mhurhangee/ep-ind-claims huggingface dataset:
Combine harvester for harvesting cereals, comprising - a cutter bar for cutting plants to be harvested, - a feed roller, which can be driven in rotation about an axis of rotation, for conveying the cut plants in the direction of an inclined conveyor, - an inclined conveyor for conveying the cut plants in the direction of a threshing drum, by means of which fruit can be separated from the cut plants, and - at least one driving assistance system comprising at least one data processing system and at least one data memory, wherein the feed roller has an elongated roller core extending transversely to a longitudinal axis of the combine harvester, wherein the feed roller is equipped with a plurality of feed fingers which - viewed in cross-section of the feed roller - project radially beyond an outer circumferential surface of the roller core at least in a partial circumferential region of the feed roller, wherein the feed roller is arranged at a working height measured vertically, starting from an upper side of a cutting table, characterised in that the feed roller and the drive assistance system are connected to each other in such a way that they work together as an automatic feed roller, wherein at least one operating parameter of the feed roller can be changed automatically and independently of other operating parameters of the combine harvester by means of the driver assistance system as a function of at least one harvesting parameter. - a cutter bar for cutting plants to be harvested, - a feed roller, which can be driven in rotation about an axis of rotation, for conveying the cut plants in the direction of an inclined conveyor, - an inclined conveyor for conveying the cut plants in the direction of a threshing drum, by means of which fruit can be separated from the cut plants, and - at least one driving assistance system comprising at least one data processing system and at least one data memory, wherein the feed roller has an elongated roller core extending transversely to a longitudinal axis of the combine harvester, wherein the feed roller is equipped with a plurality of feed fingers which - viewed in cross-section of the feed roller - project radially beyond an outer circumferential surface of the roller core at least in a partial circumferential region of the feed roller, wherein the feed roller is arranged at a working height measured vertically, starting from an upper side of a cutting table, characterised in that the feed roller and the drive assistance system are connected to each other in such a way that they work together as an automatic feed roller, wherein at least one operating parameter of the feed roller can be changed automatically and independently of other operating parameters of the combine harvester by means of the driver assistance system as a function of at least one harvesting parameter.
A method for fabricating two or more electrochromic composites, the method comprising: providing an electrochromic composite comprising a strengthened glass substrate having a first surface and an opposing second surface, an electrically conductive layer supported on the first surface of the strengthened glass substrate, and an electrochromic layer in electronic communication with the electrically conductive layer; and applying laser energy to the strengthened glass substrate to cut the strengthened glass substrate to form two or more cut electrochromic composites; wherein: applying the laser energy further comprises translating the laser energy relative to a surface of the strengthened glass substrate at a speed ranging from 10 cm/s to 500 cm/s; and the laser energy forms a filamentation pattern defined by a series of regularly recurring parallel filamentation traces in the strengthened glass substrate extending from a first surface of the strengthened glass substrate toward a second surface of the strengthened glass substrate to a depth of at least 75% of the thickness as detected by optical microscopy. providing an electrochromic composite comprising a strengthened glass substrate having a first surface and an opposing second surface, an electrically conductive layer supported on the first surface of the strengthened glass substrate, and an electrochromic layer in electronic communication with the electrically conductive layer; and applying laser energy to the strengthened glass substrate to cut the strengthened glass substrate to form two or more cut electrochromic composites; wherein: applying the laser energy further comprises translating the laser energy relative to a surface of the strengthened glass substrate at a speed ranging from 10 cm/s to 500 cm/s; and the laser energy forms a filamentation pattern defined by a series of regularly recurring parallel filamentation traces in the strengthened glass substrate extending from a first surface of the strengthened glass substrate toward a second surface of the strengthened glass substrate to a depth of at least 75% of the thickness as detected by optical microscopy. applying the laser energy further comprises translating the laser energy relative to a surface of the strengthened glass substrate at a speed ranging from 10 cm/s to 500 cm/s; and the laser energy forms a filamentation pattern defined by a series of regularly recurring parallel filamentation traces in the strengthened glass substrate extending from a first surface of the strengthened glass substrate toward a second surface of the strengthened glass substrate to a depth of at least 75% of the thickness as detected by optical microscopy.
An electrical household appliance comprising an appliance body which defines at least one mounting surface therein; at least one holder which is provided on the mounting surface; at least one circuit board which is disposed into the appliance body and which has at least one through hole thereon; and at least one fixing means which is configured to fix the circuit board in the appliance body, wherein the fixing means comprises a body which is configured to be positioned on the mounting surface and which has a resting surface defined thereon onto which at least the circuit board is placed, at least one connection element which is provided on the body and which is configured to be retained by the holder in order to enable the body to be almost fixedly positioned on the mounting surface, and at least one fixing member which is provided on the body and which is configured to allow the circuit board to be seated on the resting surface by allowing the circuit board to be fitted such that the fixing member passes through the through hole and configured to fixedly hold the circuit board on the resting surface, characterized by the holder comprising two feet, each of said two feet being fixed onto the mounting surface at one end and extending from said one end in a plane perpendicular to the plane where the mounting surface extends, and a wall which extends between the ends of said feet not attached to the mounting surface such that an opening remains between the mounting surface and the wall; and the fixing member comprising a protrusion which is fixed onto the body from one end and which extends in the plane almost perpendicular to the plane where the mounting surface extends, and at least one head which is provided at the end of the protrusion not connected to the body, which has a flexible structure and a total width larger than the width of the through hole and which, by means of the flexible structure thereof, becomes narrower while passing through the through hole and returns to the original state after passing through the through hole.
A method for securely transmitting data between at least a first and second processing unit, each having stored a Shared Secure Key and a respective identifier, ID, and the ID of the other processing unit, the method comprising: transmitting a first authentication challenge from the first processing unit to the second processing unit, wherein the first authentication challenge comprises at least a first random number; transmitting a second authentication challenge from the second processing unit to the first processing unit, where the second authentication challenge comprises a second random number; generating a first session key and a first authentication key at the first processing unit using the first and second authentication challenges and the stored Shared Secure Key; generating a second session key and a second authentication key at the second processing unit using the first and second authentication challenges and the stored Shared Secure Key; transmitting a first authentication response from the first processing unit to the second processing unit, the first authentication response comprising a first authentication code generated from the second authentication challenge using the first authentication key; and verifying the first processing unit at the second processing unit when the received first authentication code matches a local authentication code generated from the second authentication challenge using the second authentication key; if verified, transmitting data from the second processing unit to the first processing unit using the second session key. transmitting a first authentication challenge from the first processing unit to the second processing unit, wherein the first authentication challenge comprises at least a first random number; transmitting a second authentication challenge from the second processing unit to the first processing unit, where the second authentication challenge comprises a second random number; generating a first session key and a first authentication key at the first processing unit using the first and second authentication challenges and the stored Shared Secure Key; generating a second session key and a second authentication key at the second processing unit using the first and second authentication challenges and the stored Shared Secure Key; transmitting a first authentication response from the first processing unit to the second processing unit, the first authentication response comprising a first authentication code generated from the second authentication challenge using the first authentication key; and verifying the first processing unit at the second processing unit when the received first authentication code matches a local authentication code generated from the second authentication challenge using the second authentication key; if verified, transmitting data from the second processing unit to the first processing unit using the second session key.
A semiconductor device comprising: a unique code generating unit generating a plurality of unique codes (UC1 to UCn) which are each unique to a device, selecting one unique code (UCx) from the plurality of unique codes (UC1 to UCn), and supplying the selected unique code (UCx) to a unique code corresponding information generating unit and a decrypting unit of the semiconductor device; wherein the unique code corresponding information generating unit generates unique code corresponding information (DIx) from the selected unique code (UCx); the semiconductor device further comprises a memory region in which specific information (HF21 to HF2n) obtained by encrypting confidential information using the selected unique code (UCx) is stored in a region associated with the unique code corresponding information (DIx) generated from the selected unique code (UCx), wherein a plurality of pieces of the specific information (HF21 to HF2n) obtained by encrypting the confidential information with a plurality of unique codes (UC1 to UCn) are stored in a plurality of regions associated with the unique codes (UC1 to UCn) in the memory region; and a decrypting unit decrypting the specific information (HF21 to HF2n) obtained by encrypting confidential information using one of the unique codes (UC1 to UCn), which is read from the memory region by using the unique code corresponding information (DIx) generated from that unique code (UC1 to UCn), by using that unique code (UC1 to UCn) to generate the confidential information. a unique code generating unit generating a plurality of unique codes (UC1 to UCn) which are each unique to a device, selecting one unique code (UCx) from the plurality of unique codes (UC1 to UCn), and supplying the selected unique code (UCx) to a unique code corresponding information generating unit and a decrypting unit of the semiconductor device; wherein the unique code corresponding information generating unit generates unique code corresponding information (DIx) from the selected unique code (UCx); the semiconductor device further comprises a memory region in which specific information (HF21 to HF2n) obtained by encrypting confidential information using the selected unique code (UCx) is stored in a region associated with the unique code corresponding information (DIx) generated from the selected unique code (UCx), wherein a plurality of pieces of the specific information (HF21 to HF2n) obtained by encrypting the confidential information with a plurality of unique codes (UC1 to UCn) are stored in a plurality of regions associated with the unique codes (UC1 to UCn) in the memory region; and a decrypting unit decrypting the specific information (HF21 to HF2n) obtained by encrypting confidential information using one of the unique codes (UC1 to UCn), which is read from the memory region by using the unique code corresponding information (DIx) generated from that unique code (UC1 to UCn), by using that unique code (UC1 to UCn) to generate the confidential information.
An apparatus for skin treatment (100, 1100) said apparatus comprising: a frame configured to be applied to a treated skin segment (128, 300, 520, 704, 1004), said frame including at least one guide; and a treatment head (116, 1000) configured to reciprocate on the at least one guide, the treatment head (116, 1000) including at least one light source (120, 604) configured to deliver light energy to a treated skin segment (128, 300, 520, 704, 1004); characterised in that the treatment head further comprises at least a pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4); and wherein in course of reciprocating movement (200, 400) of the treatment head (116, 1000) the light source (120, 604) operates to deliver through a light guide light energy to the treated skin segment (128, 300, 520, 704, 1004) and when the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) is fed with a low voltage, the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) communicating with an electronic circuit is configured to extract the treated skin segment (128; 300; 520; 704; 1004) impedance and when the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) is fed with higher magnitude of RF energy as the low voltage, the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) is configured to deliver RF energy to the treated skin segment (128; 300; 520; 704; 1004). a frame configured to be applied to a treated skin segment (128, 300, 520, 704, 1004), said frame including at least one guide; and at least one guide; and a treatment head (116, 1000) configured to reciprocate on the at least one guide, the treatment head (116, 1000) including at least one light source (120, 604) configured to deliver light energy to a treated skin segment (128, 300, 520, 704, 1004); characterised in that the treatment head further comprises at least a pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4); and wherein in course of reciprocating movement (200, 400) of the treatment head (116, 1000) the light source (120, 604) operates to deliver through a light guide light energy to the treated skin segment (128, 300, 520, 704, 1004) and when the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) is fed with a low voltage, the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) communicating with an electronic circuit is configured to extract the treated skin segment (128; 300; 520; 704; 1004) impedance and when the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) is fed with higher magnitude of RF energy as the low voltage, the pair of RF electrodes (504; 508, 800-1, 800-2, 800-3, 800-4) is configured to deliver RF energy to the treated skin segment (128; 300; 520; 704; 1004).
A vehicle propulsion system comprising a combustion engine, an exhaust aftertreatment system connected to the combustion engine, an electrical traction machine adapted for propulsion of a hybrid electric vehicle, and an electrical power collector adapted to intermittently collect electrical power from an external power supply track during driving of the vehicle, characterised in that the vehicle propulsion system comprises a heating system that is arranged to heat at least one component (12, 13, 14) of the exhaust aftertreatment system and/or the combustion engine, a vehicle relative position determining means that is arranged to determine vehicle position in relation to power supply track, and a control unit being arranged to control operation of the heating system based on the determined vehicle relative position, wherein the electrical power collector is arranged for supplying the heating system with electrical power when collecting electrical power from the external power supply track, and operation of the combustion engine is configured for being stopped during at least part of the time when collecting electrical power from the external power supply track during driving of the vehicle, the control unit is arranged to, upon having stopped operation of the combustion engine and while collecting electrical power from the external supply track during driving of the vehicle, estimate a time period until reaching the end of the power supply track, compare this estimated time period with an estimated time period necessary to heat the component (12, 13, 14) or combustion engine to the predetermined target temperature, wherein the present temperature of the associated component (12, 13, 14) of the exhaust after treatment system or combustion engine is taken into account to estimate said time period, if the estimated time period until reaching the end of the power supply track is shorter than the estimated time period necessary to heat the component (12, 13, 14) or combustion engine, to the predetermined target temperature, commence the heating for enabling the associated component or combustion engine to attain the predetermined target temperature at the time of reaching the end of the power supply track, wherein the starting point and power level of the heating system are coordinated with said estimated time period until the vehicle is estimated to reach the end of the power supply track, for enabling the associated component (12, 13, 14) or combustion engine to attain said predetermined target temperature at the time of reaching the end of the power supply track. a vehicle relative position determining means that is arranged to determine vehicle position in relation to power supply track, and a control unit being arranged to control operation of the heating system based on the determined vehicle relative position,
A power system for use in supplying power to at least one load, the load being an electric vehicle, the load including a power storage device, said power system comprising: a transformer, a plurality of charging devices coupled together via a network, the transformer being coupled to each of the plurality of charging devices via at least one power conduit wherein one charging device of the plurality of charging devices is configured to: transmit a status request to each of the other charging devices of the plurality of charging devices via the network, and determine a number of active charging devices, active charging device meaning currently supplying power to a power storage coupled thereto, based on the charging status received from the other charging devices wherein the one charging device is programmed with a maximum number of active charging devices which is a predetermined maximum number of charging devices that the transformer is enabled to supply power to at the same time; and wherein if the number of active charging devices is less than the maximum number of active charging devices, the one charging device commences supplying power to power storage device and if the number of active charging devices is greater than, or equal to, the maximum number of active charging devices, the one charging device does not supply power to power storage device. a transformer, a plurality of charging devices coupled together via a network, the transformer being coupled to each of the plurality of charging devices via at least one power conduit wherein one charging device of the plurality of charging devices is configured to: transmit a status request to each of the other charging devices of the plurality of charging devices via the network, and determine a number of active charging devices, active charging device meaning currently supplying power to a power storage coupled thereto, based on the charging status received from the other charging devices wherein the one charging device is programmed with a maximum number of active charging devices which is a predetermined maximum number of charging devices that the transformer is enabled to supply power to at the same time; and wherein transmit a status request to each of the other charging devices of the plurality of charging devices via the network, and determine a number of active charging devices, active charging device meaning currently supplying power to a power storage coupled thereto, based on the charging status received from the other charging devices wherein the one charging device is programmed with a maximum number of active charging devices which is a predetermined maximum number of charging devices that the transformer is enabled to supply power to at the same time; and wherein if the number of active charging devices is less than the maximum number of active charging devices, the one charging device commences supplying power to power storage device and if the number of active charging devices is greater than, or equal to, the maximum number of active charging devices, the one charging device does not supply power to power storage device.