mhurhangee/ep-ind-claims huggingface dataset:
An electric walk behind greens mower, comprising: a traction drum supporting the mower, and split into a left drum and a right drum; a pair of electric traction drive motors on the mower including a first electric traction drive motor rotating the left drum and a second electric traction drive motor rotating the right drum; and a pair of control levers mounted on a handle of the mower including a left control lever controlling the rotational speed of the second electric traction drive motor and a right control lever controlling the rotational speed of the first electric traction drive motor; characterized in that the mower includes: an electronic controller, a proximity sensor to determine the location of the mower relative to the edge of the green, and an automated clean-up pass feature in which the electronic controller on the mower is configured to control the speed of the first electric traction drive motor and the second electric traction drive motor in response to signals the controller receives from the proximity sensor. a traction drum supporting the mower, and split into a left drum and a right drum; a pair of electric traction drive motors on the mower including a first electric traction drive motor rotating the left drum and a second electric traction drive motor rotating the right drum; and a pair of control levers mounted on a handle of the mower including a left control lever controlling the rotational speed of the second electric traction drive motor and a right control lever controlling the rotational speed of the first electric traction drive motor; characterized in that the mower includes: an electronic controller, a proximity sensor to determine the location of the mower relative to the edge of the green, and an automated clean-up pass feature in which the electronic controller on the mower is configured to control the speed of the first electric traction drive motor and the second electric traction drive motor in response to signals the controller receives from the proximity sensor. an electronic controller, a proximity sensor to determine the location of the mower relative to the edge of the green, and an automated clean-up pass feature in which the electronic controller on the mower is configured to control the speed of the first electric traction drive motor and the second electric traction drive motor in response to signals the controller receives from the proximity sensor.
A unit for use with a removable toner cartridge of an image forming device, comprising: a housing having a reservoir for holding toner; an inlet port positioned to receive toner from the toner cartridge, the inlet port being connected to the reservoir to allow the toner received from the toner cartridge to enter the reservoir; a shutter slidably movable between a closed position blocking the inlet port and an open position unblocking the inlet port; and a biasing member (236,238) biasing the shutter toward the closed position; characterized by that the shutter includes a first engagement surface positioned to receive a first engagement member of the toner cartridge to begin to move the shutter from the closed position to the open position as the toner cartridge is inserted in the image forming device and a second engagement surface positioned to receive a second engagement member of the toner cartridge to move the shutter a remaining distance to the open position as the toner cartridge is inserted further in the image forming device, wherein the first engagement surface is positioned at an edge of the shutter nearest the toner cartridge when the toner cartridge is inserted in the image forming device, with the first engagement surface including a lip formed at the edge of the shutter, and wherein the second engagement surface is positioned on an arm extending from the shutter, with the arm extending from the shutter orthogonal to the direction of sliding movement of the shutter. a housing having a reservoir for holding toner; an inlet port positioned to receive toner from the toner cartridge, the inlet port being connected to the reservoir to allow the toner received from the toner cartridge to enter the reservoir; a shutter slidably movable between a closed position blocking the inlet port and an open position unblocking the inlet port; and a biasing member (236,238) biasing the shutter toward the closed position; characterized by that the shutter includes a first engagement surface positioned to receive a first engagement member of the toner cartridge to begin to move the shutter from the closed position to the open position as the toner cartridge is inserted in the image forming device and a second engagement surface positioned to receive a second engagement member of the toner cartridge to move the shutter a remaining distance to the open position as the toner cartridge is inserted further in the image forming device, wherein the first engagement surface is positioned at an edge of the shutter nearest the toner cartridge when the toner cartridge is inserted in the image forming device, with the first engagement surface including a lip formed at the edge of the shutter, and wherein the second engagement surface is positioned on an arm extending from the shutter, with the arm extending from the shutter orthogonal to the direction of sliding movement of the shutter.
A stabilizing treatment system of livestock landfill through in situ underground combustion for disposing swine carcasses, cow carcasses and poultry carcasses buried in a landfill, comprising: a heat-insulating rainwater barrier for shielding rainwater; a leachate and gas vacuum extracting treatment device for treating the leachate and gas from the heat-insulating rainwater barrier by vacuum extraction; a carcass combustion treatment device for combusting the livestock carcasses buried in the landfill; a monitoring device for monitoring underground livestock carcasses buried in the landfill; and an installation facility support for supporting the above devices in a stable way, wherein the carcass combustion treatment device has a plurality of heat-generating rods depending on the areas to be treated, and a generator connected to the heat-generating rods, such that the carcass combustion treatment device dries the moisture, blood and oil components of the carcasses by providing heat through the heat-generating rods and oxidizes the carcasses. a heat-insulating rainwater barrier for shielding rainwater; a leachate and gas vacuum extracting treatment device for treating the leachate and gas from the heat-insulating rainwater barrier by vacuum extraction; a carcass combustion treatment device for combusting the livestock carcasses buried in the landfill; a monitoring device for monitoring underground livestock carcasses buried in the landfill; and an installation facility support for supporting the above devices in a stable way, wherein the carcass combustion treatment device has a plurality of heat-generating rods depending on the areas to be treated, and a generator connected to the heat-generating rods, such that the carcass combustion treatment device dries the moisture, blood and oil components of the carcasses by providing heat through the heat-generating rods and oxidizes the carcasses.
Method for injection-moulding a device, in particular a cable tie, with an integrated wireless tag, comprising the method steps of: a) Putting a tagging foil with two main surfaces (9a, 9b) which are separated by an edge, into a mould cavity of an open mould, where the tagging foil is held in place by a supporting device; b) Closing the mould; c) Injecting an injection material into mould cavity parts (14a, 14b), which are part of the mould cavity, adjoining the two main surfaces (9a, 9b) of the tagging foil simultaneously and symmetrically with respect to a main extension plane of the tagging foil which is parallel to the two main surfaces (9a, 9b) of the tagging foil, wherein the device with the integrated wireless tag is formed with a single injection step. a) Putting a tagging foil with two main surfaces (9a, 9b) which are separated by an edge, into a mould cavity of an open mould, where the tagging foil is held in place by a supporting device; b) Closing the mould; c) Injecting an injection material into mould cavity parts (14a, 14b), which are part of the mould cavity, adjoining the two main surfaces (9a, 9b) of the tagging foil simultaneously and symmetrically with respect to a main extension plane of the tagging foil which is parallel to the two main surfaces (9a, 9b) of the tagging foil,
Drilling tool for drilling a well downhole where fluid is surrounding the tool and where the tool has a housing and is connected to an electrical conducting means, such as a wireline, comprising: - a drilling head, - a pump for pumping the fluid in through an inlet in the tool, - a driving unit for driving the pump and the drilling head, and - a fluid cleaner for removal of elements, such as debris and formation pieces, from the fluid while drilling downhole, wherein the fluid cleaner has - a chamber, and - a filter within the chamber for separation of the elements from the fluid, wherein the pump pumps the fluid into the chamber through the inlet into the chamber inlets and through the filter past a gear connection 12 through which the driving unit is connected to the drilling head into the pump and out through an outlet of the housing of the tool, and wherein the inlet is positioned in the drilling head. - a drilling head, - a pump for pumping the fluid in through an inlet in the tool, - a driving unit for driving the pump and the drilling head, and - a fluid cleaner for removal of elements, such as debris and formation pieces, from the fluid while drilling downhole, wherein the fluid cleaner has - a chamber, and - a filter within the chamber for separation of the elements from the fluid, wherein the pump pumps the fluid into the chamber through the inlet into the chamber inlets and through the filter past a gear connection 12 through which the driving unit is connected to the drilling head into the pump and out through an outlet of the housing of the tool, and wherein the inlet is positioned in the drilling head. - a chamber, and - a filter within the chamber for separation of the elements from the fluid, wherein the pump pumps the fluid into the chamber through the inlet into the chamber inlets and through the filter past a gear connection 12 through which the driving unit is connected to the drilling head into the pump and out through an outlet of the housing of the tool, and wherein the inlet is positioned in the drilling head.
A combustion engine having an engine which has a cylinder head and a cylinder housing, and with a cooling system that comprises a coolant channel of the cylinder head and a coolant channel of the cylinder housing, wherein the coolant channel of the cylinder housing is integrated in the cooling system at least partially parallel to the cooling channel of the cylinder head, and wherein a flow through the cooling channel of the cylinder housing can be regulated by means of a (first) expandable material thermostatic valve whose temperature-dependent control of the volumetric flow requires a pilot flow of the coolant through the cooling channel of the cylinder housing, wherein an influencing device by means of which such a pilot flow of the coolant for the (first) expansion material thermostatic valve can be blocked or released is associated with said (first) expansion material thermostatic valve, characterized in that the influencing device comprises a heating device for the (first) expansion material thermostatic valve, and/or in that the influencing device comprises a second expansion material thermostatic valve.
An electromechanical generator for converting mechanical vibrational energy into electrical energy, the electromechanical generator comprising a housing, an electrically conductive coil assembly fixedly mounted in the housing, a magnetic core assembly movably mounted in the housing for linear vibrational motion along an axis, and a first biasing device (82, 84), mounted between the housing and the magnetic core assembly, adapted to apply a centering force acting to oppose movement of the magnetic core assembly away from a central position on the linear axis, characterised by a second magnetic biasing device (200, 202) adapted to provide a compensating force to compensate for variations in the centering force of the first biasing device (82, 84) due to temperature, wherein the second magnetic biasing device (200, 202) is adapted to apply a magnetic compensating force to the magnetic core assembly when the magnetic core assembly is displaced from the central position, and such that under a rest condition, when the electromechanical generator is not excited by mechanical vibrational energy, the second magnetic biasing device (200, 202) exerts no magnetic compensating force on the magnetic core assembly, and wherein the second biasing device is fixedly mounted in the housing and the coil assembly and the second biasing device (200, 202) are fixed to a central element, mounted in the housing, extending along the axis.
A patient litter basket spin control assembly comprising: a first gyroscope (40, 351), comprising a first flywheel, disposed, in use, at a first end of a patient litter basket; a second gyroscope, comprising a second flywheel, disposed, in use, at a second end of a patient litter basket; a motion sensor; a controller associated with the first gyroscope and configured to activate the first gyroscope by rotating the first flywheel about a first flywheel rotation axis and to activate the second gyroscope by rotating the second flywheel about a second flywheel rotation axis to generate a gyroscopic torque as a counter torque in a rotational direction to slow the angular acceleration of the patient litter basket, in use, in response to the motion sensor detecting an angular acceleration of the patient litter basket beyond a predetermined threshold angular accelerator; and a power source associated with the first gyroscope. a first gyroscope (40, 351), comprising a first flywheel, disposed, in use, at a first end of a patient litter basket; a second gyroscope, comprising a second flywheel, disposed, in use, at a second end of a patient litter basket; a motion sensor; a controller associated with the first gyroscope and configured to activate the first gyroscope by rotating the first flywheel about a first flywheel rotation axis and to activate the second gyroscope by rotating the second flywheel about a second flywheel rotation axis to generate a gyroscopic torque as a counter torque in a rotational direction to slow the angular acceleration of the patient litter basket, in use, in response to the motion sensor detecting an angular acceleration of the patient litter basket beyond a predetermined threshold angular accelerator; and a power source associated with the first gyroscope.
Internal combustion engine having at least one cylinder, comprising - at least one cylinder head, and - a liquid cooling arrangement which has at least two coolant jackets (2, 8) integrated in the cylinder head, with each cylinder having, at the outlet side, at least one outlet opening for discharging the exhaust gases, and at the inlet side, at least one inlet opening for the supply of fresh air, with, in the cylinder head, at least one coolant jacket being arranged at the outlet side and at least one coolant jacket being arranged at the inlet side, and with said at least two coolant jackets (2, 8) being separate from one another and belonging to different, separate coolant circuits, characterized in that - the at least one outlet-side coolant jacket belongs to a cooling water circuit, whereas the at least one inlet-side coolant jacket belongs to an oil circuit. - at least one cylinder head, and - a liquid cooling arrangement which has at least two coolant jackets (2, 8) integrated in the cylinder head, with each cylinder having, at the outlet side, at least one outlet opening for discharging the exhaust gases, and at the inlet side, at least one inlet opening for the supply of fresh air, with, in the cylinder head, at least one coolant jacket being arranged at the outlet side and at least one coolant jacket being arranged at the inlet side, and with said at least two coolant jackets (2, 8) being separate from one another and belonging to different, separate coolant circuits, - the at least one outlet-side coolant jacket belongs to a cooling water circuit, whereas the at least one inlet-side coolant jacket belongs to an oil circuit.
Method for producing an excavation pit enclosure in the ground, in which a groundwater table is given, wherein in the ground a ring-shaped cut-off wall is produced which extends from a ground surface to a predetermined depth lying below the groundwater table, and inside the ring-shaped cut-off wall in a lower region located below the groundwater table a sealing base is produced by injecting a sealing medium, wherein by the ring-shaped cut-off wall and the sealing base a sealed basin is formed in the ground, characterized in that - groundwater from the ground inside the sealed basin is pumped out up to a groundwater level of a defined compression level which lies below the groundwater table and above the sealing base, - in that the groundwater in the sealed basin is kept on this compression level for a predetermined period of time which amounts to at least 8 hours, wherein the sealing base is compressed in a targeted manner due to the groundwater pressure applied from below, and - in that subsequently the groundwater level in the sealed basin is raised to a final level which lies above the compression level and below the groundwater table. in the ground a ring-shaped cut-off wall is produced which extends from a ground surface to a predetermined depth lying below the groundwater table, and inside the ring-shaped cut-off wall in a lower region located below the groundwater table a sealing base is produced by injecting a sealing medium, wherein by the ring-shaped cut-off wall and the sealing base a sealed basin is formed in the ground, characterized in that - groundwater from the ground inside the sealed basin is pumped out up to a groundwater level of a defined compression level which lies below the groundwater table and above the sealing base, - in that the groundwater in the sealed basin is kept on this compression level for a predetermined period of time which amounts to at least 8 hours, wherein the sealing base is compressed in a targeted manner due to the groundwater pressure applied from below, and - in that subsequently the groundwater level in the sealed basin is raised to a final level which lies above the compression level and below the groundwater table. - groundwater from the ground inside the sealed basin is pumped out up to a groundwater level of a defined compression level which lies below the groundwater table and above the sealing base, - in that the groundwater in the sealed basin is kept on this compression level for a predetermined period of time which amounts to at least 8 hours, wherein the sealing base is compressed in a targeted manner due to the groundwater pressure applied from below, and - in that subsequently the groundwater level in the sealed basin is raised to a final level which lies above the compression level and below the groundwater table.
A method for cutting a plate-shaped workpiece resting on a workpiece support by means of a cutting jet and a cutting fluid, wherein a workpiece part to be cut free is successively cut into at least two smaller partial pieces (11, 12) which, after their respective free cutting point, fall downwards or are lowered out of a surrounding residual workpiece, characterized in that, the division into the partial pieces (11, 12) and the cutting guide for separating off the first partial piece are carried out in such a way that the free-cutting point of the first partial piece, which was cut first, lies within the outer contour of the workpiece part to be cut free, and in that the free-cutting point of the first partial piece lies within a radius around the center of gravity of the first partial piece, wherein the circular area bounded by the radius occupies less than 1/3 of the total area of the first partial piece, and/or that the free-cutting point of the first partial piece lies in the center of gravity of the workpiece part to be cut free, in the center of gravity of the first partial piece or in the area between these two centers of gravity (16, 18). the division into the partial pieces (11, 12) and the cutting guide for separating off the first partial piece are carried out in such a way that the free-cutting point of the first partial piece, which was cut first, lies within the outer contour of the workpiece part to be cut free, and in that the free-cutting point of the first partial piece lies within a radius around the center of gravity of the first partial piece, wherein the circular area bounded by the radius occupies less than 1/3 of the total area of the first partial piece, and/or that the free-cutting point of the first partial piece lies in the center of gravity of the workpiece part to be cut free, in the center of gravity of the first partial piece or in the area between these two centers of gravity (16, 18).
A portable communication device, comprising: a first housing structure; a second housing structure rotatable between a first position in which the second housing structure is folded to face the first housing structure, and a second position in which the second housing structure is unfolded in parallel with a side of the first housing structure; a hinge structure rotatably coupling the first housing structure and the second housing structure; a hinge cover disposed between the first housing structure and the second housing structure to cover the hinge structure; a display including: a first portion disposed in the first housing structure, a second portion disposed in the second housing structure, and a folding portion provided between the first portion and the second portion and disposed corresponding to the hinge cover; characterised in that at least one sealing member (183, 481a, 481b) is mounted on the hinge cover, the at least one sealing member (183, 481a, 481b) having its bottom or side attached to the hinge cover, and the at least one sealing member (183, 481a, 481b) being configured to contact an end of two opposite ends of the folding portion at an edge of the display to prevent accumulation of foreign bodies between the hinge cover and the display. a first housing structure; a second housing structure rotatable between a first position in which the second housing structure is folded to face the first housing structure, and a second position in which the second housing structure is unfolded in parallel with a side of the first housing structure; a hinge structure rotatably coupling the first housing structure and the second housing structure; a hinge cover disposed between the first housing structure and the second housing structure to cover the hinge structure; a display including: a first portion disposed in the first housing structure, a second portion disposed in the second housing structure, and a folding portion provided between the first portion and the second portion and disposed corresponding to the hinge cover; a first portion disposed in the first housing structure, a second portion disposed in the second housing structure, and a folding portion provided between the first portion and the second portion and disposed corresponding to the hinge cover; characterised in that at least one sealing member (183, 481a, 481b) is mounted on the hinge cover, the at least one sealing member (183, 481a, 481b) having its bottom or side attached to the hinge cover, and the at least one sealing member (183, 481a, 481b) being configured to contact an end of two opposite ends of the folding portion at an edge of the display to prevent accumulation of foreign bodies between the hinge cover and the display.