mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a liposome, comprising dissolving a substance to-be-entrapped and a phospholipid in an organic solvent to obtain an organic phase, and then mixing the organic phase with an aqueous phase to obtain a liposome feed liquid; extruding the liposome feed liquid obtained in step through a polycarbonate membrane; and lyophilizing, wherein the phospholipid is a combination of yolk phosphatidylcholine and hydrogenated soybean phosphatidylcholine; and the substance to-be-entrapped is moexitecan. dissolving a substance to-be-entrapped and a phospholipid in an organic solvent to obtain an organic phase, and then mixing the organic phase with an aqueous phase to obtain a liposome feed liquid; extruding the liposome feed liquid obtained in step through a polycarbonate membrane; and lyophilizing, wherein the phospholipid is a combination of yolk phosphatidylcholine and hydrogenated soybean phosphatidylcholine; and the substance to-be-entrapped is moexitecan. wherein the phospholipid is a combination of yolk phosphatidylcholine and hydrogenated soybean phosphatidylcholine; and the substance to-be-entrapped is moexitecan.
An organoclay composition comprising: a phyllosilicate clay; and quaternary ammonium ions having a formula of [N-R 1 R 2 R 3 R4] + wherein one or more of R 1 , R 2 and R 3 is a mixture of branched alkyl groups, each branched alkyl group having 12 to 22 total carbon atoms, a linear backbone and one or more C 1 to C 3 branching alkyl groups, wherein said branching alkyl groups are distributed at different carbon positions along the linear backbone of the branched alkyl group; and wherein when one or more of R 2 and R 3 is not a branched alkyl group, R 2 and R 3 are a first linear alkyl group having 1 to 22 carbon atoms, wherein R 4 is selected from the group consisting of a second linear alkyl group having 1 to 6 carbon atoms, an aryl group, and combinations thereof. a phyllosilicate clay; and quaternary ammonium ions having a formula of [N-R 1 R 2 R 3 R4] + wherein one or more of R 1 , R 2 and R 3 is a mixture of branched alkyl groups, each branched alkyl group having 12 to 22 total carbon atoms, a linear backbone and one or more C 1 to C 3 branching alkyl groups, wherein said branching alkyl groups are distributed at different carbon positions along the linear backbone of the branched alkyl group; and wherein when one or more of R 2 and R 3 is not a branched alkyl group, R 2 and R 3 are a first linear alkyl group having 1 to 22 carbon atoms, wherein R 4 is selected from the group consisting of a second linear alkyl group having 1 to 6 carbon atoms, an aryl group, and combinations thereof.
A computer operating system programmed to service publish-subscribe interprocess communication events, comprising: a processor programmed to receive a subscription event from a subscribing process , the subscription initiation event comprising a content-filter message , indicating a condition of an object attribute of an operating system publish-subscribe file that determines when the subscribing process is notified of a change to a value of the object attribute ; a memory configured to retain the content-filter message and the associated subscribing process ; the processor further programmed to evaluate the content-filter message condition against an operating system published event received from an operating system publishing process and transmit to the subscribing process a notification event to notify the subscribing process when an evaluation of the content-filter condition is satisfied and where the computer operating system is characterized by the processor being further configured to limit a number of times that content-filter message condition is evaluated, wherein the subscribing process identifies at said subscription initiation event a number of times that said content-filter is to be evaluated or applied. a processor programmed to receive a subscription event from a subscribing process , the subscription initiation event comprising a content-filter message , indicating a condition of an object attribute of an operating system publish-subscribe file that determines when the subscribing process is notified of a change to a value of the object attribute ; a memory configured to retain the content-filter message and the associated subscribing process ; the processor further programmed to evaluate the content-filter message condition against an operating system published event received from an operating system publishing process and transmit to the subscribing process a notification event to notify the subscribing process when an evaluation of the content-filter condition is satisfied and where the computer operating system is characterized by the processor being further configured to limit a number of times that content-filter message condition is evaluated, wherein the subscribing process identifies at said subscription initiation event a number of times that said content-filter is to be evaluated or applied.
Rotor bearing for a wind turbine with an inner ring and an outer ring , which are rotatable relative to one another and delimit a bearing inner space in which at least one row of rolling elements which can roll between the bearing rings is arranged, and with an outlet for discharging lubricating oil emerging from the bearing inner space , wherein the bearing inner space is open towards the outlet so that lubricating oil can be discharged at atmospheric pressure from the bearing inner space via the outlet and the outer ring is designed as a nose ring , on which at least two raceways are formed for rows of rolling elements which can roll between the bearing rings and to which a respective oil collecting ring is connected in a rotationally fixed manner on both sides, which oil collecting rings extend inwards in the radial direction (R) beyond the radially outer edges of the raceways to each form an oil sump , characterized in that the two oil sumps are connected to one another via at least one channel passing through the outer ring .
A method for monitoring a control parameter of a polymerization reaction mixture in heterogeneous phase comprising the steps of: (a) acquiring at least one Near Infrared Spectroscopy, NIR, reflectance spectrum of said mixture; (b) calculating a value of said control parameter by means of a calibration curve which correlates the NIR reflectance spectrum with the values of said control parameter measured with a reference measurement method; characterized in that said control parameter is the average size of the polymer particles which are formed during said polymerization reaction and wherein said average particle size is within the range of 100 μm - 3 mm. (a) acquiring at least one Near Infrared Spectroscopy, NIR, reflectance spectrum of said mixture; (b) calculating a value of said control parameter by means of a calibration curve which correlates the NIR reflectance spectrum with the values of said control parameter measured with a reference measurement method;
A powder coating composition for curing at low temperature between 100°C and 150°C which comprises: a. a carboxylic acid functional resin A which is a polyester resin A having carboxylic acid groups, b. a first glycidyl functional resin B1 which is a bisphenol A based epoxy resin having glycidyl groups, c. a second glycidyl functional resin B2 which is a phenol or cresol epoxy novolac resin having glycidyl groups, and d. at least one thermosetting curing catalyst C; which powder coating composition is mixed in dry-blend with a powder coating comprising: e. at least one carboxylic acid group containing polyester resin D, f. at least one bisphenol A based epoxy resin E1, g. optionally at least one phenol or cresol epoxy novolac resin E2, and h. optionally one thermosetting curing catalyst F. a. a carboxylic acid functional resin A which is a polyester resin A having carboxylic acid groups, b. a first glycidyl functional resin B1 which is a bisphenol A based epoxy resin having glycidyl groups, c. a second glycidyl functional resin B2 which is a phenol or cresol epoxy novolac resin having glycidyl groups, and d. at least one thermosetting curing catalyst C; e. at least one carboxylic acid group containing polyester resin D, f. at least one bisphenol A based epoxy resin E1, g. optionally at least one phenol or cresol epoxy novolac resin E2, and h. optionally one thermosetting curing catalyst F.
A multicore optical fiber of an uncoupled type, comprising: a plurality of cores extending along a predetermined direction; and a cladding covering each of the plurality of cores, wherein each of the plurality of cores includes alkali metal having a predetermined concentration which contributes to reduction in a transmission loss, and the cladding includes a diffusion center position corresponding to a center position of an alkali metal doped region, a distance Λ core-cladding between the diffusion center position and a center position of the core adjacent to the diffusion center position in the plurality of cores is 45 μm or less, characterized in that: the plurality of cores and the cladding contain the same alkali metal having an atomic number equal to or less than that of potassium (K); and where optical power of light propagating through a specific core n of the plurality of cores is set to P n , optical power of light propagating through any one core m of remaining all cores is set to P m , and a power coupling coefficient h between the core n and the core m is defined by the following expression: h = 1 P m − P n dP n dz , a core pitch is set so that a sum h _total of the power coupling coefficients h from the remaining all cores to the specific core is 2.3 × 10 -4 /km or less. a plurality of cores extending along a predetermined direction; and a cladding covering each of the plurality of cores, each of the plurality of cores includes alkali metal having a predetermined concentration which contributes to reduction in a transmission loss, and the cladding includes a diffusion center position corresponding to a center position of an alkali metal doped region, a distance Λ core-cladding between the diffusion center position and a center position of the core adjacent to the diffusion center position in the plurality of cores is 45 μm or less, characterized in that: the plurality of cores and the cladding contain the same alkali metal having an atomic number equal to or less than that of potassium (K); and where optical power of light propagating through a specific core n of the plurality of cores is set to P n , optical power of light propagating through any one core m of remaining all cores is set to P m , and a power coupling coefficient h between the core n and the core m is defined by the following expression: h = 1 P m − P n dP n dz , a core pitch is set so that a sum h _total of the power coupling coefficients h from the remaining all cores to the specific core is 2.3 × 10 -4 /km or less. the plurality of cores and the cladding contain the same alkali metal having an atomic number equal to or less than that of potassium (K); and where optical power of light propagating through a specific core n of the plurality of cores is set to P n , optical power of light propagating through any one core m of remaining all cores is set to P m , and a power coupling coefficient h between the core n and the core m is defined by the following expression: h = 1 P m − P n dP n dz , a core pitch is set so that a sum h _total of the power coupling coefficients h from the remaining all cores to the specific core is 2.3 × 10 -4 /km or less.
A shaft system for transmitting a torque, the shaft system comprising: - a first component configured to deliver torque from a drive shaft (D), said first component having an end section with a curved toothed structure , - a first shaft connectable to the first component , - a second shaft connectable to, and axial extendable relative to, the first shaft , said second shaft having a first end section with a toothed structure , wherein the first shaft comprises a toothed structure configured to mate with the toothed structure of the first component in a first coupling , and to mate with the toothed structure of the second shaft in a second coupling , such that in operation of the shaft system , torque is transferred from the first component to the second shaft via the first and second couplings , characterised in that the first shaft comprises a first end section configured to mate with the end section of the first component , and a second end section configured to mate with the end section of the second shaft , wherein the toothed structure of the first shaft extends from the first end section to the second end section , wherein the second shaft comprises an outer facing surface comprising the toothed structure , said outer facing surface facing away from a centre axis (A) extending through the second shaft , wherein the second shaft comprises a second end section oppositely arranged with respect to the first end section , said toothed structure of the second shaft extending from the first end section to the second end section . - a first component configured to deliver torque from a drive shaft (D), said first component having an end section with a curved toothed structure , - a first shaft connectable to the first component , - a second shaft connectable to, and axial extendable relative to, the first shaft , said second shaft having a first end section with a toothed structure ,
Method for monitoring a belt drive with at least one drive pulley driven by a drive motor , a driven pulley and at least one power-transmitting endless drive belt which is in the form of a traction belt and wraps around the drive and driven pulleys circumferentially over a partial circumference in each case, wherein the belt has precisely one first marking and precisely one first sensor element assigned to the belt is provided, wherein the passage of the first marking is detected by the first sensor element during the belt revolution and the first sensor element has electronic devices for outputting a signal S R dependent on the detection of the first marking , characterized in that the rotor of the drive motor has precisely one second marking and precisely one second sensor element which is provided with corresponding electronic devices and is assigned to the drive motor is provided, wherein, while the rotor is rotating, the passage of the second marking is detected by the second sensor element and a signal S M dependent on the detection of the second marking is output, in that , furthermore, a computing unit provided with memories and processors for processing the signals S R and S M is provided, wherein a temporal or local correlation of the occurrence of the signals S R and S M is calculated in the computing unit when the drive belt is new and is stored as a reference value, wherein the associated signals S R and S M are then repeatedly determined for further specified belt revolutions or periods of time and their current temporal or local correlation of the occurrence is compared with the reference value, wherein a warning or alarm signal is output by the computing device after a specified tolerance value between the current correlation and the reference value has been exceeded.
A phase change memory device , comprising: a first electrode (E10); a second electrode (E20); and a phase change layer (P10) between the first electrode (E10) and the second electrode (E20), the phase change layer (P10) including a layered structure of at least one layer of two-dimensional material, the at least one layer of 2D material configured to at least partially change phase between a first crystalline phase and a second crystalline phase based on an electrical signal applied to the phase change layer (P10) through the first electrode (E10) and the second electrode (E20), the second crystalline phase having a crystalline structure different from the first crystalline phase; characterised in that the 2D material is associated with a phase change temperature that is greater than or equal to 200°C and lower than or equal to 500°C; wherein the 2D material includes (i) a chalcogenide-based material including a mixture of a first chalcogenide-based material and a second chalcogenide-based material, or (ii) a phosphorene. a first electrode (E10); a second electrode (E20); and a phase change layer (P10) between the first electrode (E10) and the second electrode (E20), the phase change layer (P10) including a layered structure of at least one layer of two-dimensional material, the at least one layer of 2D material configured to at least partially change phase between a first crystalline phase and a second crystalline phase based on an electrical signal applied to the phase change layer (P10) through the first electrode (E10) and the second electrode (E20), the second crystalline phase having a crystalline structure different from the first crystalline phase; characterised in that the 2D material is associated with a phase change temperature that is greater than or equal to 200°C and lower than or equal to 500°C; wherein the 2D material includes (i) a chalcogenide-based material including a mixture of a first chalcogenide-based material and a second chalcogenide-based material, or (ii) a phosphorene.
Actuating unit for actuating a flushing device, comprising a bearing plate , at least one actuating element that is movable relative to the bearing plate , and at least one bearing element that is formed in a sprung manner and made of a spring-elastic material, said bearing element being connected to the bearing plate by a first end and to the at least one actuating element by a second end , wherein the bearing element is connected to the bearing plate and/or the actuating element by at least one of the two ends via a form-fitting and force-fitting connection, characterized in that the bearing element is connectable to the bearing plate and the actuating element in a plug-in direction (S), wherein the bearing element and/or the bearing plate and the actuating element , respectively, have at least one stop element which is formed in a sprung manner and prevents any movement counter to the plug-in direction (S), wherein the plug-in direction (S) is oriented at right angles to the rear surface of the bearing plate .
A mark and sign illuminating device comprising: a transparent light guide layer , a light reflecting layer , a first frame rim , and a second frame rim forming an incident lamplight reflecting device, which is an integral part of the mark and sign illuminating device, wherein the transparent light guide layer is located at an upper surface of the lamplight incident and light reflecting device, the light reflecting layer is located at a lower surface of the lamplight incident and light reflecting device, the transparent light guide layer and the light reflecting layer are disposed between the first frame rim and the second frame rim ; a first LED illuminating light source (LED1), and a second LED illuminating light source (LED2), provided in the transparent light guide layer ; a warning mark bottom board located below and in contact with the light reflecting layer , and a component circuit electric box which is mounted on a reverse side of the warning mark bottom board ; wherein the frame rims are packaged inward in a C shape, wherein an inner end face of the first frame rim has an inner prism sheet light reflecting layer , and an inner end face of the second frame rim has an inner arc-shaped reflecting sheet layer ; and the inner prism sheet light reflecting layer and the inner arc-shaped reflecting sheet layer are adhered to the inner end faces of the frame rims so as to be formed integrally, and the surfaces of the inner prism sheet light reflecting layer and the inner arc-shaped reflecting sheet layer are subjected to processes, such as plating, coating and electrophoresis. a transparent light guide layer , a light reflecting layer , a first frame rim , and a second frame rim forming an incident lamplight reflecting device, which is an integral part of the mark and sign illuminating device, wherein the transparent light guide layer is located at an upper surface of the lamplight incident and light reflecting device, the light reflecting layer is located at a lower surface of the lamplight incident and light reflecting device, the transparent light guide layer and the light reflecting layer are disposed between the first frame rim and the second frame rim ; a first LED illuminating light source (LED1), and a second LED illuminating light source (LED2), provided in the transparent light guide layer ; a warning mark bottom board located below and in contact with the light reflecting layer , and a component circuit electric box which is mounted on a reverse side of the warning mark bottom board ; wherein the frame rims are packaged inward in a C shape, wherein an inner end face of the first frame rim has an inner prism sheet light reflecting layer , and an inner end face of the second frame rim has an inner arc-shaped reflecting sheet layer ; and the inner prism sheet light reflecting layer and the inner arc-shaped reflecting sheet layer are adhered to the inner end faces of the frame rims so as to be formed integrally, and the surfaces of the inner prism sheet light reflecting layer and the inner arc-shaped reflecting sheet layer are subjected to processes, such as plating, coating and electrophoresis.
Method for regulating low- and medium-voltage networks, wherein at least one lower control unit is respectively assigned to at least two sub-networks of a main network , wherein an upper control unit is assigned to the main network , wherein the main network is a medium- or low-voltage network, wherein which the sub-networks are low-voltage networks or low-voltage network sections, wherein the lower control units are each connected to a plurality of lower actuators , which lower actuators can change the state of the respective sub-network , wherein the lower control units aggregate data of the respectively associated lower actuators , wherein the aggregated data are transmitted by the lower control units to the upper control unit , wherein the upper control unit evaluates a state of the main network , characterized in that the upper control unit , in the event of a state of the main network meriting change, issues a change command to at least one selected lower control unit to change the state of the associated sub-network , wherein a change in the state of the associated sub-network simultaneously also causes a change in the state of the main network by means of a lower actuator and wherein the selected lower control unit is selected based on the aggregated data, wherein the change command comprises at least one power value, wherein the change command contains, in addition to the power value, a statement as to whether the sub-network should accept the power value or pass it on to the main network , wherein the selected lower control unit decides, based on the change command, which changes are made within the sub-network to change the state of the main network , wherein, in the event of a failure of the lower control unit , the upper control unit communicates with subordinate elements of the lower control unit .