mhurhangee/ep-ind-claims huggingface dataset:
A composite powder comprising: a core particle comprising a styrene/acrylate polymer resin and optionally a first metal ion acrylate monomer; and a shell comprising a styrene/acrylate ionomer resin, wherein the styrene/acrylate ionomer resin comprises a second metal ion acrylate monomer; wherein the total amount of metal presented in the composite powder ranges in a concentration of from 0.5 ppm to 50,000 ppm; wherein the second metal ion acrylate monomer of the shell comprises ions of silver, copper, gold, palladium, or mixtures thereof; and further wherein the composite powder has a volume average particle diameter as determined by transmission electron microscopy of from 10 microns to 300 microns. a core particle comprising a styrene/acrylate polymer resin and optionally a first metal ion acrylate monomer; and a shell comprising a styrene/acrylate ionomer resin, wherein the styrene/acrylate ionomer resin comprises a second metal ion acrylate monomer;
An interface circuit, comprising: a first powered device configured to receive, and to couple to a power supply (24, 70), a first power signal from a first power source; and a second powered device (34 1) configured to receive a second power signal from a second power source different than the first power source, to couple the second power signal to the power supply (24, 70), and to prevent the first powered device (34 2) from coupling the first power signal to the power supply (24, 70) while the second powered device (34 1) is coupling the second power signal to the power supply (24, 70); wherein the second powered device (34 1) is configured to prevent the first powered device (34 2) from coupling the first power signal to the power supply (24, 70) by coupling the second power signal to a node of the first powered device (34 2). a first powered device configured to receive, and to couple to a power supply (24, 70), a first power signal from a first power source; and a second powered device (34 1) configured to receive a second power signal from a second power source different than the first power source, to couple the second power signal to the power supply (24, 70), and to prevent the first powered device (34 2) from coupling the first power signal to the power supply (24, 70) while the second powered device (34 1) is coupling the second power signal to the power supply (24, 70); wherein the second powered device (34 1) is configured to prevent the first powered device (34 2) from coupling the first power signal to the power supply (24, 70) by coupling the second power signal to a node of the first powered device (34 2).
Method for setting a cruise control function with automatic distance adjustment in a single-track vehicle (2, 3), having the following method steps: a) determining the lateral distance (x 1) between two single-track vehicles (2, 3) ahead; b) identifying a threshold value (a) as a function of the lateral distance (x 1) between the two single-track vehicles (2, 3) ahead; c) determining the lateral distance (X 2) between the ego single-track vehicle and a single-track vehicle ahead; d) using the single-track vehicle ahead as the target vehicle to be followed for the cruise control function if the lateral distance (x 2) between the ego single-track vehicle and the single-track vehicle ahead is less than or equal to the threshold value (a). a) determining the lateral distance (x 1) between two single-track vehicles (2, 3) ahead; b) identifying a threshold value (a) as a function of the lateral distance (x 1) between the two single-track vehicles (2, 3) ahead; c) determining the lateral distance (X 2) between the ego single-track vehicle and a single-track vehicle ahead; d) using the single-track vehicle ahead as the target vehicle to be followed for the cruise control function if the lateral distance (x 2) between the ego single-track vehicle and the single-track vehicle ahead is less than or equal to the threshold value (a).
A clothes treating apparatus comprising: a cabinet having an accommodating space for accommodating clothes; an air supplying device for drying air circulating into the accommodating space; and a plurality of supply holes formed at each side surface of the accommodating space or a rear side surface of the accommodating space for allowing the dry air to be supplied therethrough; and a circulation duct communicating with the at least one supply hole to define a path along which dry air flows; a plurality of fixing plates provided at the respective supply holes to uniformly supply the dry air through the plurality of supply holes, and the fixing plates are protruded inwardly of the circulation duct and have different lengths according to the distance between the fixing plates and the air supplying device along the circulation duct, characterized in that the lengths of the fixing plates are increased with the increase in distance between the fixing plates and the air supplying device. a cabinet having an accommodating space for accommodating clothes; an air supplying device for drying air circulating into the accommodating space; and a plurality of supply holes formed at each side surface of the accommodating space or a rear side surface of the accommodating space for allowing the dry air to be supplied therethrough; and a circulation duct communicating with the at least one supply hole to define a path along which dry air flows; a plurality of fixing plates provided at the respective supply holes to uniformly supply the dry air through the plurality of supply holes, and the fixing plates are protruded inwardly of the circulation duct and have different lengths according to the distance between the fixing plates and the air supplying device along the circulation duct, characterized in that the lengths of the fixing plates are increased with the increase in distance between the fixing plates and the air supplying device.
A fragment of saposin A protein or a vector comprising a nucleic acid encoding a fragment of saposin A protein for use in treatment of an angiogenesis-dependent disease or disorder, wherein the fragment of saposin A consists of SEQ ID NO:29, wherein the angiogenesis-dependent disease or disorder is selected from a group consisting of cancer, age-related macular degeneration, rheumatoid arthritis, Alzheimer's disease, obesity, endometriosis, diabetic retinopathies, and hemangiomas.
A method by a base station in a wireless communication system, the method comprising: transmitting, to a terminal, at least one reference signal for antenna ports in a first dimension and a second dimension; and receiving, from the terminal, feedback information including a first precoding matrix indicator and a channel quality indicator, wherein the first precoding matrix indicator is determined based on the at least one reference signal, wherein the channel quality indicator is determined based on a precoding matrix, determined by the first precoding matrix indicator and a second precoding matrix indicator selected by the terminal, from a set corresponding to a plurality of precoding matrices associated with the first precoding matrix indicator, and wherein the second precoding matrix indicator is not received from the terminal. transmitting, to a terminal, at least one reference signal for antenna ports in a first dimension and a second dimension; and receiving, from the terminal, feedback information including a first precoding matrix indicator and a channel quality indicator, wherein the first precoding matrix indicator is determined based on the at least one reference signal, wherein the channel quality indicator is determined based on a precoding matrix, determined by the first precoding matrix indicator and a second precoding matrix indicator selected by the terminal, from a set corresponding to a plurality of precoding matrices associated with the first precoding matrix indicator, and wherein the second precoding matrix indicator is not received from the terminal.
A method of operating an AC mercury lamp and DMD in a projection system for 3D simulation, comprising: receiving a periodic video frame pulse signal; switching said DMD between image rendering and standby states, wherein each of said standby states results in a dark interval; and driving said lamp with a signal that alternates between a maintenance pulse level and a plateau level, wherein the signal is synchronized to said video frame pulse signal so that said maintenance pulse level is timed to occur during a portion of said dark interval and said plateau level is timed to occur during the remainder of said dark interval and during said image rendering states. receiving a periodic video frame pulse signal; switching said DMD between image rendering and standby states, wherein each of said standby states results in a dark interval; and driving said lamp with a signal that alternates between a maintenance pulse level and a plateau level, wherein the signal is synchronized to said video frame pulse signal so that said maintenance pulse level is timed to occur during a portion of said dark interval and said plateau level is timed to occur during the remainder of said dark interval and during said image rendering states.
A matched ball bearing comprising four or more rows of angular ball bearings (41, 42, 51, 52) axially aligned, two or more rows of the angular ball bearings (41, 51; 42, 52) with contact angles in a same direction being arranged in a back-to-back combination, wherein the respective angular ball bearings have same inner diameters (d41, d42, d51, d52), respectively, wherein the respective angular ball bearings with contact angles in the same direction have same outer diameters (D41, D51; D42, D52), respectively, wherein the respective angular ball bearings with contact angles in different directions have different outer diameters, respectively, and wherein with respect to at least the respective angular ball bearings (42, 52) having the larger outer diameters (D42, D52), the angular ball bearing positioned at an axially outboard side has a ball diameter and a contact angle (α42) greater than those of the angular ball bearing positioned at an axially inboard side.
Multilevel converter having a plurality of series-connected submodules (31, 32), each of which comprises a first switch (S11, S21), a second switch (S12, S22) and a capacitor (C1, C2), and, in discharge phases, gives out current by means of the capacitor, and, in charging phases, draws in current for charging the capacitor, and having a central device for controlling the operation of Multilevel converter, characterized in that - at least two of the submodules (31, 32) are connected in series to form a multimodule, wherein in the charging phases and the discharge phases of the multimodule, one of the switches of each submodule (31, 32) is off and the other switch of each submodule (31, 32) is on, and - the multimodule comprises a control device connected to the central device, which control device controls the submodules (31, 32) of the multimodule on the basis of control signals (T1, T2) from the central device, - wherein the control device is designed such that it monitors the capacitor voltages of the submodules (31, 32) and, in the event of an imbalance in the capacitor voltages, produces balancing, irrespective of the direction of flow of the module current, by providing at least one blocking period (Tv) for each submodule that has a capacitor voltage that is too low compared with the capacitor voltage of the other submodules of the multimodule, in which blocking period the first switch and the second switch (S11, S12) are off at the same time, wherein the control device defines the time length of the blocking period (Tv) specifically for each submodule on the basis of the imbalance in the capacitor voltages. - at least two of the submodules (31, 32) are connected in series to form a multimodule, wherein in the charging phases and the discharge phases of the multimodule, one of the switches of each submodule (31, 32) is off and the other switch of each submodule (31, 32) is on, and - the multimodule comprises a control device connected to the central device, which control device controls the submodules (31, 32) of the multimodule on the basis of control signals (T1, T2) from the central device, - wherein the control device is designed such that it monitors the capacitor voltages of the submodules (31, 32) and, in the event of an imbalance in the capacitor voltages, produces balancing, irrespective of the direction of flow of the module current, by providing at least one blocking period (Tv) for each submodule that has a capacitor voltage that is too low compared with the capacitor voltage of the other submodules of the multimodule, in which blocking period the first switch and the second switch (S11, S12) are off at the same time, wherein the control device defines the time length of the blocking period (Tv) specifically for each submodule on the basis of the imbalance in the capacitor voltages.
A control method for an internal combustion engine including a variable compression ratio mechanism structured to vary a mechanical compression ratio of the internal combustion engine, the control method comprising: determining whether warming-up of a catalyst (14, 15) disposed in an exhaust passage of the internal combustion engine is completed; implementing a compression ratio fixing control in which the mechanical compression ratio is fixed to a predetermined low compression ratio, and controlling combustion form in a cylinder of the internal combustion engine to stratified combustion, under engine idling during the warming-up of the catalyst (14, 15); controlling the combustion form in the cylinder to homogeneous combustion, under an operation state other than the engine idling during the warming-up of the catalyst (14, 15); and implementing the compression ratio fixing control and controlling the combustion form in the cylinder to the homogeneous combustion, in response to pressing-down of an accelerator of the internal combustion engine under the engine idling during the warming-up of the catalyst (14, 15), and as long as the engine idling during the warming-up of the catalyst (14, 15) has a possibility to resume in response to release of the accelerator after the pressing-down. determining whether warming-up of a catalyst (14, 15) disposed in an exhaust passage of the internal combustion engine is completed; implementing a compression ratio fixing control in which the mechanical compression ratio is fixed to a predetermined low compression ratio, and controlling combustion form in a cylinder of the internal combustion engine to stratified combustion, under engine idling during the warming-up of the catalyst (14, 15); controlling the combustion form in the cylinder to homogeneous combustion, under an operation state other than the engine idling during the warming-up of the catalyst (14, 15); and implementing the compression ratio fixing control and controlling the combustion form in the cylinder to the homogeneous combustion, in response to pressing-down of an accelerator of the internal combustion engine under the engine idling during the warming-up of the catalyst (14, 15), and as long as the engine idling during the warming-up of the catalyst (14, 15) has a possibility to resume in response to release of the accelerator after the pressing-down.
A reinforcing element configured to be received within a longitudinally extending cavity defined by a structure, the reinforcing element comprising: a base portion having a bonding material (108, 160) applied thereon; and a member (110, 150) moveable with respect to the base portion, the member (110, 150) configured to selectively extend away from and be longitudinally aligned with the base portion when the reinforcing element is received within the cavity such that the reinforcing element defines a first length (L 1) when the member (110, 150) is in a first position with respect to the base portion, and a second length (L 1 + L 2) when the member (110, 150) is in a second position extending away from and longitudinally aligned with the base portion, the second length (L 1 + L 2) being greater than the first length (L 1). a base portion having a bonding material (108, 160) applied thereon; and a member (110, 150) moveable with respect to the base portion, the member (110, 150) configured to selectively extend away from and be longitudinally aligned with the base portion when the reinforcing element is received within the cavity such that the reinforcing element defines a first length (L 1) when the member (110, 150) is in a first position with respect to the base portion, and a second length (L 1 + L 2) when the member (110, 150) is in a second position extending away from and longitudinally aligned with the base portion, the second length (L 1 + L 2) being greater than the first length (L 1).
A thrust reverser system with an axial centerline, comprising: a first translating element comprising a translating cascade; a second translating element comprising a translating sleeve; an actuator mechanism attached to the first translating element and the second translating element; and a fixed structure, wherein the actuator mechanism is mounted to the fixed structure and is configured to translate the translating cascade between a stowed position and a deployed position, wherein in the stowed position, an aft portion of the translating cascade projects axially into a channel in the translating sleeve, such that the translating sleeve axially covers the aft portion of the translating cascade, characterised in that the actuator mechanism is configured to translate the first translating element substantially along the axial centerline at a first rate, and the actuator mechanism configured to translate the second translating element substantially along the axial centerline at a second rate that is different than the first rate, wherein, in the stowed position, a forward portion of the translating cascade projects axially into a channel in the fixed structure, such that the fixed structure axially covers the forward portion of the translating cascade, wherein, in the deployed position, the fixed structure at least partially uncovers the forward portion of the translating cascade. a first translating element comprising a translating cascade; a second translating element comprising a translating sleeve; an actuator mechanism attached to the first translating element and the second translating element; and a fixed structure, wherein the actuator mechanism is mounted to the fixed structure and is configured to translate the translating cascade between a stowed position and a deployed position, wherein in the stowed position, an aft portion of the translating cascade projects axially into a channel in the translating sleeve, such that the translating sleeve axially covers the aft portion of the translating cascade, characterised in that the actuator mechanism is configured to translate the first translating element substantially along the axial centerline at a first rate, and the actuator mechanism configured to translate the second translating element substantially along the axial centerline at a second rate that is different than the first rate, wherein, in the stowed position, a forward portion of the translating cascade projects axially into a channel in the fixed structure, such that the fixed structure axially covers the forward portion of the translating cascade, wherein, in the deployed position, the fixed structure at least partially uncovers the forward portion of the translating cascade.
An apparatus for charging and controlling a wearable device (106;31) comprising: a symmetrical contact interface comprising a first contact pad and a second contact pad, the symmetrical contact interface being configured to couple with a connector of a cable providing a two-line communication path, the first contact pad and the second contact pad being configured to accept pins (1, 2) from the connector; a first transistor having a first source connected to a device voltage terminal (SYSTEM_V), a first gate connected to a second input path (PWR_IN_2), and a drain connected to a first input path (PWR_IN_1), wherein the first contact pad is connected to the first input path (PWR_IN_1); a second transistor having a second source connected to the device voltage terminal (SYSTEM_V), a second gate connected to the first input path (PWR_IN_1), and a second drain connected to the second input path (PWR_IN_2), wherein the second contact pad is connected to the second input path (PWR_IN_2); a third transistor having a third source connected to a device ground, a third gate connected to the second input path (PWR_IN_2), and a third drain connected to the first input path (PWR_IN_1); and fourth transistor having a further source connected to the device ground, a fourth gate connected to the first input path (PWR_IN_1), and a fourth drain connected to the second input path (PWR_IN_2). a symmetrical contact interface comprising a first contact pad and a second contact pad, the symmetrical contact interface being configured to couple with a connector of a cable providing a two-line communication path, the first contact pad and the second contact pad being configured to accept pins (1, 2) from the connector; a first transistor having a first source connected to a device voltage terminal (SYSTEM_V), a first gate connected to a second input path (PWR_IN_2), and a drain connected to a first input path (PWR_IN_1), wherein the first contact pad is connected to the first input path (PWR_IN_1); a second transistor having a second source connected to the device voltage terminal (SYSTEM_V), a second gate connected to the first input path (PWR_IN_1), and a second drain connected to the second input path (PWR_IN_2), wherein the second contact pad is connected to the second input path (PWR_IN_2); a third transistor having a third source connected to a device ground, a third gate connected to the second input path (PWR_IN_2), and a third drain connected to the first input path (PWR_IN_1); and fourth transistor having a further source connected to the device ground, a fourth gate connected to the first input path (PWR_IN_1), and a fourth drain connected to the second input path (PWR_IN_2).
A method for producing a super absorbent polymer, the method comprising the steps of: carrying out a cross-linking polymerization of a monomer composition including a monomer containing a water-soluble ethylenically unsaturated compound or a salt thereof, a foaming agent and a porous aerogel in the presence of an internal crosslinking agent; and drying, pulverizing and classifying the cross-linked hydrogel polymer, wherein the porous aerogel is a composite aerogel of one or more metal oxides selected from the group consisting of alkali metals and alkaline earth metals, and silica aerogel, which includes a plurality of nanopores. carrying out a cross-linking polymerization of a monomer composition including a monomer containing a water-soluble ethylenically unsaturated compound or a salt thereof, a foaming agent and a porous aerogel in the presence of an internal crosslinking agent; and drying, pulverizing and classifying the cross-linked hydrogel polymer, wherein the porous aerogel is a composite aerogel of one or more metal oxides selected from the group consisting of alkali metals and alkaline earth metals, and silica aerogel, which includes a plurality of nanopores.