein the wheel spider comprises two molded parts, wherein the first molded part forms the spokes with an open cross section and the second molded part is joined to the first molded part, characterized in that the second molded part partially closes the spokes of the first molded part in the radial direction along the length of the profile.
[A Device for an electronic tyre pressure monitoring system of an automobile vehicle, said device comprising: - a transmission means for communicating with tyre pressure sensors; - a means for receiving signals from the sensors; - an electronic entity configured to store and/or process information conveyed by the signals transmitted by said sensors; - a means for communicating with an automobile vehicle on-board computer; - an ultra-high frequency communication module (40; 40a-c) configured to communicate with radiofrequency tags, said module (40; 40a-c) being configured to transmit on at least one first and second distinct frequency bands (Δf 1 and Δf 2); said device being configured to communicate, on the one hand, information relating to a radiofrequency tag to at least one sensor and, on the other hand, information relating to a radiofrequency tag and/or to sensors to a vehicle on-board computer, said device being configured to retrieve the identifier of a radiofrequency tag and send it, via the transmission means, to a pressure sensor for storage therein. - a transmission means for communicating with tyre pressure sensors; - a means for receiving signals from the sensors; - an electronic entity configured to store and/or process information conveyed by the signals transmitted by said sensors; - a means for communicating with an automobile vehicle on-board computer; - an ultra-high frequency communication module (40; 40a-c) configured to communicate with radiofrequency tags, said module (40; 40a-c) being configured to transmit on at least one first and second distinct frequency bands (Δf 1 and Δf 2); said device being configured to communicate, on the one hand, information relating to a radiofrequency tag to at least one sensor and, on the other hand, information relating to a radiofrequency tag and/or to sensors to a vehicle on-board computer, said device being configured to retrieve the identifier of a radiofrequency tag and send it, via the transmission means, to a pressure sensor for storage therein. said device being configured to communicate, on the one hand, information relating to a radiofrequency tag to at least one sensor and, on the other hand, information relating to a radiofrequency tag and/or to sensors to a vehicle on-board computer, said device being configured to retrieve the identifier of a radiofrequency tag and send it, via the transmission means, to a pressure sensor for storage therein.
Beam tube for guiding a charged particle beam, comprising a hollow cylindrical isolation core which directly encloses a beam-guiding cavity and is formed from a dielectrically acting carrier substrate, and comprising a metal housing enclosing the isolation core, wherein metal layers are placed in succession along the axis of the beam tube in the carrier substrate, characterized in that the isolation core is furthermore formed from an electrical conductor held in the dielectrically acting carrier substrate, wherein the conductor is divided into a plurality of conductor loops which extend fully around the circumference of the isolation core at different axial positions and are DC-connected to one another, wherein the conductor is DC-connected, in particular in an end-side manner, to the housing at at least two spaced-apart points, wherein the metal layers are DC-connected to one another by the electrical conductor and wherein the metal layers are substantially inductively coupled by the electrical conductor, which is guided in conductor loops, on a beam tube surface.
Device for forming pleats on a bag for the packaging of goods, in particular bread goods, into the body of which bag the goods are introduced, and the neck of which bag is laid flat, wherein the device has an upper and a lower bellows (1, 2) composed of connected lamellar strips, between which the neck of the bag is placed, and the bellows (1, 2) then travel into each other from a relaxed state, grip the neck of the bag between the lamellar strips from above and below and press it together, the bag is closed with a closure piece by means of a closure stamp, and the bellows (1, 2) return to the relaxed state, wherein the lamellar strips in the relaxed state are at an angle of less than 60° to each other, characterised in that the upper bellows and the lower bellows are each assembled from individual lamellar strips.
Method for writing to a self-referenced MRAM cell comprising a magnetic tunnel junction comprising: a storage layer including a first ferromagnetic layer having a first storage magnetization, a second ferromagnetic layer having a second storage magnetization, and a non-magnetic coupling layer separating the first and second ferromagnetic layers (231, 232); a sense layer having a free sense magnetization; and a tunnel barrier layer included between the sense and storage layers (21, 23); the first and second ferromagnetic layers (231, 232) being arranged such that a dipolar coupling between the storage) and the sense layers (23, 21) is substantially null; the method charaterized by switching the second ferromagnetic magnetization by passing a spin-polarized current in the magnetic tunnel junction; wherein the spin-polarized current is polarized when passing in the sense layer, in accordance with the direction of the sense magnetization. a storage layer including a first ferromagnetic layer having a first storage magnetization, a second ferromagnetic layer having a second storage magnetization, and a non-magnetic coupling layer separating the first and second ferromagnetic layers (231, 232); a sense layer having a free sense magnetization; and a tunnel barrier layer included between the sense and storage layers (21, 23); the first and second ferromagnetic layers (231, 232) being arranged such that a dipolar coupling between the storage) and the sense layers (23, 21) is substantially null; the method charaterized by switching the second ferromagnetic magnetization by passing a spin-polarized current in the magnetic tunnel junction; wherein the spin-polarized current is polarized when passing in the sense layer, in accordance with the direction of the sense magnetization.
A method, comprising: at an electronic device with a touch-sensitive display, wherein the touch-sensitive display comprises one or more sensors to detect the intensity of contacts with the touch-sensitive display: displaying a first user interface screen, wherein the first user interface screen includes an affordance representing a calendar entry in a calendar application; detecting a touch on the display, the touch having a characteristic intensity, the touch located at the affordance representing the calendar entry; determining whether the characteristic intensity of the touch is below a threshold intensity; in response to a determination that the characteristic intensity of the touch is below the threshold intensity, ceasing to display the first user interface screen and displaying a second user interface screen, wherein the second user interface screen includes a time and a location associated with the calendar entry; and in response to a determination that the characteristic intensity of the touch is not below the threshold intensity, ceasing to display the first user interface screen and displaying a third user interface screen, wherein the third user interface screen includes a plurality of affordances representing functions of the calendar application. displaying a first user interface screen, wherein the first user interface screen includes an affordance representing a calendar entry in a calendar application; detecting a touch on the display, the touch having a characteristic intensity, the touch located at the affordance representing the calendar entry; determining whether the characteristic intensity of the touch is below a threshold intensity; in response to a determination that the characteristic intensity of the touch is below the threshold intensity, ceasing to display the first user interface screen and displaying a second user interface screen, wherein the second user interface screen includes a time and a location associated with the calendar entry; and in response to a determination that the characteristic intensity of the touch is not below the threshold intensity, ceasing to display the first user interface screen and displaying a third user interface screen, wherein the third user interface screen includes a plurality of affordances representing functions of the calendar application.
A method for providing secure program launch in a computing device, comprising: obtaining an event handler (110; 230; 310) from untrusted storage (100; 200; 300; 625; 660) and, after the event handler (110; 230; 310) is measured to verify trust of the event handler by one or more security extensions of a processor associated with the computing device, instantiating the event handler (110; 230; 310) in a pre-boot environment of the computing device, wherein the pre-boot environment of the computing device is for performing at least one of: operating system, OS, boot; OS installation; virtual machine manager, VMM, installation; or VMM initialization; obtaining a boot initializer (210-220; 330; 400) from untrusted storage (100; 200; 300; 625; 660) and instantiating the boot initializer (210-220; 330; 400) in the preboot environment of the computing device; using the event handler (110; 230; 310) to intercept software load commands issued by the boot initializer (210-220; 330; 400); for each intercepted load command, initiating a software measurement of a corresponding software component; and following each measurement, performing a secure program launch of the corresponding measured software component when the measured software component is determined to be in a trusted state based on said each measurement. obtaining an event handler (110; 230; 310) from untrusted storage (100; 200; 300; 625; 660) and, after the event handler (110; 230; 310) is measured to verify trust of the event handler by one or more security extensions of a processor associated with the computing device, instantiating the event handler (110; 230; 310) in a pre-boot environment of the computing device, wherein the pre-boot environment of the computing device is for performing at least one of: operating system, OS, boot; OS installation; virtual machine manager, VMM, installation; or VMM initialization; obtaining a boot initializer (210-220; 330; 400) from untrusted storage (100; 200; 300; 625; 660) and instantiating the boot initializer (210-220; 330; 400) in the preboot environment of the computing device; using the event handler (110; 230; 310) to intercept software load commands issued by the boot initializer (210-220; 330; 400); for each intercepted load command, initiating a software measurement of a corresponding software component; and following each measurement, performing a secure program launch of the corresponding measured software component when the measured software component is determined to be in a trusted state based on said each measurement.
Soil cultivation implement comprising a frame with two frame parts including a front frame part and a rear frame part (3, 4) positioned in tandem, rotating hollow discs (5, 6) having concave sides are positioned in parallel and are connected to the front and the rear frame parts (3, 4) through support arms, the hollow discs of the front frame part seen in a direction of working point obliquely to afront and to an outside with the concave sides in the direction of working and the hollow discs of the rear frame part seen in the direction of working point with the concave sides obliquely to the front and to the centre in the direction of working, whereby the chords of the concave sides of the hollow discs (5, 6) form an obtuse angle (α)with a soil surface, charcterised in that two of the hollow discs, namely the two front hollow discs (14, 15) on the front frame part, which are located in the middle section of the front frame part, point towards each other with their convex sides and one of the two front hollow discs (14, 15) has a diameter that is at least 20% smaller than that of adjacent hollow discs and the front hollow discs (14, 15) are positioned left or right of a cultivation strip of at least one of two following rear hollow discs (18, 19) of the rear frame part that point towards each other with their concave sides, whereby one of the two front hollow discs (14, 15) is positioned offset towards another of the two front hollow discs (14, 15) relative to other discs of the hollow discs on the front frame, and the offset between the two front hollow discs is dimensioned so that a one of the two front hollow discs has a rear edge substantially aligned in a line with a rear edge of the other hollow discs or in line with rear edges of the remaining hollow discs on the front frame part.
Acquisition process of a geometrical form defined by a deformable material, wherein the geometrical form is deformed by the deformations of the deformable material, wherein the process comprises the steps consisting of: - placing, in different positions of the geometrical form, a set of sensors, wherein a sensor is provided to supply representative signals of the orientation of the geometrical form to its position, - selecting a model of the form, - based on the signals supplied by the sensors, determining the parameters of the model, - measuring the distances which separate the sensors from one another, - based on the parameters of the model and the measurements of the distance which separate the sensors from one another, determining a spatial distribution of the points of the geometrical form, wherein the process is characterised in that it further comprises the following steps: the sensors are fixed to a support made from a solid elastic material which matches all or part of the geometrical form to be acquired and that is capable of following the deformations of the material which defines the geometrical form, wherein the support is composed of at least two elastic ribbons fixed on a deformable material according to two different axes, each elastic ribbon being equipped with at least one element in the form of a zigzag (Z1, Z2) woven in the solid elastic material that composes it, the ribbons being distributed in two different directions, the sensors being placed on successive segments (s) of the zigzag element (Z1, Z2). - placing, in different positions of the geometrical form, a set of sensors, wherein a sensor is provided to supply representative signals of the orientation of the geometrical form to its position, - selecting a model of the form, - based on the signals supplied by the sensors, determining the parameters of the model, - measuring the distances which separate the sensors from one another, - based on the parameters of the model and the measurements of the distance which separate the sensors from one another, determining a spatial distribution of the points of the geometrical form, wherein the process is characterised in that it further comprises the following steps: the sensors are fixed to a support made from a solid elastic material which matches all or part of the geometrical form to be acquired and that is capable of following the deformations of the material which defines the geometrical form, wherein the support is composed of at least two elastic ribbons fixed on a deformable material according to two different axes, each elastic ribbon being equipped with at least one element in the form of a zigzag (Z1, Z2) woven in the solid elastic material that composes it, the ribbons being distributed in two different directions, the sensors being placed on successive segments (s) of the zigzag element (Z1, Z2).
A shredder device for foodstuffs comprising a feed hopper, a screw conveyor running at least in sections through the feed hopper and a shredder module following the screw conveyor in an axial direction (x), wherein the screw conveyor comprises a screw conveyor shaft driven by a screw conveyor motor unit and having a screw conveyor flight integrally formed thereon in sections, and the shredder module comprises a cutting drum having cutting openings formed therein, and a main screw rotatably arranged in the shredder module having a main screw shaft, which is driven by a main screw motor unit, and a main screw flight, which is formed thereon and passes over the cutting openings, wherein the main screw shaft is coaxially enclosed by the screw conveyor shaft inside the feed hopper up to the shredder module, and wherein the feed hopper has a first and second passage opening (51, 52) on opposite sides through which the screw conveyor shaft and the main screw shaft are passed, characterized in that a centering insert is inserted into the second passage opening, in which the screw conveyor shaft is rotatably supported by means of a second screw conveyor bearing and the main screw shaft is rotatably supported by means of a second main screw bearing.