mhurhangee/ep-ind-claims huggingface dataset:
A motor comprising: a stator; a rotor configured to rotate inside the stator in response to an electromagnetic interaction with the stator; wherein the motor further comprises: a shield member comprising a plurality of shield elements configured to screen a magnetic field between the stator and the rotor; and a moving member configured to control a position of the shield member in response to an electromagnetic interaction with the stator such that screening of the magnetic field is configured to be selectively performed, characterised in that the moving member comprises: a support element configured to integrally rotate with the shield member, a magnetic element disposed on one side of the support element and rotating the support element in a first direction in response to an electromagnetic interaction with the stator and an elastic element disposed on the other side of the support element and rotating the support element in a second direction opposite to the first direction in response to a compression restoring force. a stator; a rotor configured to rotate inside the stator in response to an electromagnetic interaction with the stator; wherein the motor further comprises: a shield member comprising a plurality of shield elements configured to screen a magnetic field between the stator and the rotor; and a moving member configured to control a position of the shield member in response to an electromagnetic interaction with the stator such that screening of the magnetic field is configured to be selectively performed, a shield member comprising a plurality of shield elements configured to screen a magnetic field between the stator and the rotor; and a moving member configured to control a position of the shield member in response to an electromagnetic interaction with the stator such that screening of the magnetic field is configured to be selectively performed, characterised in that the moving member comprises: a support element configured to integrally rotate with the shield member, a magnetic element disposed on one side of the support element and rotating the support element in a first direction in response to an electromagnetic interaction with the stator and an elastic element disposed on the other side of the support element and rotating the support element in a second direction opposite to the first direction in response to a compression restoring force. a support element configured to integrally rotate with the shield member, a magnetic element disposed on one side of the support element and rotating the support element in a first direction in response to an electromagnetic interaction with the stator and an elastic element disposed on the other side of the support element and rotating the support element in a second direction opposite to the first direction in response to a compression restoring force.
A method of producing a nucleotide sequence complementary to a single-stranded target nucleic acid having a length of 15 to 500 nucleotides, the method comprising: a.1) incubating the target nucleic acid and a dual-hybridization primer, wherein the dual-hybridization primer comprises (i) a first complementary region that is complementary to at least two consecutive nucleotides at the 3'-terminus of a target nucleic acid, and (ii) a second complementary region that is complementary to at least two consecutive nucleotides at the 5'-terminus of the target nucleic acid, the first complementary region being located at the 3' side of the second complementary region, and a.2) hybridizing the dual-hybridization primer to the target nucleic acid to form a circularized hybridization complex, wherein the first complementary region of the dual-hybridization primer is hybridized to the 3' terminus of the target, and the second complementary region of the dual-hybridization primer is hybridized to the 5' terminus of the target; and b) incubating the complex of step a.2) in the presence of a nucleic acid polymerase to produce a nucleotide sequence complementary to the target nucleic acid by extending the 3'-terminal of the dual-hybridization primer; wherein the dual-hybridization primer further comprises a third region that is not complementary to the target nucleic acid and that is located at the 5' side of the second complementary region. a.1) incubating the target nucleic acid and a dual-hybridization primer, wherein the dual-hybridization primer comprises (i) a first complementary region that is complementary to at least two consecutive nucleotides at the 3'-terminus of a target nucleic acid, and (ii) a second complementary region that is complementary to at least two consecutive nucleotides at the 5'-terminus of the target nucleic acid, the first complementary region being located at the 3' side of the second complementary region, and a.2) hybridizing the dual-hybridization primer to the target nucleic acid to form a circularized hybridization complex, wherein the first complementary region of the dual-hybridization primer is hybridized to the 3' terminus of the target, and the second complementary region of the dual-hybridization primer is hybridized to the 5' terminus of the target; and b) incubating the complex of step a.2) in the presence of a nucleic acid polymerase to produce a nucleotide sequence complementary to the target nucleic acid by extending the 3'-terminal of the dual-hybridization primer; wherein the dual-hybridization primer further comprises a third region that is not complementary to the target nucleic acid and that is located at the 5' side of the second complementary region.
Method for determining a fine position value x(t) of a body to be monitored by means of at least two different sensor output signals of a position generator, which vary with the position of the body and are represented in reproducible manner, wherein from the sensor output signals derived signals f(x(t)), g(x(t)) in a calculating circuit are compared with values of at least two reference curves, which values are archived in a reference value storage, characterized in that for each derived signal f(x(t)), g(x(t)) an average value determination circuit (8, 9) is used which is configured for a continuous average value determination such that each of an old average value M alt, formed of a given amount of preliminary determined signal single values, is multiplied with a first weighting factor gf 1 and the newest signal single value EW with a second weighting factor gf 2 and thus forming a new average value M neu, such that it divides the sum of this products by the sum of the weighting factors gf 1 and gf 2, and that the new average values of the calculating circuit formed for each derived signal f(x(t), g(x(t)) are supplied to a comparison with the reference curves.
A system comprising: a controller configured to: receive a source signal for reproduction via a speaker driver as an input voltage u; determine an estimated displacement x of a diaphragm resulting from the reproduction of the source signal; determine a displacement excess Δx based on the estimated displacement x and threshold information relating to safe displacement xmax of the diaphragm; determine a voltage excess Δu representing an excess amount of the input voltage u that results in the displacement excess Δx; and generate a corrected voltage by subtracting the voltage excess Δu from the input voltage u delayed by a predetermined amount of time; wherein an actual displacement of the diaphragm during the reproduction of the source signal is controlled based on the corrected voltage. receive a source signal for reproduction via a speaker driver as an input voltage u; determine an estimated displacement x of a diaphragm resulting from the reproduction of the source signal; determine a displacement excess Δx based on the estimated displacement x and threshold information relating to safe displacement xmax of the diaphragm; determine a voltage excess Δu representing an excess amount of the input voltage u that results in the displacement excess Δx; and generate a corrected voltage by subtracting the voltage excess Δu from the input voltage u delayed by a predetermined amount of time; wherein an actual displacement of the diaphragm during the reproduction of the source signal is controlled based on the corrected voltage.
A rechargeable battery comprising: an electrode assembly comprising a first electrode plate, a second electrode plate and a separator between the first electrode plate and the second electrode plate; a case accommodating the electrode assembly; and a first electrode terminal and a second electrode terminal electrically connected to the first electrode plate and the second electrode plate, respectively, and protruding to the outside of the case, characterized in that each of the first electrode terminal and the second electrode terminal comprises: an upper body part (52a, 53a) coupled to a first terminal plate or a second terminal plate outside the case; a lower body part (52b, 53b) connected to the first electrode plate or the second electrode plate inside the case; and one of the first electrode terminal and the second electrode terminal includes a first fuse part (52c, 53c) between the upper body part (52a, 53a) and the lower body part (52b, 53b). an electrode assembly comprising a first electrode plate, a second electrode plate and a separator between the first electrode plate and the second electrode plate; a case accommodating the electrode assembly; and a first electrode terminal and a second electrode terminal electrically connected to the first electrode plate and the second electrode plate, respectively, and protruding to the outside of the case, characterized in that each of the first electrode terminal and the second electrode terminal comprises: an upper body part (52a, 53a) coupled to a first terminal plate or a second terminal plate outside the case; a lower body part (52b, 53b) connected to the first electrode plate or the second electrode plate inside the case; and an upper body part (52a, 53a) coupled to a first terminal plate or a second terminal plate outside the case; a lower body part (52b, 53b) connected to the first electrode plate or the second electrode plate inside the case; and
A photopolymerizable composition comprising a radical-polymerizable monomer, a photopolymerization initiator comprising an α-diketone compound, a photoacid generating agent, and an aromatic amine compound, and an organic filler containing a phthalate ester fluorescent agent. a radical-polymerizable monomer, a photopolymerization initiator comprising an α-diketone compound, a photoacid generating agent, and an aromatic amine compound, and an α-diketone compound, a photoacid generating agent, and an aromatic amine compound, and an organic filler containing a phthalate ester fluorescent agent.
A method for use in an access terminal, AT, in a wireless communication system, that is communicating with a base transceiver station, BTS, over a reverse link, RL, and a forward link, FL, comprising: at the AT: dynamically controlling a traffic-to-pilot ratio, TPR, of a non-delay sensitive data flow being transmitted on the RL in response to a quality indication feedback received on the FL of the non-delay sensitive flow received by the BTS, characterized in that the power of a main RL pilot is dynamically controlled in response to a quality indication feedback received via a quality feedback channel on the FL. at the AT: dynamically controlling a traffic-to-pilot ratio, TPR, of a non-delay sensitive data flow being transmitted on the RL in response to a quality indication feedback received on the FL of the non-delay sensitive flow received by the BTS, characterized in that the power of a main RL pilot is dynamically controlled in response to a quality indication feedback received via a quality feedback channel on the FL. dynamically controlling a traffic-to-pilot ratio, TPR, of a non-delay sensitive data flow being transmitted on the RL in response to a quality indication feedback received on the FL of the non-delay sensitive flow received by the BTS, characterized in that the power of a main RL pilot is dynamically controlled in response to a quality indication feedback received via a quality feedback channel on the FL.
An inverter device comprising: a box-shaped module case having an opening in an upper portion: a power substrate that is placed at a bottom in the module case, converts DC power supplied from a power supply into AC power and applies the AC power to an electric motor; a control substrate that closes the opening in the module case and controls the application of the AC power to the electric motor; a smoothing capacitor provided on the power substrate; and a resin mold layer that is provided in the module case and filled from the power substrate to at least a position covering the smoothing capacitor. a power substrate that is placed at a bottom in the module case, converts DC power supplied from a power supply into AC power and applies the AC power to an electric motor; a control substrate that closes the opening in the module case and controls the application of the AC power to the electric motor; a smoothing capacitor provided on the power substrate; and a resin mold layer that is provided in the module case and filled from the power substrate to at least a position covering the smoothing capacitor.
A method of lubricating a cylinder liner and piston of a 2-stroke internal combustion engine with a power output of at least 1600 kilowatts comprising supplying to the engine a lubricating composition comprising: an oil of lubricating viscosity; 3 wt % to 30 wt % of an alkaline earth or alkali metal sulphonate detergent; and 0.05 wt % to 3 wt % of an oil-soluble polyalkylene glycol having a distribution of molecular weight such that the molecules thereof have a weight of 2500 to less than 10,000 Daltons; wherein the distribution of molecular weight of the oil-soluble polyalkylene glycol is determined by gel permeation chromatography using twelve polystyrene standards with peak molecular weights ranging from 350 to 2,000,000.
A wheel hub drive for an industrial truck comprising a hub carrier and a hub rotatably mounted on the hub carrier, at least one roller bearing (2a, 2b) between the hub carrier and the hub, a reduction gear at least partially inside the hub having an input shaft (5, 78, 178, 192) coupled to a drive motor and an output part, the hub being coupled thereto, wherein a pot-shaped hub portion is provided, said pot-shaped hub portion having a base portion and a wall portion, a central bearing pin being connected to the base portion, the wall portion surrounding said central bearing pin with a radial spacing and the at least one roller bearing (2a, 2b) being located on said central bearing pin, said roller bearing being supported radially outwardly on a portion of a gear housing serving as a hub carrier, which in turn contains a multi-stage spur gear as a reduction gear, at least one output stage thereof being arranged inside the hub portion, wherein the wall portion of the hub portion forms a ring gear operatively connected to the output part of the spur gear, characterized in that two axially spaced-apart roller bearings (2a, 2b) are arranged on the bearing pin, in that the spur gear is provided to be multi-stage and in that at least two pinions (4, 48a, 48b) mesh with the ring gear, wherein the pinion shafts (49, 11) are guided through a wall of the gear housing terminating the open part of the hub portion, and at least one further spur gear stage (3a, 3b, 6a, 6b) in the gear housing outside the hub portion is coupled to the input shaft.
Fluid flow valve comprising a body having a fluid passage duct, a flap that closes off the duct, an actuator for the flap, the actuator being free to rotate and comprising a return spring, a rotational drive member of the actuator, and a radial stop means of a first end of the spring, characterized in that the valve comprises at least one latching means for a second end of the spring of the spring, the latching means being configured to receive the second end of the spring in a clockwise or anticlockwise direction of rotation of the drive member, the latching means comprising a non-return means, the non-return means being a lug.
A device for closing a biological tissue comprising: clamping means including a stick portion provided at a distal portion of a catheter for sticking to a biological tissue (M1, M2), and a sandwich member for sandwiching said biological tissue (M1, M2) in cooperation with said stick portion; and an electric energy supply means for supplying electric energy to said clamping means, in which said biological tissue (M1, M2) is fused by making said stick portion and said sandwich member of said clamping means be electrode members, by sandwiching said biological tissue (M1, M2) with said clamping means and by supplying electric energy from said electric energy supply means, wherein said clamping means makes each of said stick portion and said sandwich member movable independently with respect to said catheter wherein said stick portion is configured with two needle members and guided by lumens (L1, L2) of said catheter so as to protrude in a side of said catheter; characterized in that said needle members diverge away from one another in a widening manner in their distal direction; and in that said lumens (L1, L2) are formed so as to tilt toward said side of said catheter. clamping means including a stick portion provided at a distal portion of a catheter for sticking to a biological tissue (M1, M2), and a sandwich member for sandwiching said biological tissue (M1, M2) in cooperation with said stick portion; and an electric energy supply means for supplying electric energy to said clamping means, in which said biological tissue (M1, M2) is fused by making said stick portion and said sandwich member of said clamping means be electrode members, by sandwiching said biological tissue (M1, M2) with said clamping means and by supplying electric energy from said electric energy supply means, wherein said clamping means makes each of said stick portion and said sandwich member movable independently with respect to said catheter wherein said stick portion is configured with two needle members and guided by lumens (L1, L2) of said catheter so as to protrude in a side of said catheter; characterized in that said needle members diverge away from one another in a widening manner in their distal direction; and in that said lumens (L1, L2) are formed so as to tilt toward said side of said catheter.
A method for analyzing a biological sample from a human patient for a disease or condition selected from colon cancer, thyroid cancer, and lupus, or the risk thereof comprising: a) generating an miRNA profile for the sample and b) evaluating the miRNA profile to determine whether miRNA in the sample are differentially expressed compared to a normal sample, wherein the miRNA profile involves profiling for at least miR-203. a) generating an miRNA profile for the sample and b) evaluating the miRNA profile to determine whether miRNA in the sample are
Use of a catalyst in a method for the production of light olefins in a catalytic cracking unit with energy deficiency wherein said catalyst comprises a solid acid which is a zeolite from the pentasil family selected from the group ZSM-5, ZSM-8 and ZSM-11, and between 1.0 and 15%, based on the weight of the catalyst, of a hydrogenation metal, said hydrogenation metal comprising a metal or combination of metals with dehydrogenation power selected from Ni, Fe, Mn, Co, Mo and/or Ga and is used to maximise the yield of propylene and ethylene, and to minimise the energy deficiency in the catalytic cracking of light hydrocarbons with boiling points above 150 °C, and wherein said method comprises 1) supplying a stream of light hydrocarbons to a reactor of a fluid catalytic cracking unit, wherein the stream of light hydrocarbons comprises a stream of naphtha, diesel or kerosene or other effluent from the distillation of petroleum or from delayed coking units, hydrocracking units, hydro fining units or other refining units; 2) promoting contact between the stream of hydrocarbons and the heated catalyst; 3) allowing vapour-phase reactions to occur at a reaction temperature of from 550 to 750 °C and catalyst to oil feed ratio between 10 and 50 to obtain a mixture of hydrocarbons, steam and coked catalyst; 4) separating the coked catalyst from products resulting from the reactions; 5) directing the coked catalyst to a steam rectification section; 6) directing rectified coked catalyst to a heating section, to allow combustion of coke deposited on the catalyst and the burning of torch oil, with a stream of air, and to obtain a heated catalyst capable of supplying the process with energy; 7) returning the heated catalyst to the feed of the reactor to begin the cracking process again; 8) directing the hydrocarbon stream generated to a separating and fractionating section, for separating the products obtained. 1) supplying a stream of light hydrocarbons to a reactor of a fluid catalytic cracking unit, wherein the stream of light hydrocarbons comprises a stream of naphtha, diesel or kerosene or other effluent from the distillation of petroleum or from delayed coking units, hydrocracking units, hydro fining units or other refining units; 2) promoting contact between the stream of hydrocarbons and the heated catalyst; 3) allowing vapour-phase reactions to occur at a reaction temperature of from 550 to 750 °C and catalyst to oil feed ratio between 10 and 50 to obtain a mixture of hydrocarbons, steam and coked catalyst; 4) separating the coked catalyst from products resulting from the reactions; 5) directing the coked catalyst to a steam rectification section; 6) directing rectified coked catalyst to a heating section, to allow combustion of coke deposited on the catalyst and the burning of torch oil, with a stream of air, and to obtain a heated catalyst capable of supplying the process with energy; 7) returning the heated catalyst to the feed of the reactor to begin the cracking process again; 8) directing the hydrocarbon stream generated to a separating and fractionating section, for separating the products obtained.