mhurhangee/ep-ind-claims huggingface dataset:
An engine operation control device for a hybrid vehicle, comprising: an engine provided in a vehicle; a power generator that is driven by the engine to generate electric power; a driving battery that is chargeable with electric power supplied from the power generator; a driving motor (4, 6) that drives drive wheels (3, 5) with electric power supplied from the driving battery or electric power supplied from the power generator; and a clutch that transmits or ceases to transmit power from the engine to the drive wheels, and allowing traveling in a series mode in which the driving motor (4, 6) drives the drive wheels (3, 5) while the engine is operated at a predetermined set rotational speed to cause the power generator to generate electric power, with the clutch disengaged, characterized in that the engine operation control device further comprises: an atmospheric pressure detection unit for detecting atmospheric pressure in a present position of the vehicle; and a setting unit for setting the set rotational speed and an output torque of the engine based on the atmospheric pressure detected by the atmospheric pressure detection unit in traveling in the series mode, and the setting unit increases the set rotational speed so as to compensate for a decrease in the maximum output torque of the engine with decreasing of the atmospheric pressure to ensure that the power generator generates required electric power, the engine operation control device further comprises a correction unit for correcting the rotational speed, and by setting the set rotational speed as Ns, the set rotational speed set in a standard state as Nsl, the set rotational speed being set with a highest altitude previously defined in the area of use of the vehicle as an operation environment as Nsh, and a maximum possible torque at an operation rotation speed divided by the larger of a standard state maximum torque and 1 as coefficient C, the correction unit makes a correction in the following expression: Ns = C × Nsl + 1 − C × Nsh.
A system for space-based imaging in three dimensions comprising: - at least two satellites (Sat1, Sat2) in a geocentric orbit in a same orbital plane, with an altitude equal or less than 2000 km, at least two of said satellites (Sat1, Sat2) being equipped with equipment for optical imaging in two dimensions and with means for transmitting to the ground images acquired in two dimensions in a configuration for stereoscopic acquisition between the satellites, - at least one data receiving station on the ground, connected to a communications network, - at least one centre for processing the images received in two dimensions from said satellites in order to create resulting images in three dimensions and to broadcast said resulting images in three dimensions, said processing centre being connected to said communications network, and - means for controlling said at least two of said satellites (Sat1, Sat2) designed to control said at least two of said satellites (Sat1, Sat2) such that a geographical area of the Earth of which images are to be taken is seen under an angle of incidence (α) with respect to a nadir greater than a minimum threshold (α min) and/or less than a maximum threshold (α max) by controlling said at least two satellites (Sat1, Sat2) in such a manner that the separation between said satellites allows observation of the area to be imaged at different or substantially identical times and by controlling said at least two satellites (Sat1, Sat2) at a roll angle and/or yaw angle and/or pitch angle. - at least two satellites (Sat1, Sat2) in a geocentric orbit in a same orbital plane, with an altitude equal or less than 2000 km, at least two of said satellites (Sat1, Sat2) being equipped with equipment for optical imaging in two dimensions and with means for transmitting to the ground images acquired in two dimensions in a configuration for stereoscopic acquisition between the satellites, - at least one data receiving station on the ground, connected to a communications network, - at least one centre for processing the images received in two dimensions from said satellites in order to create resulting images in three dimensions and to broadcast said resulting images in three dimensions, said processing centre being connected to said communications network, and - means for controlling said at least two of said satellites (Sat1, Sat2) designed to control said at least two of said satellites (Sat1, Sat2) such that a geographical area of the Earth of which images are to be taken is seen under an angle of incidence (α) with respect to a nadir greater than a minimum threshold (α min) and/or less than a maximum threshold (α max) by controlling said at least two satellites (Sat1, Sat2) in such a manner that the separation between said satellites allows observation of the area to be imaged at different or substantially identical times and by controlling said at least two satellites (Sat1, Sat2) at a roll angle and/or yaw angle and/or pitch angle.
A lock system comprising a first lock having a sensor (3, 4) to detect a tamper attempt on the first lock, said sensor (3, 4) triggering a sounder to output a first audible alarm, a transmitter for transmitting an alarm signal from the first lock to a second, nearby equivalent lock, and a receiver for receiving an alarm signal from a nearby, equivalent lock, the second lock having a transmitter for transmitting an alarm signal to a nearby, equivalent lock and a receiver for receiving the alarm signal from the first lock, characterised in that the second lock is operable such that a sounder thereof is triggered to output a second audible alarm upon the reception of the alarm signal from the first lock, the sounder being triggered to output a different alarm signal according to whether the alarm is triggered from the sensor (3, 4) on the lock or due to reception of an alarm signal from another lock.
An assembly comprising: a turbine housing (210, 410, 510, 610) that comprises a bore, a wastegate seat (226, 426, 526), wastegate passages (423-1, 423-2, 523-1, 523-2, 623-1, 623-2) that extend to the wastegate seat and a divider wall (519, 619) disposed between the wastegate passages wherein the divider wall comprises a divider wall surface (517, 617); a rotatable wastegate shaft (252, 652, 752, 920) configured for receipt by the bore; a wastegate arm (254, 654, 754, 940) extending from the wastegate shaft; and a wastegate plug (756, 960) extending from the wastegate arm; wherein the wastegate plug comprises a contact portion that contacts the wastegate seat to cover the wastegate passages in a closed state; characterised in that the wastegate plug comprises furthermore a mesh (790, 990) that contacts the divider wall surface in the closed state. a turbine housing (210, 410, 510, 610) that comprises a bore, a wastegate seat (226, 426, 526), wastegate passages (423-1, 423-2, 523-1, 523-2, 623-1, 623-2) that extend to the wastegate seat and a divider wall (519, 619) disposed between the wastegate passages wherein the divider wall comprises a divider wall surface (517, 617); a rotatable wastegate shaft (252, 652, 752, 920) configured for receipt by the bore; a wastegate arm (254, 654, 754, 940) extending from the wastegate shaft; and a wastegate plug (756, 960) extending from the wastegate arm; wherein the wastegate plug comprises a contact portion that contacts the wastegate seat to cover the wastegate passages in a closed state; characterised in that the wastegate plug comprises furthermore a mesh (790, 990) that contacts the divider wall surface in the closed state.
Shipping container for shipping temperature-sensitive goods to be transported, comprising container walls (4, 5), which surround and close off on all sides an interior space provided for receiving the goods to be transported, whereby the container walls (4, 5) have thermal insulation and whereby heat conducting plates are arranged in the interior space and/or delimiting the interior space, which heat conducting plates have a multilayer structure and comprise at least one layer of expanded graphite, characterized in that the heat conducting plates surround the interior space on all sides and without gaps, that the heat conducting plates have at least one carrier layer on which the layer of expanded graphite is arranged and that the at least one carrier layer consists of cardboard or plastic.
A method of controlling a speed of a variable-speed pump configured to provide coolant flow to a gear box cooler, the method comprising: • monitoring an amount of driveline torque produced by a vehicle; • determining a threshold amount of time based on the amount of driveline torque; and • in response to determining that the amount of driveline torque has exceeded a threshold amount of torque for at least the threshold amount of time, increasing a speed of the pump based on the amount of driveline torque, characterized in that the threshold amount of time is a first value when the amount of driveline torque is above an activation torque threshold and below a lower torque threshold, wherein the threshold amount of time decreases as the amount of driveline torque increases between the lower torque threshold and an upper torque threshold, and wherein the threshold amount of time is a second value when the amount of driveline torque is above the upper torque threshold. • monitoring an amount of driveline torque produced by a vehicle; • determining a threshold amount of time based on the amount of driveline torque; and • in response to determining that the amount of driveline torque has exceeded a threshold amount of torque for at least the threshold amount of time, increasing a speed of the pump based on the amount of driveline torque,
A system of mitigating force in a mechanical system, comprising: a frame member; a first rail connected to the frame member; a second rail connected to the frame member and extending in parallel to the first rail; an assembly movably engaging the first and second rails; a first bracket located between the first and second rails (510, 511), with at least one first bracket attachment secured to the frame member, the first bracket sharing an upper edge with a lower edge of the first rail, such that a downward force applied on the first rail is distributed to the first bracket and the frame member via the at least one first bracket attachment; and a second bracket located between the first and second rails (510, 511), with at least one second bracket attachment secured to the frame member, the second bracket sharing an upper edge with a lower edge of the first bracket and sharing a lower edge with an upper edge of the second rail, such that any force distributed to the first bracket is further distributed to the second bracket and the frame member via the at least one second bracket attachment. a frame member; a first rail connected to the frame member; a second rail connected to the frame member and extending in parallel to the first rail; an assembly movably engaging the first and second rails; a first bracket located between the first and second rails (510, 511), with at least one first bracket attachment secured to the frame member, the first bracket sharing an upper edge with a lower edge of the first rail, such that a downward force applied on the first rail is distributed to the first bracket and the frame member via the at least one first bracket attachment; and a second bracket located between the first and second rails (510, 511), with at least one second bracket attachment secured to the frame member, the second bracket sharing an upper edge with a lower edge of the first bracket and sharing a lower edge with an upper edge of the second rail, such that any force distributed to the first bracket is further distributed to the second bracket and the frame member via the at least one second bracket attachment.
A process for preparing a solid ozone storage material comprising contacting cyclodextrins and/or cyclodextrin derivatives in solid form with a gas comprising ozone, whereby a solid ozone storage material is obtained.
Conditioner and rheology modifier comprising i) from 60 to 90% by weight of a cationic galactomannan, or a cationic xyloglucan, having cationic degree of substitution between 0.01 and 3, ii) from 1% to 10% by weight of (2,3-dihydroxypropyl)trimethyl ammonium chloride, iii) less than 0.15% by weight of (3-chloro-2-hydroxypropyl)trimethyl ammonium chloride and iv) from 2 to 15% bv weight of ashes determined at 650°C.
A composition for use in producing myelin in a mammal suffering from or recovering from traumatic brain injury, comprising enterally administering to the subject a composition comprising therapeutically effective amounts of: (i) one or more of uridine, cytidine, or salts, phosphates, acyl derivatives or esters thereof; (ii) a lipid fraction comprising at least one of docosahexaenoic acid (22:6; DHA), eicosapentaenoic acid (20:5; EPA) and docosapentaenoic acid (22:5; DPA), preferably at least DHA, more preferably DHA and EPA, wherein the lipid fraction comprises less than 2 weight% of α-linolenic acid, calculated on the weight of all fatty acids; (iii) choline, or salts or esters thereof; (iv) vitamins B6, B9 and B12; and (v) vitamin C, vitamin E and selenium. (i) one or more of uridine, cytidine, or salts, phosphates, acyl derivatives or esters thereof; (ii) a lipid fraction comprising at least one of docosahexaenoic acid (22:6; DHA), eicosapentaenoic acid (20:5; EPA) and docosapentaenoic acid (22:5; DPA), preferably at least DHA, more preferably DHA and EPA, wherein the lipid fraction comprises less than 2 weight% of α-linolenic acid, calculated on the weight of all fatty acids; (iii) choline, or salts or esters thereof; (iv) vitamins B6, B9 and B12; and (v) vitamin C, vitamin E and selenium.
A method for operating a grasping device using a plurality of parallel, bi-directional state flow maps (302, 304) each defining a sequence of poses (S1, S2, S3, S4, S5, S6, S7) for a plurality of joints in the grasping device, the method comprising: receiving at least one control signal via one or more electromyogram signal channels; ascertaining whether the at least one control signal is a transition signal; determining (406, 407) a current pose of the grasping device within the one of the plurality of state flow maps currently selected for the grasping device; upon ascertaining that the at least one control signal is a transition signal and determining that the current pose is a transition pose within the one of the plurality of state flow maps, selecting a different one of the plurality of state flow maps for the grasping device; and selectively actuating the plurality of joints to traverse the sequence of poses for the one of the plurality of state maps currently selected, wherein a direction for traversing the sequence of poses is based on the at least one control signal, and wherein the transition signal is based on a discrete switching signal comprising a co-contraction of musculature as detected by the one or more electromyogram signal channels. receiving at least one control signal via one or more electromyogram signal channels; ascertaining whether the at least one control signal is a transition signal; determining (406, 407) a current pose of the grasping device within the one of the plurality of state flow maps currently selected for the grasping device; upon ascertaining that the at least one control signal is a transition signal and determining that the current pose is a transition pose within the one of the plurality of state flow maps, selecting a different one of the plurality of state flow maps for the grasping device; and selectively actuating the plurality of joints to traverse the sequence of poses for the one of the plurality of state maps currently selected, wherein a direction for traversing the sequence of poses is based on the at least one control signal, and wherein the transition signal is based on a discrete switching signal comprising a co-contraction of musculature as detected by the one or more electromyogram signal channels.
Lubricant grease composition comprising: a) 20% to 96.5% by weight, based on the total weight of the lubricant grease composition, of a main oil, where the main oil includes a base oil A in a proportion of at least 50% by weight based on the total weight of the main oil, where the base oil A is an ester and/or a polyglycol, preferably a polyglycol containing unsubstituted ethylene units as carbon group in the repeat unit, b) 0.5% to 80% by weight, based on the total weight of the lubricant grease composition, of an ionic liquid wherein the anion is bis(fluorosulfonyl)-imide, c) 3% to 35% by weight, based on the total weight of the lubricant grease composition, of a thickener selected from urea, simple lithium soaps, metal complex soaps of the elements of main groups 1 and 2 of the periodic table, especially lithium complex soaps and mixtures thereof. a) 20% to 96.5% by weight, based on the total weight of the lubricant grease composition, of a main oil, where the main oil includes a base oil A in a proportion of at least 50% by weight based on the total weight of the main oil, where the base oil A is an ester and/or a polyglycol, preferably a polyglycol containing unsubstituted ethylene units as carbon group in the repeat unit, b) 0.5% to 80% by weight, based on the total weight of the lubricant grease composition, of an ionic liquid wherein the anion is bis(fluorosulfonyl)-imide, c) 3% to 35% by weight, based on the total weight of the lubricant grease composition, of a thickener selected from urea, simple lithium soaps, metal complex soaps of the elements of main groups 1 and 2 of the periodic table, especially lithium complex soaps and mixtures thereof.
A device for sealing a leak in a vessel, the device comprising: a sealing member; means for locating the sealing member adjacent a leak in a vessel wall; and actuating means for pressing the sealing member against the vessel wall to seal the leak; the locating means comprising an elongate support member mountable within the vessel and at least one clamp adapted to engage sections of the vessel internal framework comprising projections extending from the vessel wall interior and the support member to hold the support member at a spaced position relative to the vessel wall, characterised in that the actuating means is mounted on the support member so that it can be positioned along the member and wherein the sealing member further comprises at least one guide member, wherein the or each guide member is engageable with a complementary receiving means provided on the actuating means, and wherein the at least one guide member comprises an elongate member with a slot and the receiving means comprises a projection, said projection being engageable within the slot such that the guide means moves along the receiving means.
A biopsy system for harvesting a target tissue, comprising: a. a needle having a tip disposed at a distal end of the needle for insertion into tissue, wherein a lumen is disposed in the needle; b. an aperture disposed at or near the distal end of the needle, said aperture fluidly connected to the lumen; and c. a cutting mechanism adapted to cut tissue, said cutting mechanism having at least a portion thereof disposed in or over the aperture; d. a mechanism for electrocauterizing contacting tissue; e. a mechanism for rotating the needle; f. a tissue collection chamber fluidly connected to a back end of the needle; and g. a sheath slidably disposed around an exterior surface of the needle, the sheath adapted to move between at least an open position where the aperture and cutting mechanism are exposed, and a closed position where the aperture and cutting mechanism are covered by the sheath; wherein when the needle, starting with the tip, is inserted into the target tissue and axially rotated via the rotation mechanism, the cutting mechanism cuts the tissue and directs said cut tissue into the aperture and further into the lumen, while contacting tissue is electrocauterized by the electrocauterization mechanism; and wherein the cut tissue is directed through the lumen, out of the back end of the needle to the tissue collection chamber. a. a needle having a tip disposed at a distal end of the needle for insertion into tissue, wherein a lumen is disposed in the needle; b. an aperture disposed at or near the distal end of the needle, said aperture fluidly connected to the lumen; and c. a cutting mechanism adapted to cut tissue, said cutting mechanism having at least a portion thereof disposed in or over the aperture; d. a mechanism for electrocauterizing contacting tissue; e. a mechanism for rotating the needle; f. a tissue collection chamber fluidly connected to a back end of the needle; and g. a sheath slidably disposed around an exterior surface of the needle, the sheath adapted to move between at least an open position where the aperture and cutting mechanism are exposed, and a closed position where the aperture and cutting mechanism are covered by the sheath; wherein when the needle, starting with the tip, is inserted into the target tissue and axially rotated via the rotation mechanism, the cutting mechanism cuts the tissue and directs said cut tissue into the aperture and further into the lumen, while contacting tissue is electrocauterized by the electrocauterization mechanism; and wherein the cut tissue is directed through the lumen, out of the back end of the needle to the tissue collection chamber. wherein when the needle, starting with the tip, is inserted into the target tissue and axially rotated via the rotation mechanism, the cutting mechanism cuts the tissue and directs said cut tissue into the aperture and further into the lumen, while contacting tissue is electrocauterized by the electrocauterization mechanism; and wherein the cut tissue is directed through the lumen, out of the back end of the needle to the tissue collection chamber.