mhurhangee/ep-ind-claims huggingface dataset:
A cooling system comprising: • a first sheet steel item having • a first surface configured to accommodate one or more objects to be cooled, and • a second surface joined to a first surface of • a second steel sheet item forming a shell, wherein at least one of the second surface of the first sheet steel item and the first surface of the second sheet steel item have been formed to produce one or more conduits for forming one or more channels, whereby said joining forms said channels for coolant in a space between the second surface of the first sheet steel item and the first surface of the second steel sheet, said channels comprising • one or more inlet manifolds for coolant, • a number of outlet manifolds for coolant, wherein the number of outlet manifolds is equal to one more than the one or more inlet manifolds, and partial circuits connecting the inlet manifolds to the outlet manifolds, each partial circuit connecting to one inlet manifold and one outlet manifold characterised in that the channels comprise bends having an internal radius at the upstream end of the bend greater than the internal radius of the channels at the downstream end of the bend. • a first sheet steel item having • a first surface configured to accommodate one or more objects to be cooled, and • a second surface joined to a first surface of • a first surface configured to accommodate one or more objects to be cooled, and • a second surface joined to a first surface of • a second steel sheet item forming a shell, wherein • one or more inlet manifolds for coolant, • a number of outlet manifolds for coolant, wherein the number of outlet manifolds is equal to one more than the one or more inlet manifolds,
A controller for a pendulum type wave-power generating apparatus converting a pendulum motion of wave-power energy into a rotary motion using a hydraulic transmission that has pressure accumulators and on a hydraulic circuit thereof, thus operating a generator, the controller comprising: pressure control valves and controlling output volumes of hydraulic motors and that operate the generator, characterized in that, the pressure control valves and control the output volumes of the hydraulic motors and such that the output volumes are proportional to mean hydraulic pressures in pipes and of the hydraulic circuit so that a mean value of wave-power energy input into the hydraulic circuit is equal to a mean value of a drive force of the generator, whereby wave-power energy is able to be used regardless of a variation in wave conditions on the sea., wherein the pressure control valves and are configured such that when the mean hydraulic pressures of the pipes and connected to the hydraulic motors and of the hydraulic transmission differ from each other and a difference between the mean hydraulic pressures exceeds a preset limiting value, a switching valve communicates the pipes and connected to the hydraulic motors and with each other so that the mean hydraulic pressures in the pipes and of the hydraulic motors and are equal to each other. pressure control valves and controlling output volumes of hydraulic motors and that operate the generator, characterized in that, the pressure control valves and control the output volumes of the hydraulic motors and such that the output volumes are proportional to mean hydraulic pressures in pipes and of the hydraulic circuit so that a mean value of wave-power energy input into the hydraulic circuit is equal to a mean value of a drive force of the generator, whereby wave-power energy is able to be used regardless of a variation in wave conditions on the sea., wherein the pressure control valves and are configured such that when the mean hydraulic pressures of the pipes and connected to the hydraulic motors and of the hydraulic transmission differ from each other and a difference between the mean hydraulic pressures exceeds a preset limiting value, a switching valve communicates the pipes and connected to the hydraulic motors and with each other so that the mean hydraulic pressures in the pipes and of the hydraulic motors and are equal to each other.
A control device for a vehicle, the control device characterized by comprising: a first gear connected to a crankshaft of an engine; a second gear capable of engaging the first gear; an actuator configured to move the second gear up to a position where the second gear engages the first gear; a motor configured to cause the second gear to rotate; and a controller configured to; (i) when the engine is cranked by driving of the motor in response to elapsing of a predefined period after the actuator is actuated in response to a startup request signal of the engine, adjust a length of the predefined period based on an operating state of a driver and a state of the vehicle at the time of reception of the startup request signal; the control device is characterised in that the controller is further configured to: (ii) set the predefined period to a first period when the startup request signal is received in a state where a rotational speed of the engine is higher than a reference speed; and (iii) set the predefined period to a second period shorter than the first period when the startup request signal is received in a state where the rotational speed is lower than the reference speed. a first gear connected to a crankshaft of an engine; a second gear capable of engaging the first gear; an actuator configured to move the second gear up to a position where the second gear engages the first gear; a motor configured to cause the second gear to rotate; and a controller configured to; (i) when the engine is cranked by driving of the motor in response to elapsing of a predefined period after the actuator is actuated in response to a startup request signal of the engine, adjust a length of the predefined period based on an operating state of a driver and a state of the vehicle at the time of reception of the startup request signal; the control device is characterised in that the controller is further configured to: (ii) set the predefined period to a first period when the startup request signal is received in a state where a rotational speed of the engine is higher than a reference speed; and (iii) set the predefined period to a second period shorter than the first period when the startup request signal is received in a state where the rotational speed is lower than the reference speed. (i) when the engine is cranked by driving of the motor in response to elapsing of a predefined period after the actuator is actuated in response to a startup request signal of the engine, adjust a length of the predefined period based on an operating state of a driver and a state of the vehicle at the time of reception of the startup request signal; (ii) set the predefined period to a first period when the startup request signal is received in a state where a rotational speed of the engine is higher than a reference speed; and (iii) set the predefined period to a second period shorter than the first period when the startup request signal is received in a state where the rotational speed is lower than the reference speed.
Energy conversion device which contains one or more collection units suitable for receiving electromagnetic energy as well as a conversion unit in an electrically conducting connection with the collection unit with the help of a cable, at least one of the collection units is formed by a set of metal material pipe members, while the conversion unit has a condenser part-unit consisting of metal armoured plates (32a, 32a') separated from each other by a gap and located in the cover, as well as a frequency-setting part-unit cooperating with the condenser part-unit, where the frequency-setting part-unit has a reception space located within the cover of the conversion unit and enclosed by a delimiting shell in the vicinity of the condenser part-unit and a charge located in the reception space, and the charge contains an organic component and an inorganic component distributed in a carrier medium, characterised that the cable connecting the collection unit and the conversion unit to each other is made from a metal alloy containing a maximum of 0.7 mass% gold, a maximum of 0.7 mass% silver, between 2-8 mass% iron and at least 90 mass% bronze components, and the cable has at least two bending zones, where the normal to the initial section of the cable entering the bending zone and the normal to the exit section of the cable leaving the bending zone are at an angle (a) of at least 10° to each other, the organic component of the charge contains a maximum of 50 v/v% regenerating type microorganism group, where a part of the microorganism group contains photosynthesising bacteria and/or lactic acid bacteria and/or yeasts and/or actinomycetes and/or fermenting fungi, while the inorganic component of the charge contains at least 5 v/v% of a gold-bronze powder mixture, the condenser part-unit is connected to an earth cable, and when the device is in its use position the first armoured plate of the condenser part-unit is connected to the electrically conducting body belonging to the environment via the earth cable, and the second armoured plate of the condenser part-unit, beside the cable, is in an electrically conducting connection with the charge.
A combustor of a gas turbine, for combusting a fuel in the presence of combustion air, wherein the combustor is designed as a dual-fuel combustor, having a pre-chamber, having a swirl body, wherein the pre-chamber of the combustor designed as dual-fuel combustor can be supplied in a gas fuel operating mode via the swirl body with a mixture of a gaseous fuel and combustion air, and wherein the pre-chamber of the combustor designed as dual-fuel combustor can be supplied in a liquid fuel operating mode via an atomisation device with a liquid fuel and via the swirl body with combustion air, the atomisation device comprises an atomisation lance that is central based on a longitudinal centre axis of the combustor or based on a longitudinal centre axis of a pre-chamber of the combustor having at least two atomisation nozzles (15, 16), which alone and jointly each provide an atomisation cone having a maximum spray angle (α) of 60°, wherein the atomisation device comprises multiple atomisation nozzles decentralised based on the longitudinal centre axis of the combustor or based on the longitudinal centre axis of the pre-chamber of the combustor, wherein each of the decentralised atomisation nozzles provides an atomisation cone each having a maximum spray angle (β) of 50°, which is smaller than the spray angle (α) of the at least two atomisation nozzles (15, 16) of the central atomisation lance. having a pre-chamber, having a swirl body, wherein the pre-chamber of the combustor designed as dual-fuel combustor can be supplied in a gas fuel operating mode via the swirl body with a mixture of a gaseous fuel and combustion air, and wherein the pre-chamber of the combustor designed as dual-fuel combustor can be supplied in a liquid fuel operating mode via an atomisation device with a liquid fuel and via the swirl body with combustion air, the atomisation device comprises an atomisation lance that is central based on a longitudinal centre axis of the combustor or based on a longitudinal centre axis of a pre-chamber of the combustor having at least two atomisation nozzles (15, 16), which alone and jointly each provide an atomisation cone having a maximum spray angle (α) of 60°, wherein the atomisation device comprises multiple atomisation nozzles decentralised based on the longitudinal centre axis of the combustor or based on the longitudinal centre axis of the pre-chamber of the combustor, wherein each of the decentralised atomisation nozzles provides an atomisation cone each having a maximum spray angle (β) of 50°, which is smaller than the spray angle (α) of the at least two atomisation nozzles (15, 16) of the central atomisation lance.
Recoverable module for subsea environments comprising a separating vessel provided with an inlet and two underflow and overflow or tailing outlets, in addition to a cover characterized in that the cover has a set of removable liners fastened to its interior.
A method for manufacturing a light-emitting electrochemical cell comprising: a first electrode, a second electrode, and a first light-emitting active material in electrical contact with and separating the first and second electrodes, the first active material comprising mobile ions in an amount sufficient for doping the active material, wherein the method comprises a step of depositing the first active material by spray-coating at an ambient gas pressure of at least about 1 kPa, characterized in that the step of spray-coating is performed such that spray droplets, when arriving at a surface being coated, are sufficiently wet to adhere to the surface, and sufficiently dry to prevent fluid communication with adjacent droplets. a first electrode, a second electrode, and a first light-emitting active material in electrical contact with and separating the first and second electrodes, the first active material comprising mobile ions in an amount sufficient for doping the active material, wherein the method comprises a step of depositing the first active material by spray-coating at an ambient gas pressure of at least about 1 kPa, characterized in that the step of spray-coating is performed such that spray droplets, when arriving at a surface being coated, are sufficiently wet to adhere to the surface, and sufficiently dry to prevent fluid communication with adjacent droplets.
Electric cooking apparatus comprising: - a housing comprising a cooking vessel configured to receive food to be cooked, - a stirring blade rotatably mounted in the cooking vessel, and - a magnetic drive system configured to rotate the stirring blade, the magnetic drive system comprising a peripheral ring extending around the side wall of the cooking vessel, a first permanent magnetic device attached to the peripheral ring, a second permanent magnetic device configured to engage with the first permanent magnetic device, and a drive motor configured to rotate the peripheral ring about the side wall of the cooking vessel, the magnetic drive system being configured to rotate the stirring blade when the second permanent magnetic device is positioned opposite the first permanent magnetic device and when the drive motor rotates the peripheral ring, the electric cooking apparatus being characterised in that the stirring blade comprises at least one stirring arm which is configured to stir food contained in the cooking vessel, the stirring arm comprising an end portion configured to extend close to or in contact with a side wall of the cooking vessel, and the second permanent magnetic device attached to the end portion of the stirring arm. - a housing comprising a cooking vessel configured to receive food to be cooked, - a stirring blade rotatably mounted in the cooking vessel, and - a magnetic drive system configured to rotate the stirring blade, the magnetic drive system comprising a peripheral ring extending around the side wall of the cooking vessel, a first permanent magnetic device attached to the peripheral ring, a second permanent magnetic device configured to engage with the first permanent magnetic device, and a drive motor configured to rotate the peripheral ring about the side wall of the cooking vessel, the magnetic drive system being configured to rotate the stirring blade when the second permanent magnetic device is positioned opposite the first permanent magnetic device and when the drive motor rotates the peripheral ring, the electric cooking apparatus being characterised in that the stirring blade comprises at least one stirring arm which is configured to stir food contained in the cooking vessel, the stirring arm comprising an end portion configured to extend close to or in contact with a side wall of the cooking vessel, and the second permanent magnetic device attached to the end portion of the stirring arm.
Hand-held power tool device having at least one operator control unit (10a-p), wherein the operator control unit (10a-p) has at least one dimensionally flexible operator control element (12a-p; 14a, 14en; 16a-g, 16i, 16j, 161-n, 16p; 18a, 18e-g, 18j, 18m, 18n), characterized in that the operator control unit has at least one pneumatically or hydraulically configured detection unit, which is intended to pneumatically or hydraulically sense actuation of the operator control unit and advantageously pass it on to at least one further unit, in particular an electronic unit, a drive unit and/or a control unit.
A memory card comprising: a first surface including first to Nth rows, where N is an integer of two or greater, each of first to Nth rows being an area where three or more terminals are arranged in a linear fashion; a second surface facing the opposite side from the first surface; and 1st to Nth terminal groups corresponding to the 1st to Nth rows, each terminal group being placed in the corresponding row, characterized in that the 1st terminal group includes terminals to which the memory card receives differential clock signals, terminals to which the memory card receives single-ended signals, and a terminal to which the memory card receives a first power supply voltage, the Kth terminal group, where K is an integer no smaller than two and no greater than N, includes terminals to which the memory card receives differential data signals; and the Kth terminal group further includes a terminal to which ground potential is received and terminals to which the differential data signals are assigned, the terminal to which ground potential is received being placed between the terminals to which the differential data signals are assigned. a first surface including first to Nth rows, where N is an integer of two or greater, each of first to Nth rows being an area where three or more terminals are arranged in a linear fashion; a second surface facing the opposite side from the first surface; and 1st to Nth terminal groups corresponding to the 1st to Nth rows, each terminal group being placed in the corresponding row, characterized in that the 1st terminal group includes terminals to which the memory card receives differential clock signals, terminals to which the memory card receives single-ended signals, and a terminal to which the memory card receives a first power supply voltage, the Kth terminal group, where K is an integer no smaller than two and no greater than N, includes terminals to which the memory card receives differential data signals; and the Kth terminal group further includes a terminal to which ground potential is received and terminals to which the differential data signals are assigned, the terminal to which ground potential is received being placed between the terminals to which the differential data signals are assigned.
A method of producing a system for the inductive transmission of energy from a primary part arranged at the floor to a mobile part movable on the floor, characterised in that a stepped bore is made in a floor in a first method step, wherein a sealing body is inserted into the stepped bore in a subsequent second method step, wherein an annular frame is held in the stepped bore by means of an alignment unit, supported on the surface of the floor, in a subsequent third method step, in particular wherein the upper edge of the annular frame is aligned level with the floor or with the surface of a floor covering attached to the floor, in particular therefore the upper edge is brought to the same vertical position as the surface of the floor or of the floor covering, wherein the annular frame is spaced apart from the floor, so that a gap region is present between annular frame and floor, wherein the gap region is filled with sealing compound in a subsequent fourth method step, wherein the alignment unit is removed in a subsequent fifth method step, wherein a primary part is received in the annular frame in a subsequent sixth method step, in particular is screw-connected. a stepped bore is made in a floor in a first method step, wherein a sealing body is inserted into the stepped bore in a subsequent second method step, wherein an annular frame is held in the stepped bore by means of an alignment unit, supported on the surface of the floor, in a subsequent third method step, in particular wherein the upper edge of the annular frame is aligned level with the floor or with the surface of a floor covering attached to the floor, in particular therefore the upper edge is brought to the same vertical position as the surface of the floor or of the floor covering, wherein the annular frame is spaced apart from the floor, so that a gap region is present between annular frame and floor, wherein the gap region is filled with sealing compound in a subsequent fourth method step, wherein the alignment unit is removed in a subsequent fifth method step, wherein a primary part is received in the annular frame in a subsequent sixth method step, in particular is screw-connected.
A steel cord with a construction of nx1, n being the number of the steel filaments of said steel cord, said steel cord having an elongation at 2.5N-50N which is the elongation between 2.5N and 50N expressed in percent of less than 1.2% and a twist pitch of greater than 16mm, each of said steel filaments having a form of helical wave with a wave length L expressed in mm and a wave height H expressed in mm when being unravelled from said steel cord, said wave length L being greater than 16mm, said wave length L and said wave height H being measured on the two dimensional projection silhouette of said steel filament, characterized in that each of said steel filaments has a space volume Vs satisfying that, Vs = LxH 2 xπ / 4, and Vs > 20 mm 3.
A compound defined by Formula I below wherein A is -OH, -OMe, -OC(=O)CH 3, -NH 2, -NHC(=O)CH 3, -NHCH 2 OH, or -NHC(=NH)NH 2; R 1 is, individually for each occurrence, -H, -Me, or -C(=O)CH 3; R 2 is -H or -Me; R 3 is -OH, -OMe, -OC(=O)CH 3, -NH 2, -NHC(=O)CH 3, or -NHCH 2 OH; n is an integer from 1 to 16; L is chosen from one of the following; and E is, individually for each occurrence, an electrochemically active moiety defined by one of the general formulae shown below wherein X is, individually for each occurrence, -OH, -OMe, -OC(=O)CH 3, -F, - CF 3, -CH 2 F, -CHF 2, -Cl, -Br, -I, -H or sulfonate. A is -OH, -OMe, -OC(=O)CH 3, -NH 2, -NHC(=O)CH 3, -NHCH 2 OH, or -NHC(=NH)NH 2; R 1 is, individually for each occurrence, -H, -Me, or -C(=O)CH 3; R 2 is -H or -Me; R 3 is -OH, -OMe, -OC(=O)CH 3, -NH 2, -NHC(=O)CH 3, or -NHCH 2 OH; n is an integer from 1 to 16; L is chosen from one of the following; and E is, individually for each occurrence, an electrochemically active moiety defined by one of the general formulae shown below wherein X is, individually for each occurrence, -OH, -OMe, -OC(=O)CH 3, -F, - CF 3, -CH 2 F, -CHF 2, -Cl, -Br, -I, -H or sulfonate.
A method of forming a semiconductor device including a transistor, comprising: adapting the yield strength of a semiconductor substrate by implanting nitrogen into the semiconductor substrate; forming the transistor upon the semiconductor substrate; and inducing strain by forming a strain inducing layer over one or more portions of the transistor, characterized in that the nitrogen is implanted such that a peak range of the implant damage in the semiconductor substrate from the nitrogen is between about one quarter of peak range of the implant damage in the semiconductor substrate from source and/or drain implants and about an end of range of damage to the semiconductor substrate from source and/or drain implants. adapting the yield strength of a semiconductor substrate by implanting nitrogen into the semiconductor substrate; forming the transistor upon the semiconductor substrate; and inducing strain by forming a strain inducing layer over one or more portions of the transistor,