mhurhangee/ep-ind-claims huggingface dataset:
A rail system, particularly for an electric pallet track, having a) a main line (2; 102) which comprises at least two stationary parallel rails (5, 6; 105, 106); b) at least two branch lines (3, 4; 103, 104) which form an angle and each have as many stationary parallel rails (7, 8, 9, 10; 107, 108, 109, 110) as the main line (2; 102); c) points arranged between the main line (2; 102) and the branch lines (3, 4; 103, 104), which comprise: ca) as many movable rail portions (12, 13, 14, 15; 112, 113, 114, 115) for each rail (5, 6; 105, 106) of the main line (2; 102) as there are branch lines (3, 4; 103, 104), which are capable of optionally connecting the rails (7, 8, 9, 10; 107, 108, 109, 110) of the different branch lines (3, 4; 103, 104) to the rails (5, 6; 105, 106) of the main line (2; 102) depending on their position; cb) at least one drive (28; 128) for moving the movable rail portions (12, 13, 14, 15; 112, 113, 114, 115); characterised in that d) the movable rail portions (12, 13, 14, 15; 112, 113, 114, 115) can each be pivoted about a stationary pivot axis (20, 21, 22, 23; 120, 121, 122, 123); e) the pivot axes (20, 21, 22, 23; 120, 121, 122, 123) are arranged outside the longitudinal extent of the associated movable rail portion (12, 13, 14, 15; 112, 113, 114, 115) at a spacing from its end. a) a main line (2; 102) which comprises at least two stationary parallel rails (5, 6; 105, 106); b) at least two branch lines (3, 4; 103, 104) which form an angle and each have as many stationary parallel rails (7, 8, 9, 10; 107, 108, 109, 110) as the main line (2; 102); c) points arranged between the main line (2; 102) and the branch lines (3, 4; 103, 104), which comprise: ca) as many movable rail portions (12, 13, 14, 15; 112, 113, 114, 115) for each rail (5, 6; 105, 106) of the main line (2; 102) as there are branch lines (3, 4; 103, 104), which are capable of optionally connecting the rails (7, 8, 9, 10; 107, 108, 109, 110) of the different branch lines (3, 4; 103, 104) to the rails (5, 6; 105, 106) of the main line (2; 102) depending on their position; cb) at least one drive (28; 128) for moving the movable rail portions (12, 13, 14, 15; 112, 113, 114, 115); ca) as many movable rail portions (12, 13, 14, 15; 112, 113, 114, 115) for each rail (5, 6; 105, 106) of the main line (2; 102) as there are branch lines (3, 4; 103, 104), which are capable of optionally connecting the rails (7, 8, 9, 10; 107, 108, 109, 110) of the different branch lines (3, 4; 103, 104) to the rails (5, 6; 105, 106) of the main line (2; 102) depending on their position; cb) at least one drive (28; 128) for moving the movable rail portions (12, 13, 14, 15; 112, 113, 114, 115); d) the movable rail portions (12, 13, 14, 15; 112, 113, 114, 115) can each be pivoted about a stationary pivot axis (20, 21, 22, 23; 120, 121, 122, 123); e) the pivot axes (20, 21, 22, 23; 120, 121, 122, 123) are arranged outside the longitudinal extent of the associated movable rail portion (12, 13, 14, 15; 112, 113, 114, 115) at a spacing from its end.
An imaging optical system, consisting of, in order from an object side toward an image side: a first lens being a meniscus lens with a positive refractive power, the first lens having a convex surface facing the object side, and at least one of two surfaces thereof having an aspherical shape; a second lens being a biconvex lens, and at least one of two surfaces having an aspherical shape; a third lens being a meniscus lens with a negative refractive power, the third lens having a convex surface facing the object side, and at least one of two surfaces having an aspherical shape; a fourth lens being a meniscus lens, the fourth lens having a convex surface or a concave surface facing the object side, and at least one of two surfaces having an aspherical shape; a fifth lens having on the optical axis a concave surface facing the object side, and at least one of two surfaces having an aspherical shape; and a sixth lens having on the optical axis a convex surface facing the image side, and at least one of two surfaces having an aspherical shape, wherein the imaging optical system satisfies the following conditions and: 0.23 < Y / f < 0.29 0.9 < TTL / f < 1.0 wherein Y is a maximal image height, f is a focal length of the overall imaging optical system, and TTL is a total track length. a first lens being a meniscus lens with a positive refractive power, the first lens having a convex surface facing the object side, and at least one of two surfaces thereof having an aspherical shape; a second lens being a biconvex lens, and at least one of two surfaces having an aspherical shape; a third lens being a meniscus lens with a negative refractive power, the third lens having a convex surface facing the object side, and at least one of two surfaces having an aspherical shape; a fourth lens being a meniscus lens, the fourth lens having a convex surface or a concave surface facing the object side, and at least one of two surfaces having an aspherical shape; a fifth lens having on the optical axis a concave surface facing the object side, and at least one of two surfaces having an aspherical shape; and a sixth lens having on the optical axis a convex surface facing the image side, and at least one of two surfaces having an aspherical shape, wherein the imaging optical system satisfies the following conditions and: 0.23 < Y / f < 0.29 0.9 < TTL / f < 1.0 wherein Y is a maximal image height, f is a focal length of the overall imaging optical system, and TTL is a total track length.
A monoclonal antibody, or recombinant antibody or antibody fragment derived therefrom and binding the antigen, capable of binding to a luteinizing hormone, characterized in that the variable domain of the heavy chain contains the following CDRs: - VH-CDR1, defined by the sequence GYTFTNYW (SEQ ID NO: 13); - VH-CDR2, defined by the sequence IYPGGGYT (SEQ ID NO: 14) - VH-CDR3, defined by the sequence ARTPLYGSSYGGFAY (SEQ ID NO: 15); and the variable domain of the lightweight chain contains the following CDRs: - VL-CDR1, defined by the sequence QGISNY (SEQ ID NO: 16); - VL-CDR2, defined by the sequence YTS; - VL-CDR3, defined by the sequence QQYSKLPWT(SEQ ID NO: 17). - VH-CDR1, defined by the sequence GYTFTNYW (SEQ ID NO: 13); - VH-CDR2, defined by the sequence IYPGGGYT (SEQ ID NO: 14) - VH-CDR3, defined by the sequence ARTPLYGSSYGGFAY - VL-CDR1, defined by the sequence QGISNY (SEQ ID NO: 16); - VL-CDR2, defined by the sequence YTS; - VL-CDR3, defined by the sequence QQYSKLPWT(SEQ ID NO: 17).
A vehicle power source apparatus comprising: a driving battery to be mounted in a vehicle; an auxiliary apparatus battery arranged to supply electric power to an auxiliary apparatus of the vehicle, and wherein a negative side of the auxiliary battery is to be grounded; a DC power conversion unit in a case and arranged to supply electric power from the driving battery to the auxiliary apparatus battery; a control unit arranged to control the DC power conversion unit; a first connection means that connects the driving battery with the DC power conversion unit and is protected by a shield, wherein the shield is electrically connected to the case of the DC power conversion unit, and the shield is to be grounded; a second connection means that connects the DC power conversion unit with the negative side of the auxiliary apparatus battery; and a detection means (3, 20) arranged to detect a connection abnormality in the second connection means, wherein the control unit is arranged to control the output of the DC power conversion unit so that the detection means (3, 20) does not detect a connection abnormality. a driving battery to be mounted in a vehicle; an auxiliary apparatus battery arranged to supply electric power to an auxiliary apparatus of the vehicle, and wherein a negative side of the auxiliary battery is to be grounded; a DC power conversion unit in a case and arranged to supply electric power from the driving battery to the auxiliary apparatus battery; a control unit arranged to control the DC power conversion unit; a first connection means that connects the driving battery with the DC power conversion unit and is protected by a shield, wherein the shield is electrically connected to the case of the DC power conversion unit, and the shield is to be grounded; a second connection means that connects the DC power conversion unit with the negative side of the auxiliary apparatus battery; and a detection means (3, 20) arranged to detect a connection abnormality in the second connection means, wherein the control unit is arranged to control the output of the DC power conversion unit so that the detection means (3, 20) does not detect a connection abnormality.
Vehicle, especially a guided missile with a rocket engine, with a reel system (26a, 26b, 26c) disposed at the rear, comprising an underwater reel (30a, 30b, 30c) with at least one spindle (34a, 34b, 34c) and at least one winding package (36a, 36b, 36c), which is provided for withdrawal during underwater travel of the vehicle, an air reel (28a, 28b, 28c) with at least one spindle (34a, 34b, 34c) and at least one winding package (38a, 38b, 38c), which is provided for a subsequent airborne withdrawal up to a target and for remaining on the vehicle until then, and a continuous data line that is wound on both reels (28a, 28b, 28c, 30a, 30b, 30c), characterized in that the underwater reel (30a, 30b, 30c) is attached at the rear, and to the air reel (28a, 28b, 28c), so as to be secure against being dropped, so that both reels (28a, 28b, 28c, 30a, 30b, 30c) remain on the vehicle.
An apparatus for checking the operational condition of an electronic sensor element which measures a physical quantity, comprising testing means adapted to providing a test deflection, corresponding to a specific change in the measured physical quantity, in the measurement signal produced by the sensor element and by a measuring circuit connected thereto, characterized in that the testing means comprise a testing circuit which is galvanically separated from the measuring circuit and includes a light source (5a, 5b), and a light-sensitive component (6a, 6b) connected to the measuring circuit for receiving a light signal (7a, 7b) emitted by the light source and adapted to provide in the measurement signal a test deflection proportional to the light signal.
A whipstock assembly (400, 500), comprising: a whipstock providing a ramped surface and a longitudinal groove defined in the ramped surface; a lead mill coupled to the whipstock with a shear bolt and having a slot defined therein; and a torque key movable between an extended position, where the torque key is partially positioned within both the slot and the longitudinal groove, and a retracted position, where the torque key retracts into the slot, wherein, when in the extended position, the torque key prevents the lead mill from rotating with respect to the whipstock. a whipstock providing a ramped surface and a longitudinal groove defined in the ramped surface; a lead mill coupled to the whipstock with a shear bolt and having a slot defined therein; and a torque key movable between an extended position, where the torque key is partially positioned within both the slot and the longitudinal groove, and a retracted position, where the torque key retracts into the slot, wherein, when in the extended position, the torque key prevents the lead mill from rotating with respect to the whipstock.
A vehicle control system, characterized in that it comprises: a first vehicle control unit comprising a first processor installed with a real-time OS; and a second vehicle control unit comprising a multiple-core processor comprising a first core forming a second processor installed with a real-time OS, a second core (20b, 20c, 20d) forming a third processor installed with a multimedia OS and a memory shared between said first and second cores; a first communication line connecting said first processor to said first core; a second communication line connecting said first core to said second core; wherein a communication function processed by the real-time OS of the first processor and a first communication function processed by the real-time OS of the first core are configured to perform communication between the first vehicle control unit and the second vehicle control unit over the first communication line, and a second inter-core communication function processed by the real-time OS of the first core and an inter-core communication function processed by the multimedia OS of the second core (20b, 20c, 20d) are configured to perform communication between the first core and the second core (20b, 20c, 20d) over the second communication line. a first vehicle control unit comprising a first processor installed with a real-time OS; and a second vehicle control unit comprising a multiple-core processor comprising a first core forming a second processor installed with a real-time OS, a second core (20b, 20c, 20d) forming a third processor installed with a multimedia OS and a memory shared between said first and second cores; a first communication line connecting said first processor to said first core; a second communication line connecting said first core to said second core; wherein a communication function processed by the real-time OS of the first processor and a first communication function processed by the real-time OS of the first core are configured to perform communication between the first vehicle control unit and the second vehicle control unit over the first communication line, and a second inter-core communication function processed by the real-time OS of the first core and an inter-core communication function processed by the multimedia OS of the second core (20b, 20c, 20d) are configured to perform communication between the first core and the second core (20b, 20c, 20d) over the second communication line.
A core-coil assembly, comprising: a core column (102L, 102C, 102R) of a core assembly; and a first coil received about the core column (102L, 102C, 102R) and forming a gap; characterized by an expandable sealing member (116a - 116n) including a cavity sealing the gap between the core column (102L, 102C, 102R) and the first coil, wherein the expandable sealing member is configured to be expanded by material being filled into the cavity of the expandable sealing member to fill the gap dimension between the core column (102L, 102C, 102R) and the first coil, thereby sealing the gap. a core column (102L, 102C, 102R) of a core assembly; and a first coil received about the core column (102L, 102C, 102R) and forming a gap; characterized by an expandable sealing member (116a - 116n) including a cavity sealing the gap between the core column (102L, 102C, 102R) and the first coil, wherein the expandable sealing member is configured to be expanded by material being filled into the cavity of the expandable sealing member to fill the gap dimension between the core column (102L, 102C, 102R) and the first coil, thereby sealing the gap.
A signal measurement method, comprising: receiving, by a user equipment, configuration information of a downlink reference signal, wherein the configuration information of the downlink reference signal is used to indicate air interface sending information of the downlink reference signal, a time-frequency resource location occupied by the downlink reference signal is configurable by a network side device; receiving, by the user equipment, the downlink reference signal, wherein the downlink reference signal is generated based on the configuration information of the downlink reference signal; receiving, by the user equipment, a synchronization signal; obtaining a first measurement result through measurement based on the downlink reference signal when the user equipment is located in a preset edge area; obtaining a second measurement result through measurement based on the synchronization signal when the user equipment is located in a preset center area; and sending (206, 404), by the user equipment, the first measurement result and the second measurement result. receiving, by a user equipment, configuration information of a downlink reference signal, wherein the configuration information of the downlink reference signal is used to indicate air interface sending information of the downlink reference signal, a time-frequency resource location occupied by the downlink reference signal is configurable by a network side device; receiving, by the user equipment, the downlink reference signal, wherein the downlink reference signal is generated based on the configuration information of the downlink reference signal; receiving, by the user equipment, a synchronization signal; obtaining a first measurement result through measurement based on the downlink reference signal when the user equipment is located in a preset edge area; obtaining a second measurement result through measurement based on the synchronization signal when the user equipment is located in a preset center area; and sending (206, 404), by the user equipment, the first measurement result and the second measurement result.
Process for manufacturing a plastic fuel tank equipped with a pump, by moulding a tubular parison cut into two sheets with the aid of a mould comprising two cavities and a core, said process characterised by comprising the following steps: 1. the parison is introduced into the mould cavities; 2. the core is introduced inside the parison, said core having first been fitted with a swirl pot comprising a housing for the pump; 3. the mould is closed so that the cavities corne into leaktight contact with the core; 4. the parison is pressed against the cavities by blowing through the core and/or applying a vacuum behind the cavities; 5. using a device firmly attached to the core, the swirl pot is fastened to the parison; 6. the mould is opened to withdraw the core; 7. the final moulding of the parison is carried out by blow moulding (by injecting a pressurized fluid inside the parison) and/or thermoforming (by applying a vacuum behind the cavities); and 8. the tank is demoulded and through an opening in the latter the pump is mounted in the housing of the swirl pot, wherein the tank is in the form of a saddle tank comprising a main pouch where the swirl pot is located and at least one secondary pouch, and wherein the swirl pot is fed by two jet pumps: one sucking up fuel in the main pouch, and the other being located in the secondary pouch and enabling fuel in this pouch to be transferred to the top of the swirl pot (i.e. into its cover) via a line known as a transfer line which is also fastened to the tank when it is being moulded, the swirl pot being provided with a relief into which the end of the transfer line may slide. 1. the parison is introduced into the mould cavities; 2. the core is introduced inside the parison, said core having first been fitted with a swirl pot comprising a housing for the pump; 3. the mould is closed so that the cavities corne into leaktight contact with the core; 4. the parison is pressed against the cavities by blowing through the core and/or applying a vacuum behind the cavities; 5. using a device firmly attached to the core, the swirl pot is fastened to the parison; 6. the mould is opened to withdraw the core; 7. the final moulding of the parison is carried out by blow moulding (by injecting a pressurized fluid inside the parison) and/or thermoforming (by applying a vacuum behind the cavities); and 8. the tank is demoulded and through an opening in the latter the pump is mounted in the housing of the swirl pot,
A savoury composite food product comprising at least 35 wt.% of gel pieces having a mesh size in the range of 0.2-10 mm; 0.2-55 wt.% of tissue-based food particles having a mesh size in the range of 0.2-10 mm; at least 2 wt.% of lipophilic material covering said gel pieces and said tissue-based food particles; said savoury composite food product having the following composition: • 20-75 wt.% water; • 2-30 wt.% of oil; • 0.1-40 wt.% of taste contributing components selected from glutamic acid, 5'-ribonucleotides, sucrose, glucose, fructose, lactose, lactic acid, citric acid, acetic acid and combinations thereof; • 0.5-20% by weight of water of gelling agent; • 35-1100 mmol per 100 g of food product of alkalimetal cation selected from Na +, K + and combinations thereof. • 20-75 wt.% water; • 2-30 wt.% of oil; • 0.1-40 wt.% of taste contributing components selected from glutamic acid, 5'-ribonucleotides, sucrose, glucose, fructose, lactose, lactic acid, citric acid, acetic acid and combinations thereof; • 0.5-20% by weight of water of gelling agent; • 35-1100 mmol per 100 g of food product of alkalimetal cation selected from Na +, K + and combinations thereof.
An information transmission method, comprising: receiving at least one precoding configuration from an access network device; starting a timer; and sending uplink information to the access network device on a configured grant-free time-frequency resource in valid duration of the timer by using the at least one precoding configuration, characterized in that if the timer is invalid, traversing a plurality of preset precoding configurations by using a preset granularity of a frequency domain resource unit, to determine the precoding configuration corresponding to each frequency domain resource unit of the grant-free time-frequency resource, where two adjacent frequency domain resource units in the grant-free time-frequency resource correspond to different precoding configurations. receiving at least one precoding configuration from an access network device; starting a timer; and sending uplink information to the access network device on a configured grant-free time-frequency resource in valid duration of the timer by using the at least one precoding configuration, characterized in that if the timer is invalid, traversing a plurality of preset precoding configurations by using a preset granularity of a frequency domain resource unit, to determine the precoding configuration corresponding to each frequency domain resource unit of the grant-free time-frequency resource, where two adjacent frequency domain resource units in the grant-free time-frequency resource correspond to different precoding configurations.
Matrix (30; 130) for a heat exchanger between a first fluid and a second fluid, notably a matrix (30; 130) for a heat exchanger of a turbomachine, the matrix comprising: a channel for a first fluid; an array extending in the channel and within which flows the second fluid; the array support at least two fins (38; 40; 138; 140) arranged one behind the other in the direction of the flow of the first fluid, notably cooling fins; said fins (38; 40; 138; 140) being flat and extending in the first fluid along main directions that are inclined relative to one another around an axis that is parallel to the direction of flow (20; 120) of the first fluid, characterized in that each fin comprises two opposite ends, both being connected to the array. a channel for a first fluid; an array extending in the channel and within which flows the second fluid; the array support at least two fins (38; 40; 138; 140) arranged one behind the other in the direction of the flow of the first fluid, notably cooling fins; said fins (38; 40; 138; 140) being flat and extending in the first fluid along main directions that are inclined relative to one another around an axis that is parallel to the direction of flow (20; 120) of the first fluid, characterized in that each fin comprises two opposite ends, both being connected to the array.