mhurhangee/ep-ind-claims huggingface dataset:
An aerosol-generating device comprising: a device cavity having a proximal end and a distal end opposite the proximal end, wherein the proximal end of the device cavity is substantially open for receiving an aerosol-generating article, an inductive heating arrangement configured to heat an aerosol-forming substrate, the inductive heating arrangement comprising: a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate, a first LC circuit, the first LC circuit at least comprising a first inductor coil arranged towards the proximal end of the device cavity and a first capacitor, wherein the first LC circuit has a first resonance frequency, and a second LC circuit, the second LC circuit at least comprising a second inductor coil arranged towards the distal end of the device cavity and a second capacitor, wherein the second LC circuit has a second resonance frequency different from the first resonance frequency of the first LC circuit, and a controller configured to initiate heating of an aerosol-forming substrate by driving a first varying current in the first inductor coil and subsequently driving a second varying current in the second inductor coil. a device cavity having a proximal end and a distal end opposite the proximal end, wherein the proximal end of the device cavity is substantially open for receiving an aerosol-generating article, an inductive heating arrangement configured to heat an aerosol-forming substrate, the inductive heating arrangement comprising: a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate, a first LC circuit, the first LC circuit at least comprising a first inductor coil arranged towards the proximal end of the device cavity and a first capacitor, wherein the first LC circuit has a first resonance frequency, and a second LC circuit, the second LC circuit at least comprising a second inductor coil arranged towards the distal end of the device cavity and a second capacitor, wherein the second LC circuit has a second resonance frequency different from the first resonance frequency of the first LC circuit, and a susceptor arrangement that is heatable by penetration with a varying magnetic field to heat the aerosol-forming substrate, a first LC circuit, the first LC circuit at least comprising a first inductor coil arranged towards the proximal end of the device cavity and a first capacitor, wherein the first LC circuit has a first resonance frequency, and a second LC circuit, the second LC circuit at least comprising a second inductor coil arranged towards the distal end of the device cavity and a second capacitor, wherein the second LC circuit has a second resonance frequency different from the first resonance frequency of the first LC circuit, and a controller configured to initiate heating of an aerosol-forming substrate by driving a first varying current in the first inductor coil and subsequently driving a second varying current in the second inductor coil.
Device for receiving, storing and dispensing substances that is intended for installation into the ground, having at least two wall elements (2, 3, 3') for forming a cavity, wherein the wall elements (2, 3, 3') have, on their wall surface, at least in certain portions, curvatures with a radius of curvature Rw, wherein the wall elements (2, 3, 3') consist of plastic and are constructed in one part, and the device is provided with an inspection opening, characterized in that the curvatures of the individual wall elements (2, 3, 3') with the radius of curvature Rw butt against one another at an angle along an outer circumference of the device.
Improved foldable umbrella, comprising a noticeably tubular central axis supported on or inserted in the ground, an extendible longitudinal structure, an extendible elastic harness and noticeably elongated covers, the structure being constituted by plates articulated to each other with a repetitive parallelogram configuration and cross-linked in the manner of scissors providing the structure with extendible capacity in the direction of longitudinal axis thereof, the central axis being positioned in its longitudinal interior, noticeably matching the longitudinal axis of said structure, the harness being concentric with the same central axis and linearly extendible along the central axis, therefore having a contracted position due to its elastic nature and another extended position to overcome the elastic resistance thereof, the structure having a plurality of levels differentiated and determined by the arrangement of the plates in repetitive parallelogram configuration and by the arrangement thereof in the manner of scissors, and the structure having at each level the noticeably elongated covers inserted into the plates and with an orientation with respect to the central axis variable according to the degree of extension of the structure itself and the movement of each one of the covers being in accordance with the degree of extension of the structure itself contained in one plane which contains in turn the central axis and the assembly of the covers being arranged radially around the central axis and the harness being positioned on the central axis below the structure, such that if the harness is in a contracted position, the structure is in an extended position along the central axis and with the covers at a noticeably parallel inclination to the central axis and if the harness is in an extended position it forces the structure to be in a contracted position and with the covers noticeably inclined perpendicular to the central axis.
A method of producing an ultrafine powder with a particle size of not more than 0.4 μm of an alloy by heating a starting material containing a metal chloride and reducing the resulting metal chloride vapor with hydrogen gas to form the ultrafine powder of an alloy, characterized in that a metal chloride is used as one to (number of all alloying components - 1) alloying components in the starting material and an elemental metal is used as the other alloying component.
A method for monitoring a reprocessing device for endoscopes, in particular a cleaning and/or disinfection device, wherein a plurality of data points (21, 21', 21") of a process parameter (V PAA) of at least one endoscope in a single reprocessing device are logged over a plurality of reprocessing operations which each comprise several different partial operations (P1, P2, P3), wherein in each partial operation (P1, P2, P3) the need for the process parameter (V PAA) is different, wherein in each data point (21, 21', 21") of the process parameter (21, 21', 21") a time (t) of each reprocessing operation is logged and stored in relation to the respective partial operation (P1, P2, P3), wherein a trend analysis of the plurality of data points (21, 21', 21") is performed in the evaluation device over the partial operations (P1, P2, P3), wherein an actual calibration of the process parameter (V PAA) is calculated from the trend analysis and from a comparison with a target calibration it is determined whether there is an incorrect calibration of the reprocessing device.
A printing apparatus comprising: a can body conveyance unit that sequentially conveys can bodies and, every time each of the can bodies reaches each of a predetermined plurality of can body stop locations (801 to 816), temporarily stops the can body; an image forming unit that is installed at any of the plurality of can body stop locations (804 to 809) and performs image formation onto the can body positioned at the can body stop location (804 to 809); a light irradiation unit that is installed at another can body stop location positioned on a downstream side of the can body stop location (804 to 809), where the image forming unit is installed, in a conveyance direction of the can bodies, and performs light irradiation to an image formed onto the can body by the image forming unit, and characterized by a restricting wall (31, 32) that restricts light emitted from the light irradiation unit from heading toward the image forming unit, wherein one or more other can body stop locations are provided between an image formation stop location (804 to 809), which is the can body stop location where the image forming unit is installed, and a light irradiation stop location, which is the can body stop location where the light irradiation unit is installed. a can body conveyance unit that sequentially conveys can bodies and, every time each of the can bodies reaches each of a predetermined plurality of can body stop locations (801 to 816), temporarily stops the can body; an image forming unit that is installed at any of the plurality of can body stop locations (804 to 809) and performs image formation onto the can body positioned at the can body stop location (804 to 809); a light irradiation unit that is installed at another can body stop location positioned on a downstream side of the can body stop location (804 to 809), where the image forming unit is installed, in a conveyance direction of the can bodies, and performs light irradiation to an image formed onto the can body by the image forming unit, and characterized by a restricting wall (31, 32) that restricts light emitted from the light irradiation unit from heading toward the image forming unit, wherein one or more other can body stop locations are provided between an image formation stop location (804 to 809), which is the can body stop location where the image forming unit is installed, and a light irradiation stop location, which is the can body stop location where the light irradiation unit is installed.
A method for the operation of a photovoltaic plant with a plurality of solar cell modules connected in series one behind another, whose voltage outputs (2, 2') are connected with one another, in each case via interposed switching elements, and with a voltage transformer, the output side of which is connected to a load, characterised in that, - a safety switching unit (8, 9) fitted with at least two switches (8, 9) is provided, which separates the voltage transformer on its output side from the load, and at the same time opens all or selected switching elements, wherein - the one switch is arranged as an output switch between the output of the voltage transformer and the load, and - the other switch is assigned as a module switch of a control line for the switching elements, and - the two switches (8, 9) are opened with an adjustable delay relative to one another. - a safety switching unit (8, 9) fitted with at least two switches (8, 9) is provided, which separates the voltage transformer on its output side from the load, and at the same time opens all or selected switching elements, wherein - the one switch is arranged as an output switch between the output of the voltage transformer and the load, and - the other switch is assigned as a module switch of a control line for the switching elements, and - the two switches (8, 9) are opened with an adjustable delay relative to one another.
A Group III nitride based light emitting diode (40, 100), comprising: a silicon-doped GaN-based layer; a silicon-doped superlattice directly on the silicon doped GaN-based layer, the superlattice having at least two periods of alternating layers of In X Ga 1-X N and In Y Ga 1-Y N, where 0 ≤ X < 1 and 0 ≤ Y < 1 and X is not equal to Y; and a Group III nitride based active region (18, 125, 225) comprising a quantum well structure with at least one quantum well (120, 220) on the superlattice opposite the silicon-doped GaN-based layer, wherein a bandgap of the at least one quantum well is less than a bandgap of the superlattice. a silicon-doped GaN-based layer; a silicon-doped superlattice directly on the silicon doped GaN-based layer, the superlattice having at least two periods of alternating layers of In X Ga 1-X N and In Y Ga 1-Y N, where 0 ≤ X < 1 and 0 ≤ Y < 1 and X is not equal to Y; and a Group III nitride based active region (18, 125, 225) comprising a quantum well structure with at least one quantum well (120, 220) on the superlattice opposite the silicon-doped GaN-based layer, wherein a bandgap of the at least one quantum well is less than a bandgap of the superlattice.
An apparatus comprising: cache storage to store data blocks, each data block having capability metadata stored in association therewith identifying whether each said data block specifies a capability or a data value, wherein at least one type of capability is a bounded pointer; and cache control circuitry responsive to a write to a data block stored in the cache storage to set a capability metadata modification marker in association with the data block, wherein a value of the capability metadata modification marker is indicative of whether the capability metadata associated with the data block has changed since the data block was stored in the cache storage. cache storage to store data blocks, each data block having capability metadata stored in association therewith identifying whether each said data block specifies a capability or a data value, wherein at least one type of capability is a bounded pointer; and cache control circuitry responsive to a write to a data block stored in the cache storage to set a capability metadata modification marker in association with the data block, wherein a value of the capability metadata modification marker is indicative of whether the capability metadata associated with the data block has changed since the data block was stored in the cache storage.
A cryptography device protected from fault attacks while performing a cryptographic operation f, comprising: a processor and instruction storage storing instruction executable by the processor to perform cryptography operations, the instructions including - instructions to generate a codeword cw in a code C from an input quantity x wherein the codeword comprises a systematic portion equal to the quantity x and a redundancy portion R_x derived from the quantity x; - instructions to determine f ( x) from x; - instructions to determine an index value uniquely corresponding to the combination of the systematic portion x and the redundancy portion R_x; - instructions to compute a second redundancy portion as a function of the unique index value wherein the combination of f ( x) and the second redundancy portion is a codeword in C corresponding to f ( x); and - instructions to verify the absence of a fault in the computation of f by verifying the second redundancy portion against an expected value for the redundancy portion. - instructions to generate a codeword cw in a code C from an input quantity x wherein the codeword comprises a systematic portion equal to the quantity x and a redundancy portion R_x derived from the quantity x; - instructions to determine f ( x) from x; - instructions to determine an index value uniquely corresponding to the combination of the systematic portion x and the redundancy portion R_x; - instructions to compute a second redundancy portion as a function of the unique index value wherein the combination of f ( x) and the second redundancy portion is a codeword in C corresponding to f ( x); and - instructions to verify the absence of a fault in the computation of f by verifying the second redundancy portion against an expected value for the redundancy portion.
Sawing machine for bevel cuts in metal workpieces, comprising an upper saw portion with at least two running wheels, at least one of which is motor driven, and with a saw band which rotates about the running wheels, further comprising a lifting and lowering device for the upward and downward movement of the upper saw portion in order to move the saw band with a sawing advance movement in a sawing region, a transport path for supplying a workpiece to be sawn in a supply direction to the sawing region, a frame on which the upper saw portion is retained and which can be pivoted about a vertical axis in order to adjust a bevel angle between the saw band and the supply direction, a movable sawing table which is arranged in the sawing region for positioning the workpiece to be sawn, and a clamping vice (27, 28) for clamping the workpiece to be sawn during the sawing operation, wherein the sawing table and the clamping vice (27, 28) are designed to be movable in and counter to the supply direction, and wherein the sawing table and the clamping vice (27, 28) are securable in two positions, of which the first position is provided for a bevel angle greater than or equal to 0 degrees and the second position is provided for a bevel angle less than or equal to 0 degrees, characterized in that the clamping vice (27, 28) is arranged in the first position, as seen in the supply direction, in front of a cutting plane, whereas it is arranged in the second position, as seen in the supply direction, behind the cutting plane. and wherein the sawing table and the clamping vice (27, 28) are securable in two positions, of which the first position is provided for a bevel angle greater than or equal to 0 degrees and the second position is provided for a bevel angle less than or equal to 0 degrees, characterized in that the clamping vice (27, 28) is arranged in the first position, as seen in the supply direction, in front of a cutting plane, whereas it is arranged in the second position, as seen in the supply direction, behind the cutting plane.
Display device having: - a carrier plate having a cutout and spatially separated two-dimensional first display regions; and - an optoelectronic display, which is arranged on the observer side behind the carrier plate and has a two-dimensional second display region covering the cutout in the carrier plate; characterized by: - a transparent covering, which covers the first and second display regions (10, 11) and, on its observer side, is configured three-dimensionally with regions having different thicknesses, wherein image planes (9, 13) of the first and second display regions (10, 11) are visually emphasized for an observer in regions of greater thickness of the transparent covering as compared to regions of lower thickness, and wherein the transparent covering is connected to the carrier plate and the optoelectronic display by way of optical bonding, wherein the refractive index of the material of the transparent covering corresponds to the refractive index of the optical-bonding material. - a carrier plate having a cutout and spatially separated two-dimensional first display regions; and - an optoelectronic display, which is arranged on the observer side behind the carrier plate and has a two-dimensional second display region covering the cutout in the carrier plate; - a transparent covering, which covers the first and second display regions (10, 11) and, on its observer side, is configured three-dimensionally with regions having different thicknesses, wherein image planes (9, 13) of the first and second display regions (10, 11) are visually emphasized for an observer in regions of greater thickness of the transparent covering as compared to regions of lower thickness, and wherein the transparent covering is connected to the carrier plate and the optoelectronic display by way of optical bonding, wherein the refractive index of the material of the transparent covering corresponds to the refractive index of the optical-bonding material.
Wiper device, in particular rear wiper device, with a wiper strip holding unit (10a; 10b), at least one first bearing element (12a; 12b) arranged on the wiper strip holding unit (10a; 10b) and an adapter unit (14a; 14b) which comprises at least one second bearing element (16a; 16b) which, together with the first bearing element (12a; 12b), in at least one mounted state forms a rotary bearing (18a; 18b) with an axis of rotation (20a; 20b) and which at least partially engages around the wiper strip holding unit (10a; 10b) in a direction (22a; 22b) at least substantially parallel to the axis of rotation (20a; 20b), wherein the second bearing element (16a; 16b) at least partially engages around the first bearing element (12a; 12b) in at least one direction (24a; 24b) at least substantially perpendicular to the axis of rotation (20a; 20b), wherein the adapter unit (14a; 14b) is formed integrally, is composed of a plastic, has an at least substantially cuboidal outer contour, is of at least substantially U-shaped design, as viewed in cross section, and comprises two side walls (80a; 82a; 82b) and a top wall (84a; 84b), wherein the planes of main extent of the side walls (80a, 82a; 82b) are formed parallel to each other and the top wall (84a; 84b) is arranged perpendicular to the side walls (80a, 82a; 82b), wherein a receiving region for the wiper strip holding unit (10a; 10b) is formed between the side walls (80a, 82a; 82b), and the adapter unit (14a; 14b) has at least one latching connection unit (42a; 42b) which is different from the second bearing element (16a; 16b), is provided for connection to a wiper arm (44a; 44b) and comprises a latching tongue (104a; 104b) and a latching lug (106a; 106b) which is integrally formed on the latching tongue (104a; 104b), wherein the latching tongue (104a; 104b) is integrally formed in the top wall (84a; 84b) and the latching lug (106a; 106b) protrudes over the top wall (84a; 84b) in a direction facing away from a lower side, wherein the latching lug (106a; 106b) is of substantially cuboidal design, wherein, in the mounted state, the latching lug (106a; 106b) engages in a corresponding latching receptacle in an end region of the wiper arm (44a; 44b), wherein the adapter unit (14a; 14b) has an outer shape which is at least partially adapted to a shape of the end region of the wiper arm (44a; 44b), characterized in that the adapter unit (14a; 14b) has an encircling collar (92a; 92b) on an end side facing away from the wiper arm (44a; 44b) in a mounted state, and an edge of the latching lug (106a; 106b) that faces away from the collar (92a; 92b) and from the top wall (84a; 84b) is rounded.
A wind uplift protection module for roofing elements on a roof structure, comprising - a gripping element with a first leg for gripping under a load-bearing member of the roof structure, and a holder for holding the gripping element, with the holder comprising connecting means for connecting the holder with a roofing element, - with the gripping element being held in the holder so as to be slidable along a sliding axis that is, in the installed condition, essentially parallel to a direction of roof dip, and - with the first leg and the sliding axis being physically separated at least in the area where the first leg, in the installed condition, is applied under the load-bearing member, characterized in that the gripping element is held in the holder so as to be pivotable about a pivot axis that is coincident with the sliding axis, so that a wind uplift protection module connected with a roofing element can be applied to the inside of the roofing element. - a gripping element with a first leg for gripping under a load-bearing member of the roof structure, and a holder for holding the gripping element, with the holder comprising connecting means for connecting the holder with a roofing element, - with the gripping element being held in the holder so as to be slidable along a sliding axis that is, in the installed condition, essentially parallel to a direction of roof dip, and - with the first leg and the sliding axis being physically separated at least in the area where the first leg, in the installed condition, is applied under the load-bearing member, characterized in that the gripping element is held in the holder so as to be pivotable about a pivot axis that is coincident with the sliding axis, so that a wind uplift protection module connected with a roofing element can be applied to the inside of the roofing element.
A method for producing a semi-IPN composite, the method comprising polymerizing a hydrophilic monofunctional acrylate and a polyfunctional acrylate in a solution of a polyurethane prepared using an aliphatic polyisocyanate and/or an alicyclic polyisocyanate as a raw material, characterized in that the hydrophilic monofunctional acrylate comprises an amido group-containing acrylic monomer (b1-1) and an oxyethylene group-containing acrylic monomer (b1-2).