mhurhangee/ep-ind-claims huggingface dataset:
A hand tool with an antenna arrangement which has an NFC antenna and a UHF or LF antenna, the two antennas (5, 7) being arranged on a common carrier and each being designed as a flat antenna, the two antennas (5, 7) being folded flat onto one another and being separated from one another by a flat insulating material, the insulating material being a metal foil, for example an aluminium foil, or an electrically conductive plastic, for example a plastic with embedded metal powders, the antenna arrangement is arranged in the hand tool in such a way that the NFC antenna runs essentially flush with a surface of the hand tool and the UHF or LF antenna is arranged deeper in the hand tool, and each antenna (5, 7) is connected to a chip in order to wirelessly read data from the chip and/or write data to the chip via the antennas (5, 7).
Tarpaulin structure, in particular for a commercial vehicle, a truck, a trailer, a semitrailer, a container, a rail vehicle, a swimming pool, a building or the like, comprising a folding top frame (40, 50) having at least one openable cover which spans a cargo space, wherein the cover comprises a tarpaulin which is attached to bows, wherein the bows are movable along a guide of the folding top frame for opening and closing the cover by folding the tarpaulin, in which the guides are interconnected by tension-resistant tensioning means which brace a region of the guide with an opposite region of the guide, wherein the tensioning means are connectable to a tensioning means holder, wherein the tensioning means holder comprises a fastening portion for fastening to a bow of the tarpaulin structure and a first bearing portion (23a; 23b) which has a bearing eye for connecting a tensioning means, wherein the tensioning means are connected in the bearing eye at the end thereof, characterized in that the bearing eye has an axis about which the tensioning means can be pivoted upward, that the axis is oriented perpendicularly to a tensioning direction of the tensioning means, and that the tensioning means can be pivoted upward about the axis together with the tarpaulin when the tarpaulin is folded. wherein the cover comprises a tarpaulin which is attached to bows, wherein the bows are movable along a guide of the folding top frame for opening and closing the cover by folding the tarpaulin, in which the guides are interconnected by tension-resistant tensioning means which brace a region of the guide with an opposite region of the guide, wherein the tensioning means are connectable to a tensioning means holder, wherein the tensioning means holder comprises a fastening portion for fastening to a bow of the tarpaulin structure and a first bearing portion (23a; 23b) which has a bearing eye for connecting a tensioning means, wherein the tensioning means are connected in the bearing eye at the end thereof, characterized in that the bearing eye has an axis about which the tensioning means can be pivoted upward, that the axis is oriented perpendicularly to a tensioning direction of the tensioning means, and that the tensioning means can be pivoted upward about the axis together with the tarpaulin when the tarpaulin is folded.
A processor-based computing system, comprising: at least one processor; a non-volatile memory comprising a basic input output system (BIOS), wherein the BIOS creates a data structure during a boot process, to store: memory address ranges, defining respective memory areas, storing at least static code modules associated with the BIOS and at least one cryptographic hash associated with the memory address ranges storing said static code modules and sets up at least one verification software component to be executed by the processor; a controller communicatively linked to the at least one verification software component; said at least one verification software component being arranged, in response to a message from said controller, to verify the integrity of a non-empty randomly selected subset of the memory areas in the data structure by determining at least one cryptographic hash and comparing said determined at least one cryptographic hash with said at least one cryptographic hash stored in the data structure and said memory comprising; a system management memory coupled to the at least one processor and code which is executable by the processor-based computing system to cause the processor to validate the BIOS during a runtime of the processor-based computing system using the at least one verification software component and the controller. at least one processor; a non-volatile memory comprising a basic input output system (BIOS), wherein the BIOS creates a data structure during a boot process, to store: memory address ranges, defining respective memory areas, storing at least static code modules associated with the BIOS and at least one cryptographic hash associated with the memory address ranges storing said static code modules and sets up at least one verification software component to be executed by the processor; a controller communicatively linked to the at least one verification software component; memory address ranges, defining respective memory areas, storing at least static code modules associated with the BIOS and at least one cryptographic hash associated with the memory address ranges storing said static code modules and sets up at least one verification software component to be executed by the processor; a controller communicatively linked to the at least one verification software component; said at least one verification software component being arranged, in response to a message from said controller, to verify the integrity of a non-empty randomly selected subset of the memory areas in the data structure by determining at least one cryptographic hash and comparing said determined at least one cryptographic hash with said at least one cryptographic hash stored in the data structure and said memory comprising; a system management memory coupled to the at least one processor and code which is executable by the processor-based computing system to cause the processor to validate the BIOS during a runtime of the processor-based computing system using the at least one verification software component and the controller.
Method for preserving wood, comprising the processing steps of: A) placing wood for treating in a treatment space; B) removing air, in particular oxygen, from the treatment space; C) feeding steam to the treatment space, wherein the temperature of the wood is simultaneously increased, wherein from a temperature of 70 degrees Celsius the temperature is raised with a temperature gradient of a maximum of 60 degrees Celsius per hour, most preferably between 30-50 degrees Celsius per hour, to a temperature of at least 150 degrees Celsius; wherein the wood is heated at a temperature above 150 degrees Celsius during a reaction time of at least 10 minutes; D) polymerizing wood constituents thermally activated in step C) by removing moisture from the wood up to a moisture content lower than 5% at a temperature of at least 130 degrees Celsius, and E) cooling the wood, wherein the moisture content of the wood is simultaneously increased to at least 7% by weight, preferably between 7-8% by weight, in the temperature path below 140 degrees. A) placing wood for treating in a treatment space; B) removing air, in particular oxygen, from the treatment space; C) feeding steam to the treatment space, wherein the temperature of the wood is simultaneously increased, wherein from a temperature of 70 degrees Celsius the temperature is raised with a temperature gradient of a maximum of 60 degrees Celsius per hour, most preferably between 30-50 degrees Celsius per hour, to a temperature of at least 150 degrees Celsius; wherein the wood is heated at a temperature above 150 degrees Celsius during a reaction time of at least 10 minutes; D) polymerizing wood constituents thermally activated in step C) by removing moisture from the wood up to a moisture content lower than 5% at a temperature of at least 130 degrees Celsius, and E) cooling the wood, wherein the moisture content of the wood is simultaneously increased to at least 7% by weight, preferably between 7-8% by weight, in the temperature path below 140 degrees.
A gear production plant comprising, along a gear production path, a station for preparing a number of blanks; a cutting station, where respective teeth are cut on the blanks to obtain a number of semifinished parts; a heat treating station, where the toothed semifinished parts are carburized or nitrided; and a finish station for finish machining the heat treated semifinished parts; a surface treatment station and a store; characterized by also comprising a check station; located along said production path, downstream from said heat treating station or said finish station and upstream said surface treatment station and said store; said check station; at least partly housing optical measuring means; for non-destructively determining the carburized or nitrided case depth of said teeth oh each semifinished parts finished in said finished station and reject means (19;28) to divert any finished parts or each semifinished parts finished in said finished station with other than a predetermined carburized/nitrided case depths off said production path onto a reject path (21;30) off production path, said optical measuring means (16,26) comprising a laser to direct a heating laser beam onto said teeth and receiving means, which are infrared radiation receiving means for measuring infrared radiation emitted from said teeth and which are placed away from the teeth.
Iron comprising a base provided with a heating plate and a body of the iron associated with said base, wherein said body of the iron comprises a C-shaped carrier support structure provided with a lower portion connected to said base, an upper portion intended to define a handle of the iron, and an intermediate portion which structurally connects said lower portion and said upper portion facing, during use, toward a rear part of the iron, a user interface by means of which a user can select an ironing mode, disposed on said handle, and a control and command unit configured to regulate the functioning of the iron in association with said user interface, characterized in that said iron comprises data and power cables attached on said support structure suitable to feed the control and command unit, said control and command unit is made as a replaceable module and associated in a removable manner with said upper portion of said support structure and is connected with said data and power cables, and said body comprises a containing body made in a single body, having a shape mating with that of said support structure and configured to be inserted on said support structure and said control and command unit, wherein said containing body is attached to said base by means of attachment members of the removable type.
Motor vehicle comprising a device for admixing a fluid into a combustion air of an internal combustion engine, having a first fluid container from which the fluid is able to be removed and is able to be fed to the combustion air, wherein provision is made of a second fluid container which is connected in a fluid-conducting manner to the first fluid container via a line, wherein a first fluid pump is arranged in the line, wherein the first fluid container has a smaller volume than the second fluid container, and wherein the first fluid container is arranged in an internal-combustion-engine compartment of the motor vehicle, and wherein the second fluid container is arranged in a rear end, different from the engine compartment, of the vehicle, wherein the fluid is able to be conveyed via a second fluid pump into an injection device for admixing the fluid into the combustion air, characterized in that the fluid is able to be conveyed bidirectionally by way of the first fluid pump.
An integrated circuit, comprising: an underlying metal geometry; a dielectric layer on the underlying metal geometry; a contact opening through the dielectric layer wherein the contact opening stops on the underlying metal geometry; an overlying metal geometry wherein a portion of the overlying metal geometry fills a portion of the contact opening; and an oxidation resistant barrier layer wherein the oxidation resistant barrier layer is disposed between the underlying metal geometry and overlying metal geometry and wherein the oxidation resistant barrier layer is formed of TaN or TiN with a nitrogen content of at least 20 atomic percent and a thickness of at least 5 nm, characterized in that the oxidation resistant barrier layer extends under the contact opening. an underlying metal geometry; a dielectric layer on the underlying metal geometry; a contact opening through the dielectric layer wherein the contact opening stops on the underlying metal geometry; an overlying metal geometry wherein a portion of the overlying metal geometry fills a portion of the contact opening; and an oxidation resistant barrier layer wherein the oxidation resistant barrier layer is disposed between the underlying metal geometry and overlying metal geometry and wherein the oxidation resistant barrier layer is formed of TaN or TiN with a nitrogen content of at least 20 atomic percent and a thickness of at least 5 nm, characterized in that the oxidation resistant barrier layer extends under the contact opening.
A method for controlling a wireless power transmitter (200, 1100), the method comprising: applying a detection power for detecting a change in a load impedance of the wireless power transmitter (200, 1100); detecting the change in the load impedance caused by a placement of a wireless power receiver (250, 1150); receiving, from the wireless power receiver (250, 1150), a first signal searching for the wireless power transmitter (200, 1100) within a preset time after detecting the change in the load impedance, wherein the first signal includes a bit field for a load impedance detection; determining whether the wireless power receiver (250, 1150) is capable of generating the change in the load impedance based on the bit field for the load impedance detection; determining whether a reception intensity of the first signal is greater than a threshold; and based on determination that the wireless power receiver (250, 1150) is capable of generating the change in the load impedance and the reception intensity of the first signal is greater than the threshold, transmitting, to the wireless power receiver (250, 1150), a second signal to form a communication connection with the wireless power receiver (250, 1150). applying a detection power for detecting a change in a load impedance of the wireless power transmitter (200, 1100); detecting the change in the load impedance caused by a placement of a wireless power receiver (250, 1150); receiving, from the wireless power receiver (250, 1150), a first signal searching for the wireless power transmitter (200, 1100) within a preset time after detecting the change in the load impedance, wherein the first signal includes a bit field for a load impedance detection; determining whether the wireless power receiver (250, 1150) is capable of generating the change in the load impedance based on the bit field for the load impedance detection; determining whether a reception intensity of the first signal is greater than a threshold; and based on determination that the wireless power receiver (250, 1150) is capable of generating the change in the load impedance and the reception intensity of the first signal is greater than the threshold, transmitting, to the wireless power receiver (250, 1150), a second signal to form a communication connection with the wireless power receiver (250, 1150).
An input device comprising: an input portion comprising a plurality of keys that are configured to generate signals to be processed by a computing device as inputs; a connection portion comprising at least one communication contact configured to form a communicative coupling with the computing device to communicate the generated signals; and a flexible hinge that is configured to flexibly connect the connection portion to the input portion, the flexible hinge having one or more conductors configured to communicatively couple the keys with the communication contact; characterized by the connection portion comprising a magnetic coupling device configured to form a removable magnetic attachment to the computing device; and the flexible hinge including a mid-spine configured to supply mechanical stiffness to a location of the flexible hinge that includes the mid-spine. an input portion comprising a plurality of keys that are configured to generate signals to be processed by a computing device as inputs; a connection portion comprising at least one communication contact configured to form a communicative coupling with the computing device to communicate the generated signals; and a flexible hinge that is configured to flexibly connect the connection portion to the input portion, the flexible hinge having one or more conductors configured to communicatively couple the keys with the communication contact; characterized by the connection portion comprising a magnetic coupling device configured to form a removable magnetic attachment to the computing device; and the flexible hinge including a mid-spine configured to supply mechanical stiffness to a location of the flexible hinge that includes the mid-spine.
Device for connecting a tubular drilling tool to the power rotation head of a drilling device, with a connecting tube and at least two radially arranged locking bolts passing through the connecting tube which engage a corresponding opening in a drilling tool, where at least two actuators formed by a hydraulic cylinder are arranged, by means of which the at least two locking bolts are moved, where independent means of generating power are arranged, by means of which the at least two actuators are driven, where the independent means of power generation comprise a pump cylinder which is connected to a pressure vessel to which the at least two actuators are connected, where the pump cylinder is operated by means of actuating means which are driven by inserting an appropriate drilling tool into the connecting tube, characterised in that each of the at least two locking bolts is connected to the hydraulic cylinder via a rocker, where the rocker is pre-stressed in the closed position of the locking bolt by a spring element, which spring element is formed by a disk-spring package integrated in the hydraulic cylinder, by which a piston of the hydraulic cylinder connected to the rocker is pre-stressed to such an extent that the locking bolt, in the idle position, is pressed through the wall of the connecting tube towards its central axis.
A method of manufacturing a press-formed product, comprising: press-forming the sheet into a press-formed product using a die, a punch and a movable mold part (8, 9), the movable mold part (8, 9) being capable of changing its position relative to both the die and the punch, characterised by: capturing an amount of warp in one or more sheets to be pressed separately for each sheet; wherein, during the press-forming, an initial position of the movable mold part (8, 9) relative to the die or the punch is controlled depending on the amount of warp in the sheet. capturing an amount of warp in one or more sheets to be pressed separately for each sheet; wherein, during the press-forming, an initial position of the movable mold part (8, 9) relative to the die or the punch is controlled depending on the amount of warp in the sheet.
Mixture for producing a thermochromic plastic molded body having irreversible color change, comprising at least one thermoplastic resin, at least one dye, at least one fluxing agent, and at least one developer precursor, which can be converted to at least one developer by way of irradiation at a temperature below the switching temperature of the thermochromic plastic molded body.
A cell for an electrical energy store, with a cell housing, within which an electrode is arranged and on which a terminal is arranged on the outer side which is electrically connected to the electrode, wherein an electric protection element is connected in a current path between the terminal and the electrode, for electrically isolating the electrode and the terminal, wherein the protection element is arranged outside the cell housing, characterised in that the electrode is electrically connected to the cell housing merely by way of the protection element, and in that in a tripped state of the protection element the electrode is electrically separated from the cell housing.
A substrate coated with a hard material layer, which is deposited on at least a part of the surface of a substrate; the hard material layer comprises a multilayer coating with a multilayer coating structure M and coating thickness D M, comprising A layers and B layers with different thermal conductivity in alternation, the A layers having a thermal conductivity KA in Wm -1 K -1 and an individual layer thickness D A and the B layers having a thermal conductivity KB and an individual layer thickness D B, characterized in that - KA < n · KB and - n ≥ 1.5 and - KA ≤ 10 - 200 nm ≥ D A ≥ 25 nm and 100 nm ≥ D B ≥ 25 nm and - |D A - D B | ≤ 0.15 D A or |D A - D B | ≤ 0.15 · D B, and - D M ≥ 0.1 μm, and the two materials of the sublayers, i.e. the A layers and B layers of the multilayer coating, comprise at least one cubic transition metal nitride or are selected from cubic transition metal nitrides such as CrN, TiN, TiAlN, AlCrN, or their carbonitrides or oxynitrides, e.g. CrCn, TiCN, TiAlCN, AlCrN, CrON, TiON, TiAlON, AlCrON, where alloying elements such as Si, B, V, Ta, W, Nb, Y, Mo, Ni, Zr can optionally be used or the sublayers can be composed of purely oxide layers or metallic/intermetallic layers. - KA < n · KB and - n ≥ 1.5 and - KA ≤ 10 - 200 nm ≥ D A ≥ 25 nm and 100 nm ≥ D B ≥ 25 nm and - |D A - D B | ≤ 0.15 D A or |D A - D B | ≤ 0.15 · D B, and - D M ≥ 0.1 μm,
An image processing device for processing one or more images, the device comprising: a control unit configured to partition a unit of processing into partitioned processing units; wherein each partitioned processing unit: corresponds to a VPDU (Virtual Pipeline Data Unit) size for the one or more images, or has a horizontal size that is equal to or smaller than the horizontal VPDU size and has a vertical size that is equal to or smaller than the vertical VPDU size; the unit of processing being used for calculation of a cost that is used for determining whether or not to perform bidirectional prediction; and a determination unit configured to make the determination by using the cost calculated based on the partitioned processing units. a control unit configured to partition a unit of processing into partitioned processing units; wherein each partitioned processing unit: corresponds to a VPDU (Virtual Pipeline Data Unit) size for the one or more images, or has a horizontal size that is equal to or smaller than the horizontal VPDU size and has a vertical size that is equal to or smaller than the vertical VPDU size; the unit of processing being used for calculation of a cost that is used for determining whether or not to perform bidirectional prediction; and a determination unit configured to make the determination by using the cost calculated based on the partitioned processing units.