mhurhangee/ep-ind-claims huggingface dataset:
A battery management system comprising: a first to nth battery management modules (200, M, S 1 to S n-1) sequentially connected through a communication interface, wherein each battery management module designates itself as a master module or a slave module depending on whether or not a pulse signal is received from a battery management module at a higher level, and each battery management module allocates its communication ID according to a pulse width of the pulse signal received from the battery management module at a higher level, generates a pulse signal having the pulse width corresponding to the communication ID of the battery management module at a lower level, and outputs the generated pulse signal to the battery management module at a lower level, wherein when a battery management module recognizes that the battery management module at a lower level is replaced, it generates a pulse signal corresponding to the communication ID of the replaced battery management module and outputs the generated pulse signal.. a first to nth battery management modules (200, M, S 1 to S n-1) sequentially connected through a communication interface, wherein each battery management module designates itself as a master module or a slave module depending on whether or not a pulse signal is received from a battery management module at a higher level, and each battery management module allocates its communication ID according to a pulse width of the pulse signal received from the battery management module at a higher level, generates a pulse signal having the pulse width corresponding to the communication ID of the battery management module at a lower level, and outputs the generated pulse signal to the battery management module at a lower level, wherein when a battery management module recognizes that the battery management module at a lower level is replaced, it generates a pulse signal corresponding to the communication ID of the replaced battery management module and outputs the generated pulse signal..
A system or apparatus for producing synchronized digital video data from a plurality of digital video sources making up a stereovision or multivision system, comprising: the plurality of digital video sources consisting of cameras or image sensors; a common clock (170, 250) shared by all the digital video sources; and a clock distribution subsystem through which the digital video sources are operably coupled to the common clock (170, 250), the clock distribution subsystem being adapted to communicate and share the common clock (170, 250) between each digital video source with a common delay in transferring the common clock (170, 250) to each digital video source; a means for halting or disconnecting the common clock (170, 250) being shared by the plurality of digital video sources; and a means for restarting or re-connecting the common clock (170, 250) being shared by the plurality of digital video sources, wherein the system or apparatus is configured so that delivery of commands to the digital video sources is serial and sequential and cannot involve all of the digital video sources at once; and wherein the digital video sources are matched digital video sources, characterized by further comprising: a video controller, operably coupled to the means for halting or disconnecting the common clock (170, 250) and the means for restarting or re-connecting the common clock (170, 250), wherein: the video controller is configured to halt or disconnect the common clock (170, 250) being shared by the plurality of digital video sources before serial and sequential delivery of commands that could affect synchronization and restart or reconnect the common clock (170, 250) after the serial and sequential delivery of commands that could affect synchronization and corresponding changes in configuration of the digital video sources have been completed. the plurality of digital video sources consisting of cameras or image sensors; a common clock (170, 250) shared by all the digital video sources; and a clock distribution subsystem through which the digital video sources are operably coupled to the common clock (170, 250), the clock distribution subsystem being adapted to communicate and share the common clock (170, 250) between each digital video source with a common delay in transferring the common clock (170, 250) to each digital video source; a means for halting or disconnecting the common clock (170, 250) being shared by the plurality of digital video sources; and a means for restarting or re-connecting the common clock (170, 250) being shared by the plurality of digital video sources, wherein the system or apparatus is configured so that delivery of commands to the digital video sources is serial and sequential and cannot involve all of the digital video sources at once; and wherein the digital video sources are matched digital video sources,
A composition for topical application to a plant or part thereof, comprising an amount of a Polyphenol Oxidase 11 inhibitory compound effective to suppress expression of a PPO11 gene, which encodes the polypeptide encoded by SEQ ID NO:9, wherein expression of the PPO11 gene in the absence of the inhibitory compound positively correlates with browning of the plant or part thereof, wherein the PPO11 inhibitory compound comprises an antisense polynucleotide or dsRNA that suppresses said expression of a PPO11 gene and comprises at least 130 contiguous nucleotides of a polynucleotide selected from SEQ ID NOs: 1-4 and 9, or a complement thereof.
Method for determining an adjustment of at least one roller stand (4, 6) when slabs are being rolled in at least one rolling pass, wherein the slabs pass through a furnace in a conveying direction (y) such that there is a respective plurality of slabs in the furnace, wherein the slabs are heated to a final temperature while passing through the furnace, characterized in that - a determining device receives information (II, 12, 13) showing the regions occupied by the slabs relative to one another when passing through the furnace in at least one direction (x, z) orthogonal to the conveying direction (y), - wherein the determining device uses the information (II, 12, 13) it has received to determine, for at least one rolling pass of the respective slab, the adjustment of the roller stand (4, 6) performing this rolling pass without prior determination of a respective temperature distribution of a respective slab or without utilization of a determined temperature of a respective slab, - wherein the determining device, when determining the adjustment for the respective slab, takes into account the region occupied by the respective preceding slab, seen in the conveying direction (y), relative to the respective slab and/or the region occupied by the respective following slab, seen in the conveying direction (y), relative to the respective slab, - wherein the determining device supplies the respective determined adjustment of the roller stand (4, 6) to a control device (5, 7), which controls the roller stand (4, 6) when the respective slab is being rolled, taking into account the respective adjustment. - a determining device receives information (II, 12, 13) showing the regions occupied by the slabs relative to one another when passing through the furnace in at least one direction (x, z) orthogonal to the conveying direction (y), - wherein the determining device uses the information (II, 12, 13) it has received to determine, for at least one rolling pass of the respective slab, the adjustment of the roller stand (4, 6) performing this rolling pass without prior determination of a respective temperature distribution of a respective slab or without utilization of a determined temperature of a respective slab, - wherein the determining device, when determining the adjustment for the respective slab, takes into account the region occupied by the respective preceding slab, seen in the conveying direction (y), relative to the respective slab and/or the region occupied by the respective following slab, seen in the conveying direction (y), relative to the respective slab, - wherein the determining device supplies the respective determined adjustment of the roller stand (4, 6) to a control device (5, 7), which controls the roller stand (4, 6) when the respective slab is being rolled, taking into account the respective adjustment.
A cable comprising: - at least one conductor coated by an insulation coating layer, - a first protective layer surrounding said insulation coating layer, said first protective layer being made of a tetrafluoroethylene copolymer [polymer] consisting essentially of: - from 0.8% to 2.5% by weight of recurring units derived from at least one perfluorinated alkyl vinyl ether having formula here below: CF 2 =CF-O-R f, wherein R f is a linear or branched C 3 -C 5 perfluorinated alkyl group or a linear or branched C 3 -C 12 perfluorinated alkyl group comprising one or more ether oxygen atoms, and - from 97.5% to 99.2% by weight of recurring units derived from TFE, said polymer having a melt flow index comprised between 1.0 and 6.0 g/10 min, as measured according to ASTM D1238 at 372°C under a load of 5 Kg; - optionally, a second protective layer surrounding said first protective layer, and - an armor shell surrounding said first or second protective layer, wherein the first protective layer is free from high molecular weight polytetrafluoroethylene (PTFE) or low molecular weight PTFE. - at least one conductor coated by an insulation coating layer, - a first protective layer surrounding said insulation coating layer, said first protective layer being made of a tetrafluoroethylene copolymer [polymer] consisting essentially of: - from 0.8% to 2.5% by weight of recurring units derived from at least one perfluorinated alkyl vinyl ether having formula here below: CF 2 =CF-O-R f, wherein R f is a linear or branched C 3 -C 5 perfluorinated alkyl group or a linear or branched C 3 -C 12 perfluorinated alkyl group comprising one or more ether oxygen atoms, and - from 97.5% to 99.2% by weight of recurring units derived from TFE, said polymer having a melt flow index comprised between 1.0 and 6.0 g/10 min, as measured according to ASTM D1238 at 372°C under a load of 5 Kg; - optionally, a second protective layer surrounding said first protective layer, and - an armor shell surrounding said first or second protective layer, wherein the first protective layer is free from high molecular weight polytetrafluoroethylene (PTFE) or low molecular weight PTFE.
Battery with a layer structure, in particular a printed battery with a layer structure, comprising - an electrode-separator stack with an electrode layer of positive electrode material, an electrode layer of negative electrode material and an ion-conducting separator layer in between, - a current conductor (105, 106) for each of the electrode layers (102, 103), in each case with a current collector (107, 108), which is in direct contact with the electrode material of the electrode layers (102, 103), and a connecting contact (109, 110), wherein the current conductors (105, 106) are designed as separate current conductor layers on a side of the electrode layers (102, 103) that is facing away from the separator layer and/or form a common electrode-current conductor layer together with the electrode layers (102, 103), and - an electrically non-conductive substrate, which is wrapped around an edge of the electrode-separator stack, so that it at least partially covers the electrode layers (102, 103), wherein the electrically non-conductive substrate is used as a carrier for the current conductors (105, 106) and said current conductors are arranged on the substrate in such a way that the connecting contacts (109, 110) can be tapped in the same current conductor layer or the same electrode-current conductor layer, characterized in that the non-conductive substrate is wrapped around the edge of the electrode-separator stack along a crease line and one of the connecting contacts is arranged on the substrate in such a way that the connecting contact crosses this crease line. - an electrode-separator stack with an electrode layer of positive electrode material, an electrode layer of negative electrode material and an ion-conducting separator layer in between, - a current conductor (105, 106) for each of the electrode layers (102, 103), in each case with a current collector (107, 108), which is in direct contact with the electrode material of the electrode layers (102, 103), and a connecting contact (109, 110), wherein the current conductors (105, 106) are designed as separate current conductor layers on a side of the electrode layers (102, 103) that is facing away from the separator layer and/or form a common electrode-current conductor layer together with the electrode layers (102, 103), and - an electrically non-conductive substrate, which is wrapped around an edge of the electrode-separator stack, so that it at least partially covers the electrode layers (102, 103),
A process for reacting isopulegol to menthone, in which isopulegol in a carrier gas phase is contacted with an activated oxidic copper catalyst optionally comprising at least one further element selected from aluminum, manganese, barium, chromium, calcium, and or iron, and optionally after the reaction a menthone-containing reaction product is isolated, where the reaction takes place at a temperature of 150-250°C.
A ranging apparatus, comprising: a body; a substrate on which a sensor unit is mounted and fitted to a surface of the body; a sensor holder attached to the surface of the body and configured to hold the substrate on which the sensor unit is mounted; a lens unit (34, 340) attached to another surface of the body; wherein the body is provided with a first protrusion which engages with a first groove provided on the substrate and a second protrusion which engages with a second groove provided on the substrate; wherein the sensor holder is provided with a third protrusion which engages with a third groove provided on the substrate and a fourth protrusion which engages with a fourth groove provided on the substrate; wherein the first groove is different in shape to the second groove and the third groove is different in shape to the fourth groove. a body; a substrate on which a sensor unit is mounted and fitted to a surface of the body; a sensor holder attached to the surface of the body and configured to hold the substrate on which the sensor unit is mounted; a lens unit (34, 340) attached to another surface of the body; wherein the body is provided with a first protrusion which engages with a first groove provided on the substrate and a second protrusion which engages with a second groove provided on the substrate; wherein the sensor holder is provided with a third protrusion which engages with a third groove provided on the substrate and a fourth protrusion which engages with a fourth groove provided on the substrate;
A floor care appliance in the form of a carpet cleaning appliance in the form of a brush vacuum cleaner having a brush set facing the floor for receiving a driven brush roller, wherein the brush set can be connected via a pivotable connecting element to air guiding channels (6, 7) in the form of a connecting piece for a filter housing which can be placed thereon to a handle in the form of a hand grip via corresponding connections and the brush set comprises at least one electric motor for a suction fan and for the drive of the brush roller, and the air guiding channels (6, 7) of the pivotable connecting element are guided for the supply of dirt-laden suction air from the brush set to the filter housing and return of filtered air via a parallel air guiding channel (6, 7) to the brush set and exhaust air is exhausted from the suction fan via discharge openings, characterized in that the pivotable connecting element has an additional third air guiding channel in the form of exhaust air channel of the suction fan in the brush set for supply to a discharge region in the filter housing with an air outlet and interposed filter.
A portable terminal comprising conductive components (C1, C2, C3), a circuit board, a conductive layer disposed on the circuit board of the portable terminal and an antenna device, the antenna device comprising: a slit formed by partially removing the conductive layer; a power feeding line formed across the slit; a first radiator formed around the slit by a part of the conductive layer at an edge side of the circuit board and connected to a power feeding unit of the portable terminal and a second radiator formed around the slit by another part of the conductive layer at the edge side of the circuit board and connected to each of the power feeding unit and to a ground part of the portable terminal, wherein at least one of the conductive components (C1, C2, C3) comprises a connector member mounted on the conductive layer at the edge side of the circuit board between the power feeding unit and the ground part, wherein the connector member is connected to at least one of the first radiator and the second radiator, and wherein the connector member is connected with the power feeding unit through the power feeding line. a slit formed by partially removing the conductive layer; a power feeding line formed across the slit; a first radiator formed around the slit by a part of the conductive layer at an edge side of the circuit board and connected to a power feeding unit of the portable terminal and a second radiator formed around the slit by another part of the conductive layer at the edge side of the circuit board and connected to each of the power feeding unit and to a ground part of the portable terminal, wherein at least one of the conductive components (C1, C2, C3) comprises a connector member mounted on the conductive layer at the edge side of the circuit board between the power feeding unit and the ground part, wherein the connector member is connected to at least one of the first radiator and the second radiator, and wherein the connector member is connected with the power feeding unit through the power feeding line.
Pipe connection part for connecting the spigot ends (37, 38) of two pipes (35, 36), wherein the pipe connection part has two socket regions (2, 3), wherein each socket region (2, 3) is designed to accommodate one pipe spigot end (37, 38) and has an insertion opening (4, 5) for inserting the pipe spigot ends (37, 38), wherein a circumferential annular web is arranged along the inner wall and transverse to the longitudinal extension of the pipe connection part between the socket regions (2, 3) of the pipe connection part, wherein the circumferential annular web has an inner collar extending on both sides in the direction of the insertion openings (4, 5), wherein a circumferential accommodation space (11, 12) is respectively designed on both sides of the annular web between the inner collar, the side walls (9, 10) of the annular web, and sections of the inner wall of the pipe connection part for at least sectional accommodation of the respective pipe spigot end (37, 38), wherein the socket regions (2, 3) respectively have at least one circumferential annular bead (19, 20) for receiving at least one annular seal (45, 46), wherein the outer sides (31, 32) of the annular beads (19, 20), in particular the outer side (31, 32) of the bead base, form, at least in sections, a circumferential rib (33, 34) on the outer side of the pipe connection part, characterized in that the ribs (33, 34), formed by the outer sides (31, 32) of the annular beads (19, 20), have a smaller outer diameter than the adjacent rib arranged further in the direction of the insertion opening (4, 5), and that the ribs (33, 34), formed by the outer sides (31, 32) of the annular beads (19, 20), have a larger outer diameter than the adjacent reinforcing rib arranged further in the direction toward the middle of the pipe connection part.
A component carrier, comprising: a stack comprising at least one electrically insulating layer structure and/or at least one electrically conductive layer structure; a component having one or more pads and at least one dielectric layer on at least one main surface of the component, wherein the at least one dielectric layer does not extend beyond the main surface in a lateral direction, wherein the dielectric layer at least partially covers the one or more pads of the component; and at least one electrically conductive contact extending through at least one opening in the dielectric layer up to at least one of the one or more pads; characterized in that the component is embedded in a cavity of the stack; and said dielectric layer is entirely located within the cavity so that a bottom surface of said dielectric layer is at the same vertical level, in alignment and flushing with a bottom surface of the stack. a stack comprising at least one electrically insulating layer structure and/or at least one electrically conductive layer structure; a component having one or more pads and at least one dielectric layer on at least one main surface of the component, wherein the at least one dielectric layer does not extend beyond the main surface in a lateral direction, wherein the dielectric layer at least partially covers the one or more pads of the component; and at least one electrically conductive contact extending through at least one opening in the dielectric layer up to at least one of the one or more pads; characterized in that the component is embedded in a cavity of the stack; and said dielectric layer is entirely located within the cavity so that a bottom surface of said dielectric layer is at the same vertical level, in alignment and flushing with a bottom surface of the stack.
A method for identifying a cancer stem cell -like zone in a colonic tumor, comprising a. assaying a colonic tumor sample for PTEN expression, b. detecting an alternating spatial pattern of PTEN expression in the colonic tumor sample, wherein the alternating spatial pattern comprises multifocal zones of loss of PTEN expression juxtaposed next to tumor cells with a normal pattern of PTEN expression, and c. identifying a cancer stem cell -like region of the colonic tumor where the alternating spatial pattern of PTEN expression is detected thereby indicating the presence of the CSC-like region, wherein step a. is performed on a tissue section of the colonic tumor sample, and wherein PTEN expression is PTEN protein expression or PTEN nucleic acid expression. a. assaying a colonic tumor sample for PTEN expression, b. detecting an alternating spatial pattern of PTEN expression in the colonic tumor sample, wherein the alternating spatial pattern comprises multifocal zones of loss of PTEN expression juxtaposed next to tumor cells with a normal pattern of PTEN expression, and c. identifying a cancer stem cell -like region of the colonic tumor where the alternating spatial pattern of PTEN expression is detected thereby indicating the presence of the CSC-like region, wherein step a. is performed on a tissue section of the colonic tumor sample, and wherein PTEN expression is PTEN protein expression or PTEN nucleic acid expression.
A cleaning composition, comprising a. water; b. 0.01 to 70 wt. % of one or more detergent surfactants; and c. 1-70 wt. % water immiscible second oil-based phase; and d. 0.1 to 6 wt. % of defibrillated primary cell wall material comprising microfibrils in the aqueous phase, wherein defibrillation is made by subjecting the primary cell wall material to high-shear selected from high pressure homogenisation at a pressure of between 500 and 2000 bar and microfluidising at a pressure of between 500 and 2000 bar; wherein the primary cell wall material is sourced from plant parenchymal tissue; at least 80 wt. % of the microfibrils is smaller than 50 nm in diameter. a. water; b. 0.01 to 70 wt. % of one or more detergent surfactants; and c. 1-70 wt. % water immiscible second oil-based phase; and d. 0.1 to 6 wt. % of defibrillated primary cell wall material comprising microfibrils in the aqueous phase, wherein defibrillation is made by subjecting the primary cell wall material to high-shear selected from high pressure homogenisation at a pressure of between 500 and 2000 bar and microfluidising at a pressure of between 500 and 2000 bar;