mhurhangee/ep-ind-claims huggingface dataset:
Cargo holding device for the temporary fastening of pieces of luggage, particularly of trunks, side boxes or bags, on a motor bicycle, with - a first receiving knob with a knob axis and for permanent fixing to a motor bicycle, - a basic body for permanent fixing to a piece of luggage, -- wherein the basic body forms a first slit with an undercut on both sides, wherein the first end of the first slit is formed open and the second end closed, and -- wherein the first receiving knob can be inserted in a form locking manner transversely with relation to its knob axis from the first end until the second end into the first slit, - wherein the cargo holding device has a locking element, which is mounted rotatably on the basic body around a rotational axis, which is directed parallel to the knob axis of the first receiving knob, and which has a locking section with which the locking element in a locking position can be brought into engagement with the first receiving knob and the first receiving knob can be stopped at the second end of the slit, characterised in that the locking section has a recess with which the first receiving knob in the locking position can be encompassed together with the second end of the first slit in a form locking manner. - a first receiving knob with a knob axis and for permanent fixing to a motor bicycle, - a basic body for permanent fixing to a piece of luggage, -- wherein the basic body forms a first slit with an undercut on both sides, wherein the first end of the first slit is formed open and the second end closed, and -- wherein the first receiving knob can be inserted in a form locking manner transversely with relation to its knob axis from the first end until the second end into the first slit, -- wherein the basic body forms a first slit with an undercut on both sides, wherein the first end of the first slit is formed open and the second end closed, and -- wherein the first receiving knob can be inserted in a form locking manner transversely with relation to its knob axis from the first end until the second end into the first slit, - wherein the cargo holding device has a locking element, which is mounted rotatably on the basic body around a rotational axis, which is directed parallel to the knob axis of the first receiving knob, and which has a locking section with which the locking element in a locking position can be brought into engagement with the first receiving knob and the first receiving knob can be stopped at the second end of the slit,
A connector comprising: - a female body having a longitudinal axis comprising a first body portion and a second body portion arranged to communicate to define a receiving chamber for receipt of a male engaging member; - at least one retaining clip for retaining a male engaging member in the receiving chamber, the at least one retaining clip being moveable between an open configuration for receipt of a male engaging member and a closed configuration for restraining movement of a male engaging member in the longitudinal axis; wherein the first and second body portions are arranged to pivotally retain the at least one retaining clip therebetween, characterised in that the at least one clip comprises a first body engagement element or recess for rotatably mounting to the other of a corresponding recess or body engagement element in the first body portion for resisting movement in the longitudinal axis of the first body portion and a second body engagement element or recess for rotatably mounting to the other of a corresponding recess or body engagement element for resisting movement in the longitudinal axis of the second body portion. - a female body having a longitudinal axis comprising a first body portion and a second body portion arranged to communicate to define a receiving chamber for receipt of a male engaging member; - at least one retaining clip for retaining a male engaging member in the receiving chamber, the at least one retaining clip being moveable between an open configuration for receipt of a male engaging member and a closed configuration for restraining movement of a male engaging member in the longitudinal axis;
A pneumatic evacuation pump including: an inlet assembly having an inlet valve interposed between an inlet accepting material from a material supply and a charging port and selectively operable purge air injection means located on the charging port side of said inlet valve; a chamber of selectable length and substantially constant cross section and having a charge end opening to said charging port and a discharge end; and a delivery assembly having a passage opening to said discharge end and extending to a delivery outlet, a delivery valve interposed in said passage between said discharge end and said delivery outlet, a selectively operable, venturi vacuum source opening to said passage between said delivery valve and said discharge end, and selectively operable exhaust air injection means located downstream of said delivery valve and utilizing exhaust air from said venturi vacuum source, a compressed air supply supplying said venturi vacuum source and said purge air injection means; and control means acting to coordinate a cycle of operation of said venturi vacuum source, said purge air injection means, said exhaust air injection means and said inlet and delivery valves (15, 24). an inlet assembly having an inlet valve interposed between an inlet accepting material from a material supply and a charging port and selectively operable purge air injection means located on the charging port side of said inlet valve; a chamber of selectable length and substantially constant cross section and having a charge end opening to said charging port and a discharge end; and a delivery assembly having a passage opening to said discharge end and extending to a delivery outlet, a delivery valve interposed in said passage between said discharge end and said delivery outlet, a selectively operable, venturi vacuum source opening to said passage between said delivery valve and said discharge end, and selectively operable exhaust air injection means located downstream of said delivery valve and utilizing exhaust air from said venturi vacuum source, a compressed air supply supplying said venturi vacuum source and said purge air injection means; and control means acting to coordinate a cycle of operation of said venturi vacuum source, said purge air injection means, said exhaust air injection means and said inlet and delivery valves (15, 24).
Operating unit comprising: - at least one tool for performing a machining on a workpiece having at least one flat surface, wherein during machining there is a relative supplying movement between said tool and the workpiece in a supplying direction parallel to the flat surface of the workpiece; - a copying device for following a profile of the workpiece being machined, said at least one tool being guided by said copying device to take up a desired position with respect to the workpiece being machined, said copying device having at least two feeling wheels that are able to interact in contact with the flat surface of the workpiece being machined; wherein said copying device comprises a movable supporting element on which said at least two feeling wheels are rotatably mounted, said supporting element being guided to perform movements with at least a first motion component perpendicular to the flat surface of the workpiece and at least a second motion component parallel to said supplying direction; characterized in that said supporting element comprises a contact surface that is flat and parallel to the flat surface of the workpiece, said tool being carried by supporting means having at least one contact element arranged in a sliding resting relationship in contact on said contact surface, said contact surface having the function of being a reference element to enable said tool to assume a preset machining position in relation to the workpiece being machined - at least one tool for performing a machining on a workpiece having at least one flat surface, wherein during machining there is a relative supplying movement between said tool and the workpiece in a supplying direction parallel to the flat surface of the workpiece; - a copying device for following a profile of the workpiece being machined, said at least one tool being guided by said copying device to take up a desired position with respect to the workpiece being machined, said copying device having at least two feeling wheels that are able to interact in contact with the flat surface of the workpiece being machined;
A terminal protection device for a battery module, wherein the battery module comprises multiple unit cells, and the terminal protection device comprises: a base, comprising a bottom portion and a side plate connected to a peripheral side of the bottom portion, the side plate defining a receiving cavity together with the bottom portion and being provided with an input port through which an output terminal passes, and the input port being in communication with the receiving cavity, wherein the side plate is provided with an access port, the access port is in communication with the receiving cavity so that an external electrical connector is able to pass through the access port and be connected with the output terminal, a protection plate is disposed at the access port, and the protection plate is disposed to detachably cover the access port, wherein the output terminal is an output terminal of the battery module, and is used to connect with the external electrical connector to achieve interconnection between multiple battery modules when the multiple battery modules are connected to each other, and wherein the side plate comprises sliding slots extending in a third direction on inner surfaces facing the access port; and the protection plate comprises a body portion and sliding plates located on two opposite edges of the body portion, and the sliding plates are movable relative to the sliding slots, so that the protection plate is detachably disposed in the sliding slots through the sliding plates. a base, comprising a bottom portion and a side plate connected to a peripheral side of the bottom portion, the side plate defining a receiving cavity together with the bottom portion and being provided with an input port through which an output terminal passes, and the input port being in communication with the receiving cavity, wherein the side plate is provided with an access port, the access port is in communication with the receiving cavity so that an external electrical connector is able to pass through the access port and be connected with the output terminal, a protection plate is disposed at the access port, and the protection plate is disposed to detachably cover the access port, wherein the output terminal is an output terminal of the battery module, and is used to connect with the external electrical connector to achieve interconnection between multiple battery modules when the multiple battery modules are connected to each other, and wherein the side plate comprises sliding slots extending in a third direction on inner surfaces facing the access port; and the protection plate comprises a body portion and sliding plates located on two opposite edges of the body portion, and the sliding plates are movable relative to the sliding slots, so that the protection plate is detachably disposed in the sliding slots through the sliding plates.
An optical fiber cable comprising: a buffer tube substantially present along a longitudinal axis, the buffer tube encloses a plurality of optical fibers (104a-104d); a first layer surrounding the buffer tube; a second layer surrounding the first layer, the first layer and the second layer provide a kink resistance, a crush resistance and a flexibility to the optical fiber cable; and one or more strength members (135a-b) embedded inside the second layer, wherein the buffer tube is dry and the buffer tube is made of a low smoke zero halogen material, the second layer is made of a thermoplastic polyurethane material, each of the one or more strength members (135a-b) is coated with a layer of ethylene acrylic acid (140a-b), the layer of ethylene acrylic acid (140a-b) prevents slipping of the one or more strength members (135a-b) from the second layer, the optical fiber cable has a cable weight of 52 kilogram/kilometer, the optical fiber cable has a kink diameter of 25 millimeters, the optical fiber cable has a crush resistance of 2000 Newton/10000 millimeter 2 and the optical fiber cable has a packing density of 50 percent. a buffer tube substantially present along a longitudinal axis, the buffer tube encloses a plurality of optical fibers (104a-104d); a first layer surrounding the buffer tube; a second layer surrounding the first layer, the first layer and the second layer provide a kink resistance, a crush resistance and a flexibility to the optical fiber cable; and one or more strength members (135a-b) embedded inside the second layer, wherein the buffer tube is dry and the buffer tube is made of a low smoke zero halogen material, the second layer is made of a thermoplastic polyurethane material, each of the one or more strength members (135a-b) is coated with a layer of ethylene acrylic acid (140a-b), the layer of ethylene acrylic acid (140a-b) prevents slipping of the one or more strength members (135a-b) from the second layer, the optical fiber cable has a cable weight of 52 kilogram/kilometer, the optical fiber cable has a kink diameter of 25 millimeters, the optical fiber cable has a crush resistance of 2000 Newton/10000 millimeter 2 and the optical fiber cable has a packing density of 50 percent.
A power plant coupled with a power grid, the power plant comprising: a wind farm including a plurality of wind turbines configured to generate power for the power grid; an energy storage system including a rechargeable battery configured to be selectively charged by the wind turbines or the power grid and configured to be selectively discharged to the power grid; and a controller coupled in communication with the energy storage system and in communication with the plurality of wind turbines at the wind farm, the controller being configured to implement a first algorithm to dynamically compute a first consumed battery life for the battery, the controller being configured to use a battery life curve characteristic of the battery as a first input to the first algorithm and a state of charge profile as a second input to the first algorithm, the controller being configured to implement a second algorithm to dynamically compute a second consumed battery life for the battery, the controller being configured to use the battery life curve and the state of charge profile in the computation of the second consumed battery life, and the controller being configured to computationally combine the first consumed battery life and the second consumed battery life to determine a data-fused consumed battery life. a wind farm including a plurality of wind turbines configured to generate power for the power grid; an energy storage system including a rechargeable battery configured to be selectively charged by the wind turbines or the power grid and configured to be selectively discharged to the power grid; and a controller coupled in communication with the energy storage system and in communication with the plurality of wind turbines at the wind farm, the controller being configured to implement a first algorithm to dynamically compute a first consumed battery life for the battery, the controller being configured to use a battery life curve characteristic of the battery as a first input to the first algorithm and a state of charge profile as a second input to the first algorithm, the controller being configured to implement a second algorithm to dynamically compute a second consumed battery life for the battery, the controller being configured to use the battery life curve and the state of charge profile in the computation of the second consumed battery life, and the controller being configured to computationally combine the first consumed battery life and the second consumed battery life to determine a data-fused consumed battery life.
A cable, comprising: a cable core, including, two first insulated pairs of conductors, wherein each conductor is surrounded by an insulation layer; two second insulated pairs (312, 414) of conductors, wherein each conductor is surrounded by an insulation layer; a barrier layer (320, 420) disposed on and surrounding each first insulated pair of conductors, said barrier layer being non-conductive; a first shielding layer (330, 430) surrounding each barrier layer on said first insulated pairs of conductors, said first shielding layer (330, 430) being conductive; and a second shielding layer (350, 450) extending alongside each first insulated pair of conductors and being only partially wrapped around each second insulated pair (312, 414) of conductors, said second shielding layer (350, 450) being conductive; and an overall jacket (340, 440) surrounding all first and second (312, 414) insulated pairs of conductors and said second shielding layer (350, 450). two first insulated pairs of conductors, wherein each conductor is surrounded by an insulation layer; two second insulated pairs (312, 414) of conductors, wherein each conductor is surrounded by an insulation layer; a barrier layer (320, 420) disposed on and surrounding each first insulated pair of conductors, said barrier layer being non-conductive; a first shielding layer (330, 430) surrounding each barrier layer on said first insulated pairs of conductors, said first shielding layer (330, 430) being conductive; and a second shielding layer (350, 450) extending alongside each first insulated pair of conductors and being only partially wrapped around each second insulated pair (312, 414) of conductors, said second shielding layer (350, 450) being conductive; and an overall jacket (340, 440) surrounding all first and second (312, 414) insulated pairs of conductors and said second shielding layer (350, 450).
A system for controlling soil moisture in a plurality of potted plants to perform water deficit experiments, the system comprising: a stationary platform having a plurality of openings formed therein, the openings being located in a plurality of rows on the platform; a plurality of pots located in the plurality of openings in the platform, the pots being supported by the platform; a movable lower gantry located below the platform, the movable lower gantry supporting a plurality of load cell modules aligned with the plurality of pots located in a row of openings, each load cell module including a load cell having a support movable from a retracted position spaced apart from a bottom surface of a pot to an extended position in which the support of the load cell lifts the pot upwardly to support the weight of the pot thereon, the load cell weighing the lifted pot; a controller coupled to the load cell, the controller being programmed to determine whether the pots need watering based on the weights of the pots and the water deficit experiment; and a water supply coupled to the load cell modules, the water supply including at least one flow control valve (120, 122) controlled by the controller to selectively supply water, characterized in that water is supplied to the pots through the load cell modules. a stationary platform having a plurality of openings formed therein, the openings being located in a plurality of rows on the platform; a plurality of pots located in the plurality of openings in the platform, the pots being supported by the platform; a movable lower gantry located below the platform, the movable lower gantry supporting a plurality of load cell modules aligned with the plurality of pots located in a row of openings, each load cell module including a load cell having a support movable from a retracted position spaced apart from a bottom surface of a pot to an extended position in which the support of the load cell lifts the pot upwardly to support the weight of the pot thereon, the load cell weighing the lifted pot; a controller coupled to the load cell, the controller being programmed to determine whether the pots need watering based on the weights of the pots and the water deficit experiment; and a water supply coupled to the load cell modules, the water supply including at least one flow control valve (120, 122) controlled by the controller to selectively supply water, characterized in that water is supplied to the pots through the load cell modules.
A turbine engine system, comprising: a gear train with an axial centerline; and a gutter disposed radially outside of the axial centerline, the gutter including an inner surface at least partially defining an axial bore in which the gear train is arranged; and a channel that receives fluid directed out of the gear train, the channel extending radially into the gutter from the inner surface, and circumferentially to a channel outlet, wherein the bore has a cross-sectional bore area, characterised in that the channel has a cross-sectional channel area that is substantially equal to or less than two percent of the bore area, and wherein: at least a portion of the channel has a cross-sectional channel geometry formed by an inner region and an outer region located radially outboard of the inner region; and the inner region has a substantially rectangular geometry, and the outer region has a substantially triangular geometry. a gear train with an axial centerline; and a gutter disposed radially outside of the axial centerline, the gutter including an inner surface at least partially defining an axial bore in which the gear train is arranged; and a channel that receives fluid directed out of the gear train, the channel extending radially into the gutter from the inner surface, and circumferentially to a channel outlet, an inner surface at least partially defining an axial bore in which the gear train is arranged; and a channel that receives fluid directed out of the gear train, the channel extending radially into the gutter from the inner surface, and circumferentially to a channel outlet, wherein the bore has a cross-sectional bore area, characterised in that the channel has a cross-sectional channel area that is substantially equal to or less than two percent of the bore area, and wherein: at least a portion of the channel has a cross-sectional channel geometry formed by an inner region and an outer region located radially outboard of the inner region; and the inner region has a substantially rectangular geometry, and the outer region has a substantially triangular geometry. at least a portion of the channel has a cross-sectional channel geometry formed by an inner region and an outer region located radially outboard of the inner region; and the inner region has a substantially rectangular geometry, and the outer region has a substantially triangular geometry.