mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical conductor connection element for contacting an electrical conductor on a printed circuit board , having a contact carrier , at least one first contact element and at least one second contact element , wherein the first contact element is received in the contact carrier and connected to the second contact element in an electrically conductive manner, wherein the first contact element is provided for contacting the electrical conductor , and wherein the second contact element is provided for contacting the printed circuit board , wherein the first contact element forms, within the contact carrier , a first contact region (3.2), and the second contact element forms a second connection region (4.1) and, within the contact carrier , a second contact region (4.2), wherein the electrical conductor connection element has at least one disconnection point which is formed by the first contact region (3.2) and the second contact region (4.2), wherein the electrically conductive connection between the first contact element and the second contact element can be disconnected by the disconnection point , wherein the first contact element comprises a first connection region (3.1) which is arranged in the vicinity of a conductor receiving opening of the contact carrier , so that the electrical conductor can be inserted into the first connection region (3.1) through the conductor receiving opening and can be connected to the first connection region, wherein the contact carrier also has a test opening , wherein the first contact region (3.2) and the second contact region (4.2) in the contact carrier are arranged at the test opening , and wherein the disconnection point in the contact carrier is arranged at the test opening , characterized in that the first contact region (3.2) of the first contact element is formed as a movable part of the disconnection point .
A floor or wall covering panel, having a top surface, a bottom surface and at least four sides, wherein a first one of the sides comprises a first connection profile and a second one of the sides comprises a second connection profile, the first and second connection profiles being arranged on opposed sides of the panel, the first connection profile being configured for mechanically engaging and interlocking with a second connection profile of another floor or wall covering panel according to this claim, wherein the first side and the top surface meet at a top edge of the first side and the second side and the top surface meet at a top edge of the second side, wherein the first connection profile comprises a tongue protruding beyond the top edge of the first side, wherein the second connection profile comprises a groove recessed with respect to the top edge of the second side, the groove being delimited at its bottom by a base, protruding or not beyond the top edge of the second side; wherein the floor or wall covering panel is of a laminar structure, including a rigid core layer having a modulus of elasticity, measured according to EN 310, greater than 1000 Mpa, and a wear layer arranged on the core layer; wherein the core layer includes a first sublayer of a first composite material and a second sublayer of a second composite material atop the first sublayer; wherein each of the first and second composite materials comprises thermoplastic material and filler material, the first and second composite materials being of different formulations, the filler material of the first and second composite materials consisting of at least 70% by weight of mineral material; wherein the base delimiting the bottom of the groove is realised at least to 80% of its weight within the first sublayer of the core layer. wherein the first side and the top surface meet at a top edge of the first side and the second side and the top surface meet at a top edge of the second side, wherein the first connection profile comprises a tongue protruding beyond the top edge of the first side, wherein the second connection profile comprises a groove recessed with respect to the top edge of the second side, the groove being delimited at its bottom by a base, protruding or not beyond the top edge of the second side; wherein the floor or wall covering panel is of a laminar structure, including a rigid core layer having a modulus of elasticity, measured according to EN 310, greater than 1000 Mpa, and a wear layer arranged on the core layer; wherein the core layer includes a first sublayer of a first composite material and a second sublayer of a second composite material atop the first sublayer; wherein each of the first and second composite materials comprises thermoplastic material and filler material, the first and second composite materials being of different formulations, the filler material of the first and second composite materials consisting of at least 70% by weight of mineral material; wherein the base delimiting the bottom of the groove is realised at least to 80% of its weight within the first sublayer of the core layer.
A multi-cell transistor device , comprising: a gate pad ; a gate finger in conductive contact with the gate pad at a first location at an end of the gate finger and extending in a first direction; a source contact extending in the first direction adjacent the gate finger ; a drain contact extending in the first direction adjacent the gate finger , wherein the gate finger is between the drain contact and the source contact ; and a gate jumper in conductive contact with the gate pad and extending in the first direction; wherein the gate jumper is conductively connected to the gate finger at various locations along the gate finger that are spaced apart from the first location to effectively divide the gate finger into multiple segments, so that a gate signal received at the gate pad is applied to the gate finger at the first location and at the various locations along the gate finger; wherein the gate jumper is electrically insulated from the source contact , characterised in that the gate jumper comprises a layer of metal above and over the source contact . a gate pad ; a gate finger in conductive contact with the gate pad at a first location at an end of the gate finger and extending in a first direction; a source contact extending in the first direction adjacent the gate finger ; a drain contact extending in the first direction adjacent the gate finger , wherein the gate finger is between the drain contact and the source contact ; and a gate jumper in conductive contact with the gate pad and extending in the first direction; wherein the gate jumper is conductively connected to the gate finger at various locations along the gate finger that are spaced apart from the first location to effectively divide the gate finger into multiple segments, so that a gate signal received at the gate pad is applied to the gate finger at the first location and at the various locations along the gate finger; wherein the gate jumper is electrically insulated from the source contact , characterised in that the gate jumper comprises a layer of metal above and over the source contact .
Laser welding and/or cutting head comprising: - an optical system , such as an optical unit, arranged to supply a laser radiation capable of enabling welding and/or cutting, the laser radiation being supplied at the output of the optical system along an optical axis of the optical system , - an output nozzle arranged at the output of the optical system to combine the laser radiation with at least one additive, such as solder or an inert gas at an output orifice of the output nozzle , - an alignment system arranged between the optical system and the output nozzle to enable an alignment of the output orifice of the output nozzle with the optical axis of the optical system , the alignment system comprising a ball-joint link linking the output nozzle to the optical system with the centre of the ball joint which is merged with the optical axis of the optical system , the laser welding and/or cutting head being characterised in that the alignment system comprises: - a first ring attached to the optical system , said first ring comprising an outer face opposite the optical system and forming a first spherical bearing area, - a second ring attached to the first ring and comprising an inner face facing the outer face and forming a second spherical bearing area complementary to the first spherical bearing area , wherein the output nozzle comprises on an end facing the optical system a flange extending from the rest of the output nozzle along a spherical plane corresponding to that of the first and the second spherical bearing area, the flange being partially housed between the first and the second ring slidably bearing on each of the first and second spherical bearing areas . - an optical system , such as an optical unit, arranged to supply a laser radiation capable of enabling welding and/or cutting, the laser radiation being supplied at the output of the optical system along an optical axis of the optical system , - an output nozzle arranged at the output of the optical system to combine the laser radiation with at least one additive, such as solder or an inert gas at an output orifice of the output nozzle , - an alignment system arranged between the optical system and the output nozzle to enable an alignment of the output orifice of the output nozzle with the optical axis of the optical system , - a first ring attached to the optical system , said first ring comprising an outer face opposite the optical system and forming a first spherical bearing area, - a second ring attached to the first ring and comprising an inner face facing the outer face and forming a second spherical bearing area complementary to the first spherical bearing area ,
A method for error correction, the method comprises the steps of: opening a selected row (418 ) of a memory bank out of multiple memory banks of a dynamic memory module ; receiving selected data sub-blocks (401 , ..., (401 ), while the selected row (418 ) is open, by the dynamic memory module , wherein the selected data sub-blocks (401 , ..., (401 ) are received over a communication link and are targeted to be written to the selected row (418 ); calculating, while the selected row (418 ) is open and by an error correction unit , selected error correction code sub-blocks (408 , ..., 401 ) that are related to the selected data sub-blocks (401 , ..., (401 ); caching the selected error correction code sub-blocks (408 , ..., 401 ) in a cache memory that differs from the dynamic memory module ; closing the selected row (418 ); and writing, by a dynamic memory controller and to the selected row (418 ), the selected error correction code sub-blocks (408 , ..., 401 ) while the selected row (418 ) is open, wherein the writing comprises sending the selected error correction code sub-blocks (408 , ..., 401 ) to the dynamic memory module over the communication link; characterized in that the writing of the selected error correction code sub-blocks to the dynamic memory module is triggered by a need to clean a state of the dynamic memory controller before entering low power modes. opening a selected row (418 ) of a memory bank out of multiple memory banks of a dynamic memory module ; receiving selected data sub-blocks (401 , ..., (401 ), while the selected row (418 ) is open, by the dynamic memory module , wherein the selected data sub-blocks (401 , ..., (401 ) are received over a communication link and are targeted to be written to the selected row (418 ); calculating, while the selected row (418 ) is open and by an error correction unit , selected error correction code sub-blocks (408 , ..., 401 ) that are related to the selected data sub-blocks (401 , ..., (401 ); caching the selected error correction code sub-blocks (408 , ..., 401 ) in a cache memory that differs from the dynamic memory module ; closing the selected row (418 ); and writing, by a dynamic memory controller and to the selected row (418 ), the selected error correction code sub-blocks (408 , ..., 401 ) while the selected row (418 ) is open, wherein the writing comprises sending the selected error correction code sub-blocks (408 , ..., 401 ) to the dynamic memory module over the communication link; characterized in that the writing of the selected error correction code sub-blocks to the dynamic memory module is triggered by a need to clean a state of the dynamic memory controller before entering low power modes.
A battery assembly comprising: a cell stack in which a plurality of battery cells are stacked; a busbar assembly provided with a busbar electrically connected to an electrode lead of the battery cell , and coupled to the cell stack ; a plate unit configured to cover at least a portion of a side surface of the cell stack ; a sensing unit coupled to the busbar assembly and disposed outside of the cell stack ; and a cell monitoring unit coupled to the sensing unit through a connector of the sensing unit , characterized in that the plate unit includes a first plate covering the cell stack in a longitudinal direction of the battery cells , and a second plate covering the cell stack in a stacking direction of the battery cells , the cell monitoring unit is installed on the second plate of the plate unit , and the cell monitoring unit is configured to transmit information received from the sensing unit to a battery management system. a cell stack in which a plurality of battery cells are stacked; a busbar assembly provided with a busbar electrically connected to an electrode lead of the battery cell , and coupled to the cell stack ; a plate unit configured to cover at least a portion of a side surface of the cell stack ; a sensing unit coupled to the busbar assembly and disposed outside of the cell stack ; and a cell monitoring unit coupled to the sensing unit through a connector of the sensing unit , characterized in that the plate unit includes a first plate covering the cell stack in a longitudinal direction of the battery cells , and a second plate covering the cell stack in a stacking direction of the battery cells , the cell monitoring unit is installed on the second plate of the plate unit , and the cell monitoring unit is configured to transmit information received from the sensing unit to a battery management system.
A process of making N,N'-diacetyl-L-Cystine disodium salt, the process comprising: (i) Mixing hydroxyalkane (between 0.5-100Lper mol of cystine) with a sodium base (4.0 molar equivalents per mole of cystine) to form a cold solution at a temperature of from 5 to 10°C; (ii) Adding cystine (1 molar equivalent) to said cold solution and stirring, for a sufficient time, to form a basic cystine solution; (iii) Optionally, Cooling the cystine solution to 5°C; (iv) Adding acetyl chloride (2 molar equivalents per mole of cystine) portionwise, while maintaining the temperature between 3 and 50 °C, thereby resulting in a white suspension; (v) Stirring said white suspension and allowing said suspension to warm up to a room temperature of 15°C to 50°C, thereby resulting in N,N'-diacetyl-L-Cystine disodium salt product dissolved in solution and sodium chloride by-product precipitated solid in said suspension. (i) Mixing hydroxyalkane (between 0.5-100Lper mol of cystine) with a sodium base (4.0 molar equivalents per mole of cystine) to form a cold solution at a temperature of from 5 to 10°C; (ii) Adding cystine (1 molar equivalent) to said cold solution and stirring, for a sufficient time, to form a basic cystine solution; (iii) Optionally, Cooling the cystine solution to 5°C; (iv) Adding acetyl chloride (2 molar equivalents per mole of cystine) portionwise, while maintaining the temperature between 3 and 50 °C, thereby resulting in a white suspension; (v) Stirring said white suspension and allowing said suspension to warm up to a room temperature of 15°C to 50°C,
A method for the manufacturing of a battery system , the method comprises the following steps: - providing (S 1 ) a Battery Management System, BMS chip with a volatile memory unit ; - assembling (S 2 ) a Printed Circuit Board, PCB ; - connecting and fixing (S 3 ) the BMS chip to the PCB , to form a Cell Supervision Circuit, CSC ; - mounting (S 4 ) the CSC onto one battery module of a plurality of battery modules , connecting the PCB of the CSC to at least one battery cell of the at least one battery module ; - electrically interconnecting (S 5 ) the at least one battery module and another one of the plurality of battery modules and electrically connecting the CSC to a control unit , wherein the step of mounting (S 4 ) and/or of electrically interconnecting (S 5 ) further comprises the step of calibrating (S 6 ) the BMS chip , wherein the step of calibrating (S 6 ) is performed when the BMS chip is supplied with power from the at least one battery cell , the data resulting from the calibration being stored within the volatile memory unit . - providing (S 1 ) a Battery Management System, BMS chip with a volatile memory unit ; - assembling (S 2 ) a Printed Circuit Board, PCB ; - connecting and fixing (S 3 ) the BMS chip to the PCB , to form a Cell Supervision Circuit, CSC ; - mounting (S 4 ) the CSC onto one battery module of a plurality of battery modules , connecting the PCB of the CSC to at least one battery cell of the at least one battery module ; - electrically interconnecting (S 5 ) the at least one battery module and another one of the plurality of battery modules and electrically connecting the CSC to a control unit , wherein
A biaxially oriented article comprising 1.0 to 100.0 wt.-% of a multimodal terpolymer of ethylene and at least two alpha olefin comonomers wherein the multimodal terpolymer has a density in the range of 930 - 940 kg/m 3 and an MFR21 of 5.0 - 200 g/10 min determined according to ISO 1133, and wherein said biaxially oriented article has a relative isotropy in view of tensile strength of at least 30.0%.
A method for controlling a vehicle with at least one actor (12 - 16) and a control device , the method comprising the steps: - obtaining a reference path and at least one manipulated variable; - predicting a vehicle path and a vehicle motion for a predetermined prediction horizon based on the at least one manipulated variable; - optimizing the predicted vehicle path and the predicted vehicle motion by varying the at least one manipulated variable considering at least one constraint on the vehicle motion (C j ); characterized in that the method further comprises the steps: - determining a maximum path error (ε max ) from a difference between the optimized predicted vehicle path and the reference path in the predetermined prediction horizon , if the maximum path error (ε max ) is smaller than a lane width constraint (C lw ) on the reference path , transmitting at least one manipulated variable resulting from the optimized predicted vehicle path and the optimized predicted vehicle motion to the at least one actor (12 - 16) of the vehicle; and if the maximum path error (ε max ) is larger than the lane width constraint (C lw ) on the reference path , extending the at least one constraint on the vehicle motion (C j ), and repeating the optimization of the predicted vehicle path and the predicted vehicle motion using the at least one extended constraint on the vehicle motion (C j ). - obtaining a reference path and at least one manipulated variable; - predicting a vehicle path and a vehicle motion for a predetermined prediction horizon based on the at least one manipulated variable; - optimizing the predicted vehicle path and the predicted vehicle motion by varying the at least one manipulated variable considering at least one constraint on the vehicle motion (C j ); - determining a maximum path error (ε max ) from a difference between the optimized predicted vehicle path and the reference path in the predetermined prediction horizon , if the maximum path error (ε max ) is smaller than a lane width constraint (C lw ) on the reference path , transmitting at least one manipulated variable resulting from the optimized predicted vehicle path and the optimized predicted vehicle motion to the at least one actor (12 - 16) of the vehicle; and if the maximum path error (ε max ) is larger than the lane width constraint (C lw ) on the reference path , extending the at least one constraint on the vehicle motion (C j ), and repeating the optimization of the predicted vehicle path and the predicted vehicle motion using the at least one extended constraint on the vehicle motion (C j ). extending the at least one constraint on the vehicle motion (C j ), and repeating the optimization of the predicted vehicle path and the predicted vehicle motion using the at least one extended constraint on the vehicle motion (C j ).
Geothermal probe base element intended to receive a heat transfer fluid, said probe base comprising two cavities allowing the deposition of impurities in suspension within said heat transfer fluid, said probe base comprises a first and a second element, each element comprising two tubular portions having axes parallel to a longitudinal axis and intended for the connection of two conduits, respectively for sending and returning the heat transfer fluid, said tubular portions communicating with each other by means of an opening arranged at a top position on the side wall of the two tubular portions, so as to delimit two bottom cavities for the deposition of impurities in suspension within the heat transfer fluid, wherein said first and second elements are assembled to constitute said probe base; characterized in that in the probe base, each element has a face having a planar section so as to allow the assembly of two elements for the constitution of a probe base; wherein in the probe base, each element comprises a protective shield completely enveloping, said tubular portions of two elements assembled with the exception of said base; wherein in the probe base, each element has a longitudinal bore and a countersink intended to receive a nut head embedded in said element to receive a threaded rod screwed into said nut head. said probe base comprises a first and a second element, each element comprising two tubular portions having axes parallel to a longitudinal axis and intended for the connection of two conduits, respectively for sending and returning the heat transfer fluid, said tubular portions communicating with each other by means of an opening arranged at a top position on the side wall of the two tubular portions, so as to delimit two bottom cavities for the deposition of impurities in suspension within the heat transfer fluid, wherein said first and second elements are assembled to constitute said probe base; characterized in that in the probe base, each element has a face having a planar section so as to allow the assembly of two elements for the constitution of a probe base; wherein in the probe base, each element comprises a protective shield completely enveloping, said tubular portions of two elements assembled with the exception of said base; wherein in the probe base, each element has a longitudinal bore and a countersink intended to receive a nut head embedded in said element to receive a threaded rod screwed into said nut head.