mhurhangee/ep-ind-claims huggingface dataset:
Vapor pump for automotive applications, in particular a purge pump for venting a fuel vapor accumulator comprising a housing group including at least a pump housing with a pump chamber and a motor housing with a motor chamber, wherein the pump housing has an inlet opening and an outlet opening, wherein a pumping wheel is provided in the pump chamber, wherein the pump wheel is mounted on a rotor shaft for rotation therewith, wherein a drive motor with a motor stator, a motor rotor and a motor control unit is provided in the motor chamber, wherein the motor rotor is connected with the rotor shaft for rotation therewith, and wherein a contact plug is provided for electric connection of the motor control unit, characterized in that the pumping wheel is provided in the pump chamber for pumping fuel vapor from the inlet opening to the outlet opening and the pumping wheel is made at least in part from an electrically conductive plastic material and the rotor shaft is made from an electrically conductive material, wherein the rotor shaft is rotatably supported in an electrically conductive bearing arrangement which is electrically connected either indirectly or directly with the contact plug via conducting means. characterized in that the pumping wheel is provided in the pump chamber for pumping fuel vapor from the inlet opening to the outlet opening and the pumping wheel is made at least in part from an electrically conductive plastic material and the rotor shaft is made from an electrically conductive material, wherein the rotor shaft is rotatably supported in an electrically conductive bearing arrangement which is electrically connected either indirectly or directly with the contact plug via conducting means.
A method performed by a computer for blocking command content from being executed by a scripting engine (104, 118), comprising: identifying a host process having first managed code that executes under management of a run-time code manager; injecting an unmanaged interface module (112, 124) into the host process, wherein the unmanaged interface module comprises unmanaged code; detecting, by the unmanaged interface module (112, 124), loading of a target software component by the host process; injecting, by the unmanaged interface module (112, 124) in response to detecting the loading of the target software component, a managed interface module into the host process, the managed interface module comprising second managed code that executes under the management of the run-time code manager, the managed interface module being configured to intercept the command content before its execution by the scripting engine (104, 118); communicating an intercepted command from the managed interface module, through the unmanaged interface module (112, 124), and to a threat detection component, wherein the threat detection component (110, 112) is installed as a kernel-mode component; communicating a reply from the threat detection component, through the unmanaged interface module (112, 124), to the managed interface module, wherein the reply is to block the intercepted command; and preventing, by the managed interface module in response to the reply, the intercepted command from being executed by the scripting engine. identifying a host process having first managed code that executes under management of a run-time code manager; injecting an unmanaged interface module (112, 124) into the host process, wherein the unmanaged interface module comprises unmanaged code; detecting, by the unmanaged interface module (112, 124), loading of a target software component by the host process; injecting, by the unmanaged interface module (112, 124) in response to detecting the loading of the target software component, a managed interface module into the host process, the managed interface module comprising second managed code that executes under the management of the run-time code manager, the managed interface module being configured to intercept the command content before its execution by the scripting engine (104, 118); communicating an intercepted command from the managed interface module, through the unmanaged interface module (112, 124), and to a threat detection component, wherein the threat detection component (110, 112) is installed as a kernel-mode component; communicating a reply from the threat detection component, through the unmanaged interface module (112, 124), to the managed interface module, wherein the reply is to block the intercepted command; and preventing, by the managed interface module in response to the reply, the intercepted command from being executed by the scripting engine.
A method for manufacturing a magnesium fluoride sintered compact (ds), the method comprising: filling a magnesium fluoride powder material into a die by tapping; and performing pulsed electric current sintering for sintering the filled magnesium fluoride powder material while applying a pulsed electric current thereto, to obtain a magnesium fluoride sintered compact, wherein the heating rate of the die is 1°C/min to 7°C/min. filling a magnesium fluoride powder material into a die by tapping; and performing pulsed electric current sintering for sintering the filled magnesium fluoride powder material while applying a pulsed electric current thereto, to obtain a magnesium fluoride sintered compact, wherein the heating rate of the die is 1°C/min to 7°C/min.
A flexural pivot (100, 200), comprising: three flexure support members (110, 120, 130), each flexure support member having a plurality of flexure openings (150, 151; 250, 251) defined at least partially by a cantilevered extension portion (152-154; 252-254), the flexure openings extending through outer side surfaces of the flexure support members; and at least one flexure (140a-d) operable to rotatably couple the plurality of flexure support members (110, 120, 130) to one another, the at least one flexure (140a-d) comprising first and second flexible blades (141; 241) arranged in a cross configuration, wherein the first and second flexible blades (141; 241) are disposed in the flexure openings (150, 151; 250, 251) of the flexure support members (110, 120, 130) and ends of the flexible blades are exposed through the outer side surfaces of the flexure support members (110, 120, 130), and the cantilevered extension portions, at least in part, couple the first and second flexible blades (141; 241) to the flexure support members (110, 120, 130), wherein ends of the flexible blades (141; 241) are joined to the cantilevered extension portions (152-154; 252-254) at outer side surfaces of the flexure support members (110, 120, 130), wherein a first flexure support member and a second flexure support member are configured to be rotatable relative to one another about a first axis, and the second flexure support member and a third flexure support member are configured to be rotatable relative to one another about a second axis, and wherein the first and second axes are perpendicular to one another.
A motor, comprising: a fixing plate; a circuit substrate (20, 120, 220) mounted on an upper surface of the fixing plate; a stator unit mounted at a side of the upper surface of the fixing plate and wound with a lead wire; a rotary unit arranged to relatively rotate with respect to the stator unit; and a lead wire fixing portion (21, 121, 221A, 221B) provided on a major surface (20a, 120a, 220a) of the circuit substrate (20, 120, 220) and arranged to fix the lead wire extending from the stator unit, characterized in that an escape portion (25, 125, 225A, 225B) to allow the blade edges of a cutting tool to retreat in the thickness direction of the circuit substrate is provided along the lead wire fixing portion (21, 121, 221A, 221B) at a side of the major surface (20a, 120a, 220a) of the circuit substrate (20, 120, 220) and at a side distant from the stator unit on the basis of an extension direction of the lead wire, the escape portion including a through-hole or a hole having a predetermined depth or a cutout (222A, 222B) extending from an outer peripheral edge of the circuit substrate; the lead wire has a cut end positioned above the escape portion (25, 125, 225A, 225B); and the lead wire can be cut in a state in which the tip of the cutting tool is retreated into the escape portion. a fixing plate; a circuit substrate (20, 120, 220) mounted on an upper surface of the fixing plate; a stator unit mounted at a side of the upper surface of the fixing plate and wound with a lead wire; a rotary unit arranged to relatively rotate with respect to the stator unit; and a lead wire fixing portion (21, 121, 221A, 221B) provided on a major surface (20a, 120a, 220a) of the circuit substrate (20, 120, 220) and arranged to fix the lead wire extending from the stator unit, characterized in that an escape portion (25, 125, 225A, 225B) to allow the blade edges of a cutting tool to retreat in the thickness direction of the circuit substrate is provided along the lead wire fixing portion (21, 121, 221A, 221B) at a side of the major surface (20a, 120a, 220a) of the circuit substrate (20, 120, 220) and at a side distant from the stator unit on the basis of an extension direction of the lead wire, the escape portion including a through-hole or a hole having a predetermined depth or a cutout (222A, 222B) extending from an outer peripheral edge of the circuit substrate; the lead wire has a cut end positioned above the escape portion (25, 125, 225A, 225B); and the lead wire can be cut in a state in which the tip of the cutting tool is retreated into the escape portion.
An animal watering valve comprising: a housing having an upstream end, a downstream end, and a longitudinal bore formed therein and extending from the upstream end to the downstream end; a valve element and a valve actuator located at least in part in the bore; and a sintered plug disposed in the bore upstream of the valve element, characterized in that the length of the sintered plug is 2-8 mm, and in that the sintered plug has a lattice structure extending along said length of 2-8mm. a housing having an upstream end, a downstream end, and a longitudinal bore formed therein and extending from the upstream end to the downstream end; a valve element and a valve actuator located at least in part in the bore; and a sintered plug disposed in the bore upstream of the valve element, characterized in that the length of the sintered plug is 2-8 mm, and in that the sintered plug has a lattice structure extending along said length of 2-8mm.
An agricultural baler comprising: a main bale chamber for the compressing of crop material into bales, having an outlet for the discharge of compressed crop material in the form of bales; needles coupled to the main bale chamber, the needles are for the threading of twine through the main bale chamber around a formed bale; knotters for receiving the twine from the needles and for tying the twine; a triggering system for the triggering of the actions of the needles and the knotters; a knotter lock for the manual locking of the triggering system thereby preventing the needles and the knotters from being triggered; and a monitoring system having a single sensor that provides a signal indicating at least a normal operation of the knotters; characterized in that t he agricultural baler further comprising a blow-off mechanism for directing a flow of air at the knotters and/or an end of the needles; and t he single sensor further provides a signal indicating at least an engagement of the knotter lock; and indicating a time to trigger the blow-off mechanism to direct a flow of air at the knotters and/or at an end of the needles for a predetermined amount of time. a main bale chamber for the compressing of crop material into bales, having an outlet for the discharge of compressed crop material in the form of bales; needles coupled to the main bale chamber, the needles are for the threading of twine through the main bale chamber around a formed bale; knotters for receiving the twine from the needles and for tying the twine; a triggering system for the triggering of the actions of the needles and the knotters; a knotter lock for the manual locking of the triggering system thereby preventing the needles and the knotters from being triggered; and a monitoring system having a single sensor that provides a signal indicating at least a normal operation of the knotters; t he agricultural baler further comprising a blow-off mechanism for directing a flow of air at the knotters and/or an end of the needles; and t he single sensor further provides a signal indicating at least an engagement of the knotter lock; and indicating a time to trigger the blow-off mechanism to direct a flow of air at the knotters and/or at an end of the needles for a predetermined amount of time. indicating at least an engagement of the knotter lock; and indicating a time to trigger the blow-off mechanism to direct a flow of air at the knotters and/or at an end of the needles for a predetermined amount of time.
Refrigeration device (102, 104), with an ice dispenser or a water dispenser, which has an actuating lever (210, 310), and with a light source in the light-emitting direction of the light source disposed by an air gap at a distance from a light-coupling surface of the actuating lever (210, 310), wherein the actuating lever (210, 310) is able to be hinged between a first position and a second position, wherein the light-coupling surface is embodied such that in the first position and in the second position the degree of coupling-in of the light emitted from the light source is of equal size, characterised in that the light-coupling surface is a surface of a prism section of the actuating lever (210,310).
Optical unit for a motor vehicle signalling and/or lighting device, comprising: - at least one light source, in particular an LED, - at least one card carrying the light source, this card comprising an electrical circuit for supplying the light source, - a light guide produced at least partially from a material in which the light can propagate, this guide being arranged so as to receive light coming from the light source and to guide this light, the optical unit being characterised by the fact that the light guide comprises a main body with an elongate shape along a predetermined curvilinear axis, and a lug extending transversely to this predetermined direction, and the optical unit comprises a cowl fixed by snapping on the light guide and arranged to receive the card, the cowl comprising at least one snap-on lug arranged to cooperate with the transverse lug of the light guide. - at least one light source, in particular an LED, - at least one card carrying the light source, this card comprising an electrical circuit for supplying the light source, - a light guide produced at least partially from a material in which the light can propagate, this guide being arranged so as to receive light coming from the light source and to guide this light,
A method of manufacturing an austenitic iron alloy comprising placing austenitic iron alloy powder in a can, evacuating air and other gases from the can, supplying nitrogen gas into the can, sealing the can and then hot isostatically pressing the austenitic iron alloy powder in the can to diffuse the nitrogen into the austenitic iron alloy powder and to produce a nitrogen enriched austenitic iron alloy bar and removing the can from the nitrogen enriched austenitic iron alloy bar, characterized in that the nitrogen enriched austenitic iron alloy consists of 12 to 41wt% chromium, 7 to 9wt% manganese, 4 to 5wt% silicon, 4 to 6wt% nickel, up to 2.5wt% carbon, less than 0.2wt% nitrogen and the balance iron plus incidental impurities.
Filling system, comprising a filling device and a container arrangement used in the filling device, wherein the container arrangement comprises: - a hose-like main line which comprises a feed line, which is connected with a reservoir container and equipped with a pump, and a trunk line arranged downstream of the feed line in linear connection, and - a plurality of destination containers (110, 110') which are each connected with the trunk line by way of a respective hose-like connecting line (108, 108'), and wherein the filling device comprises: - a support frame for individual mounting of the destination containers (110, 110'), - a valve support with a plurality of valves, comprising a plurality, which corresponds with the plurality of destination containers (110, 110'), of destination container valves (210, 210'), by each of which a respective volume flow through a respective one of the connecting lines (108, 108') is controllable, wherein at a branch point in the region of the feed line a branch line branches off the feed line and the feed line and the branch line on the side of the branch point remote from the trunk line pass through a double-valve arrangement with two hose clamping valves (214a, 214b) controllable in opposite sense to one another, in which one is inserted in the feed line and the other is inserted in the branch line, characterised in that the branch point is arranged on the side of the pump at the trunk line and the branch line leads to a source of pressurised gas. - a hose-like main line which comprises a feed line, which is connected with a reservoir container and equipped with a pump, and a trunk line arranged downstream of the feed line in linear connection, and - a plurality of destination containers (110, 110') which are each connected with the trunk line by way of a respective hose-like connecting line (108, 108'), - a support frame for individual mounting of the destination containers (110, 110'), - a valve support with a plurality of valves, comprising a plurality, which corresponds with the plurality of destination containers (110, 110'), of destination container valves (210, 210'), by each of which a respective volume flow through a respective one of the connecting lines (108, 108') is controllable, wherein at a branch point in the region of the feed line a branch line branches off the feed line and the feed line and the branch line on the side of the branch point remote from the trunk line pass through a double-valve arrangement with two hose clamping valves (214a, 214b) controllable in opposite sense to one another, in which one is inserted in the feed line and the other is inserted in the branch line, characterised in that the branch point is arranged on the side of the pump at the trunk line and the branch line leads to a source of pressurised gas.
A window and/or lamp washer system (100; 200) for a vehicle comprising; a washer fluid container; a washer fluid pump arranged in fluid communication with said washer fluid container; at least one washer fluid pressure tank (108; 202) for storing pressurized fluid, arranged in fluid communication with said washer fluid pump by fluid connecting means, and comprising a fluid inlet for receiving pressurized fluid from said washer fluid pump and at least one fluid outlet for providing pressurized fluid in the form of a washer fluid jet; sensor means (114; 204) arranged to provide a signal representing the measured pressure within said at least one washer fluid pressure tank (108; 202); a control unit connected to said sensor means (114; 204) and said washer fluid pump, and arranged to receive said signal; characterized in that said control unit is configured to operate said washer fluid pump based on said signal, whereby the control unit is configured such that a signal indicating a pressure below a predetermined value operates said washer fluid pump to pump washer fluid from said washer fluid container to said at least one washer fluid pressure tank (108; 202) and increase the pressure in said at least one washer fluid pressure tank (108; 202).
A lock comprising a mounting including a flange for attachment to a frame, a bore; and an elongate hasp arranged to be seated within the bore, the hasp having an eye at a protruding end of the hasp for locking a door with a padlock, the hasp being rotatable with respect to the mounting, so that in the event of a blow to body of the padlock, the padlock and hasp will rotate to absorb the force; wherein the bore extends generally parallel to the flange, the hasp being arranged to protrude through a through-hole in a door that lies substantially at right angles to the frame, and the hasp being of generally cylindrical form and being rotatable about a longitudinal axis of the hasp.
A three-dimensional memory device, comprising: an alternating stack of insulating layers and electrically conductive layers located over a substrate (9, 10); a memory stack structure vertically extending through the alternating stack, wherein the memory stack structure comprises a memory film that contains a vertical stack of memory elements located at levels of the electrically conductive layers, and a vertical semiconductor channel that contacts the memory film; and: a stressor pillar structure (162, 262, 62) located on a side of the vertical semiconductor channel, wherein: the stressor pillar structure (162, 262, 62) applies a vertical tensile stress to the vertical semiconductor channel; a lateral extent of the stressor pillar structure (162, 262, 62) is defined by at least one vertical dielectric sidewall surface that provides a closed periphery around the stressor pillar structure (162, 262, 62); the stressor pillar structure (162, 262, 62) consists of a stressor material and does not include any solid or liquid material therein other than the stressor material; and the stressor material is selected from a dielectric metal oxide material, silicon nitride deposited under stress, thermal silicon oxide, or a semiconductor material having a greater lattice constant than that of the vertical semiconductor channel. an alternating stack of insulating layers and electrically conductive layers located over a substrate (9, 10); a memory stack structure vertically extending through the alternating stack, wherein the memory stack structure comprises a memory film that contains a vertical stack of memory elements located at levels of the electrically conductive layers, and a vertical semiconductor channel that contacts the memory film; and: a stressor pillar structure (162, 262, 62) located on a side of the vertical semiconductor channel, wherein: the stressor pillar structure (162, 262, 62) applies a vertical tensile stress to the vertical semiconductor channel; a lateral extent of the stressor pillar structure (162, 262, 62) is defined by at least one vertical dielectric sidewall surface that provides a closed periphery around the stressor pillar structure (162, 262, 62); the stressor pillar structure (162, 262, 62) consists of a stressor material and does not include any solid or liquid material therein other than the stressor material; and the stressor material is selected from a dielectric metal oxide material, silicon nitride deposited under stress, thermal silicon oxide, or a semiconductor material having a greater lattice constant than that of the vertical semiconductor channel.