mhurhangee/ep-ind-claims huggingface dataset:
A transdermal application system, comprising: a cold flowing active-substance-containing matrix, wherein the polymers forming the cold flowing active-substance-containing matrix are selected from: natural rubber, synthetic rubber, acrylic-based homopolymers, polyvinyl acetate, polyisobutylene, silicones, hydrogels and polyethylene oxide polymers, a backing layer impermeable to active substances and a releasable protective film, wherein the matrix is arranged between the backing layer and the protective film, the backing layer is configured to overlap the edges of the matrix with the overlap of the backing layer over the edges of the matrix being larger than the distance between the backing layer and the releasable protective film at the edge of the matrix, wherein the overlap of the edges of the backing layer over the edges of the matrix has a value selected from the range of two to ten times the distance of the backing layer from the protective film at the edge of the matrix, preferably from the range of two to five times, and particularly preferably from the range of two to three times, and wherein at least the surface of the backing layer resting on the protective film is provided with a pressure-sensitive adhesive coating. a cold flowing active-substance-containing matrix, wherein the polymers forming the cold flowing active-substance-containing matrix are selected from: natural rubber, synthetic rubber, acrylic-based homopolymers, polyvinyl acetate, polyisobutylene, silicones, hydrogels and polyethylene oxide polymers, a backing layer impermeable to active substances and a releasable protective film, wherein the matrix is arranged between the backing layer and the protective film, the backing layer is configured to overlap the edges of the matrix with the overlap of the backing layer over the edges of the matrix being larger than the distance between the backing layer and the releasable protective film at the edge of the matrix, wherein the overlap of the edges of the backing layer over the edges of the matrix has a value selected from the range of two to ten times the distance of the backing layer from the protective film at the edge of the matrix, preferably from the range of two to five times, and particularly preferably from the range of two to three times, and wherein at least the surface of the backing layer resting on the protective film is provided with a pressure-sensitive adhesive coating.
A mobile aggregate processing apparatus comprising: - a chassis; - a first conveyor, wherein the first conveyor is slidably mounted, between a first position and second position, to the chassis - a second conveyor, wherein the second conveyor is pivotally mounted to the chassis, and wherein the second conveyor comprises an incline conveyor able to rotate about an axis relative to the chassis; and, - a slider-crank linkage, wherein the slider-crank linkage connects, directly or indirectly, the first conveyor and second conveyor. - a chassis; - a first conveyor, wherein the first conveyor is slidably mounted, between a first position and second position, to the chassis - a second conveyor, wherein the second conveyor is pivotally mounted to the chassis, and wherein the second conveyor comprises an incline conveyor able to rotate about an axis relative to the chassis; and, - a slider-crank linkage, wherein the slider-crank linkage connects, directly or indirectly, the first conveyor and second conveyor.
A method for receiving uplink transmission by a base station in a wireless communication system, the method comprising: transmitting, to a user equipment, UE,, sounding reference signal, SRS, configuration information related to one or more SRS resource sets that each comprises a plurality of SRS resources; and receiving, from the UE, an SRS that is transmitted by the UE with a first transmission power on an SRS resource set among the one or more SRS resource sets, wherein the configuration information includes information related to an SRS transmission power control, characterized in that the first transmission power is determined based on the information related to the SRS transmission power control associated with the SRS resource set, wherein the information related to the SRS transmission power control is applied for all of SRS resources within the SRS resource set, wherein the first transmission power is determined based on at least one index related to a path-loss estimate, and wherein the at least one index is related to the SRS resource set and synchronization signal block, SSB, used for estimating the path-loss. transmitting, to a user equipment, UE,, sounding reference signal, SRS, configuration information related to one or more SRS resource sets that each comprises a plurality of SRS resources; and receiving, from the UE, an SRS that is transmitted by the UE with a first transmission power on an SRS resource set among the one or more SRS resource sets, wherein the configuration information includes information related to an SRS transmission power control, characterized in that the first transmission power is determined based on the information related to the SRS transmission power control associated with the SRS resource set, wherein the information related to the SRS transmission power control is applied for all of SRS resources within the SRS resource set, wherein the first transmission power is determined based on at least one index related to a path-loss estimate, and wherein the at least one index is related to the SRS resource set and synchronization signal block, SSB, used for estimating the path-loss.
A system for treating a tissue site on a patient with reduced pressure, the system comprising: a distribution manifold for disposing proximate to the tissue site; a sealing member for disposing over the distribution manifold and at least a portion of intact epidermis of the patient, wherein the sealing member comprises at least a portion that is substantially transparent; a reduced-pressure source associated with the distribution manifold for providing reduced pressure to the distribution manifold; and characterised by a leak-detection member sized and configured to substantially surround the distribution manifold, wherein the leak-detection member comprises a detection material that develops a color contrast when a portion of the detection material is exposed to air and a portion is not exposed to air. a distribution manifold for disposing proximate to the tissue site; a sealing member for disposing over the distribution manifold and at least a portion of intact epidermis of the patient, wherein the sealing member comprises at least a portion that is substantially transparent; a reduced-pressure source associated with the distribution manifold for providing reduced pressure to the distribution manifold; and characterised by a leak-detection member sized and configured to substantially surround the distribution manifold, wherein the leak-detection member comprises a detection material that develops a color contrast when a portion of the detection material is exposed to air and a portion is not exposed to air.
Connection device for pipelines, having a connection body with a receiving opening for a pipeline which is to be plugged by a line end in a plug-in direction, wherein a supporting sleeve is arranged coaxially within the receiving opening in such a way that, during plugging in, the line end can be pushed onto a cylindrical outer surface of the supporting sleeve by means of a mounting force, and a holding element for fixing the plugged-in line end against extraction is mounted within the receiving opening, wherein at least one circumferential seal is arranged within the connection body and outwardly seals a radial annular gap formed between the line end and the connection body, wherein the circumferential seal generates a haptic signal in the form of a sudden increase in the plug-in resistance when the line end strikes the circumferential seal, wherein the supporting sleeve has at least one sensor element, wherein the supporting sleeve forms a pipe stop which cannot be overcome in the plug-in direction behind the sensor element (10, 11), characterized in that the sensor element generates a second haptic signal in the form of a sudden increase in the plug-in resistance dependent on a plug-in depth of the line end in the plug-in direction behind the circumferential seal within the connection body, the supporting sleeve has one or more radially elastic tabs which extend in the plug-in direction and which project radially outwardly from the cylindrical outer surface of the supporting sleeve with a splaying height with respect to the plug-in direction, and the sensor element is arranged on at least one free end on the outer circumference of at least one tab, wherein the sensor element is designed as a radially outwardly pointing projection. characterized in that the sensor element generates a second haptic signal in the form of a sudden increase in the plug-in resistance dependent on a plug-in depth of the line end in the plug-in direction behind the circumferential seal within the connection body, the supporting sleeve has one or more radially elastic tabs which extend in the plug-in direction and which project radially outwardly from the cylindrical outer surface of the supporting sleeve with a splaying height with respect to the plug-in direction, and the sensor element is arranged on at least one free end on the outer circumference of at least one tab, wherein the sensor element is designed as a radially outwardly pointing projection.
An apparatus for automatically adjusting tracking of one or more blades (304, 306, 308) of an aircraft, the apparatus comprising: a blade tracking adjustment mechanism comprising an electric motor configured to be connected to an eccentric axis pitch horn clevis of each of the one or more blades (304, 306, 308) wherein a pitch of each blade (304, 306, 308) is adjusted by rotating the eccentric axis pitch horn clevis using the electric motor to create an effective shorter or longer pitch link length to adjust individual blade tracking; a blade tracking measurement system that measures the tracking of each of the one or more blades (304, 306, 308); and a processor that receives an output from the blade tracking measurement system with tracking information for each of the one or more blades (304, 306, 308), wherein the processor controls the blade tracking adjustment mechanism to change the pitch of at least one of the one or more of the blades (304, 306, 308) independently of the other blades to adjust the tracking of at least one of the one or more blades (304, 306, 308) independently of the other blades, wherein the eccentric axis pitch horn clevis for each blade to be adjusted is adjusted by the blade tracking adjustment mechanism, using the electric motor, under the control of the processor. a blade tracking adjustment mechanism comprising an electric motor configured to be connected to an eccentric axis pitch horn clevis of each of the one or more blades (304, 306, 308) wherein a pitch of each blade (304, 306, 308) is adjusted by rotating the eccentric axis pitch horn clevis using the electric motor to create an effective shorter or longer pitch link length to adjust individual blade tracking; a blade tracking measurement system that measures the tracking of each of the one or more blades (304, 306, 308); and a processor that receives an output from the blade tracking measurement system with tracking information for each of the one or more blades (304, 306, 308), wherein the processor controls the blade tracking adjustment mechanism to change the pitch of at least one of the one or more of the blades (304, 306, 308) independently of the other blades to adjust the tracking of at least one of the one or more blades (304, 306, 308) independently of the other blades, wherein the eccentric axis pitch horn clevis for each blade to be adjusted is adjusted by the blade tracking adjustment mechanism, using the electric motor, under the control of the processor.
Method for determining the direction of fault in an electrical power system comprising the steps of: measuring a voltage at a measurement node of the electrical power system, storing at least the phase (φ PF) of the measured voltage (V PF) before the occurrence of a fault, and determining at least the phase (φ F) of the measured voltage (V F) at the end of a time interval following directly after a detection of said fault has been made, characterised by the further steps of determining a phase offset (φ o) as the difference between the phase (φ PF) of the measured voltage (V PF) before the fault and the phase (φ F) of the measured voltage (V F) at the end of the time interval, adjusting the phase of the measured voltage (V F) with said phase offset (φ o) after the detection of the fault and after said time interval has elapsed, and using the adjusted measured voltage in determining the direction of fault in relation to said measurement node. measuring a voltage at a measurement node of the electrical power system, storing at least the phase (φ PF) of the measured voltage (V PF) before the occurrence of a fault, and determining at least the phase (φ F) of the measured voltage (V F) at the end of a time interval following directly after a detection of said fault has been made, characterised by the further steps of determining a phase offset (φ o) as the difference between the phase (φ PF) of the measured voltage (V PF) before the fault and the phase (φ F) of the measured voltage (V F) at the end of the time interval, adjusting the phase of the measured voltage (V F) with said phase offset (φ o) after the detection of the fault and after said time interval has elapsed, and using the adjusted measured voltage in determining the direction of fault in relation to said measurement node.
A method for a device of a tyre monitoring system comprising: causing, by the device, at least one tyre monitoring device mounted on a wheel to measure a tyre pressure and to indicate a status using an indicator provided on the tyre monitoring device; receiving, from the at least one tyre monitoring device, data representative of the status of the at least one tyre monitoring device; receiving input representative of the status indicated on the indicator of the at least one tyre monitoring device; comparing the received data representative of the status with the received input representative of the status; and taking action based on the result of the comparing. causing, by the device, at least one tyre monitoring device mounted on a wheel to measure a tyre pressure and to indicate a status using an indicator provided on the tyre monitoring device; receiving, from the at least one tyre monitoring device, data representative of the status of the at least one tyre monitoring device; receiving input representative of the status indicated on the indicator of the at least one tyre monitoring device; comparing the received data representative of the status with the received input representative of the status; and taking action based on the result of the comparing.
A centrifugal separator for cleaning gas containing contaminants comprising a stationary casing, enclosing a separation space through which a gas flow is permitted, said stationary casing comprising a surrounding side wall, an upper end wall and a lower end wall, a gas inlet extending through the stationary casing and permitting supply of the gas to be cleaned, a rotating member comprising a plurality of separation members arranged in said separation space and being arranged to rotate around an axis of rotation; a gas outlet arranged in the stationary casing and configured to permit discharge of cleaned gas and comprising an outlet opening through a wall of the stationary casing, a drainage outlet arranged in a lower portion of the stationary casing and configured to permit discharge of liquid contaminants separated from the gas to be cleaned; a drive member for rotating the rotating member; characterized in that the centrifugal separator further comprises at least one guiding vane arranged for guiding separated liquid impurities on the inner surface of the lower end wall from a radial outer position to the drainage outlet; and wherein the centrifugal separator further comprises a radial disc element arranged on top of the at least one guiding vane, wherein the radial disc element extends radially in the separation space to a position that is radially inwards from the surrounding side wall, thereby forming an annular channel for separated liquid impurities at the inner surface of the surrounding side wall. a stationary casing, enclosing a separation space through which a gas flow is permitted, said stationary casing comprising a surrounding side wall, an upper end wall and a lower end wall, a gas inlet extending through the stationary casing and permitting supply of the gas to be cleaned, a rotating member comprising a plurality of separation members arranged in said separation space and being arranged to rotate around an axis of rotation; a gas outlet arranged in the stationary casing and configured to permit discharge of cleaned gas and comprising an outlet opening through a wall of the stationary casing, a drainage outlet arranged in a lower portion of the stationary casing and configured to permit discharge of liquid contaminants separated from the gas to be cleaned; a drive member for rotating the rotating member; characterized in that the centrifugal separator further comprises at least one guiding vane arranged for guiding separated liquid impurities on the inner surface of the lower end wall from a radial outer position to the drainage outlet; and wherein the centrifugal separator further comprises a radial disc element arranged on top of the at least one guiding vane, wherein the radial disc element extends radially in the separation space to a position that is radially inwards from the surrounding side wall, thereby forming an annular channel for separated liquid impurities at the inner surface of the surrounding side wall.
A process for the alkylation of an aromatic hydrocarbon to produce at least one product, the process comprising contacting a stoichiometric excess of the aromatic hydrocarbon with a C 2 to C 4 olefin under at least partial liquid phase conditions with a catalyst comprising zeolite beta which has been prepared by a process comprising the following steps: (a) preparing a reaction mixture comprising at least one active source of silica, optionally at least one active source of alumina, an organic templating agent capable of forming said crystalline zeolite, and sufficient water to shape said mixture; and (b) heating said reaction mixture at crystallization conditions and in the absence of an external liquid phase for sufficient time to form a crystallized material containing crystals of said zeolite, wherein said zeolite crystals have a silica/alumina ratio greater than 15; wherein the said catalyst has a water adsorption capacity of greater than 12 wt%, a microporosity of greater than 0.13 cc/gm and a total acidity greater than 0.7 mmole/gm; wherein the total acidity is measured by temperature programmed desorption of isopropylamine between 280°C and 500°C carried out by the procedure set forth in Example 6 in the description; and wherein the water adsorption capacity is measured using the H Corr-Purcell-Meiboom-Gill method. (a) preparing a reaction mixture comprising at least one active source of silica, optionally at least one active source of alumina, an organic templating agent capable of forming said crystalline zeolite, and sufficient water to shape said mixture; and (b) heating said reaction mixture at crystallization conditions and in the absence of an external liquid phase for sufficient time to form a crystallized material containing crystals of said zeolite, wherein said zeolite crystals have a silica/alumina ratio greater than 15; wherein the said catalyst has a water adsorption capacity of greater than 12 wt%, a microporosity of greater than 0.13 cc/gm and a total acidity greater than 0.7 mmole/gm; wherein the total acidity is measured by temperature programmed desorption of isopropylamine between 280°C and 500°C carried out by the procedure set forth in Example 6 in the description; and wherein the water adsorption capacity is measured using the H Corr-Purcell-Meiboom-Gill method.
An erythrocyte containing cytosolic superparamagnetic nanoparticulate iron oxide, characterised in that the erythrocyte is viable, having a lifespan comparable to that of untreated erythrocytes.
A detection system for detecting a biologically active analyte molecule comprising: a substrate comprising a plurality of waveguides and a plurality of optical sensing sites in optical communication with one or more waveguide of the substrate; and a detector that is coupled to and in optical communication with the substrate, characterized in that the system further comprises: a scanning light source comprising a chip having a plurality of light sources; and means for spatially translating a plurality of light beams emitted from said scanning light source perpendicularly relative to the substrate to generate a pulse of light travelling in each waveguide such that each light beam is coupled to and in optical communication with only one of the waveguides of the substrate at some point along its scanning path. a substrate comprising a plurality of waveguides and a plurality of optical sensing sites in optical communication with one or more waveguide of the substrate; and a detector that is coupled to and in optical communication with the substrate, characterized in that the system further comprises: a scanning light source comprising a chip having a plurality of light sources; and means for spatially translating a plurality of light beams emitted from said scanning light source perpendicularly relative to the substrate to generate a pulse of light travelling in each waveguide such that each light beam is coupled to and in optical communication with only one of the waveguides of the substrate at some point along its scanning path. a scanning light source comprising a chip having a plurality of light sources; and means for spatially translating a plurality of light beams emitted from said scanning light source perpendicularly relative to the substrate to generate a pulse of light travelling in each waveguide such that each light beam is coupled to and in optical communication with only one of the waveguides of the substrate at some point along its scanning path.
A fastening plate type parking device, comprising a framework with an upright pillar and a control system able to control the movement of the parking device, wherein a lifting and lowering mechanism and an upper parking plate are mounted on the framework, and the lifting and lowering mechanism is connected to the upper parking plate and is used for driving the upper parking plate to move up and down along the framework; and a lower parking plate placed on a ground parking space is also arranged below the upper parking plate, characterised in that said lower parking plate is designed to be so rotatable and so movable that a rotation by a certain angle after automatically moving forward to a passage and then a continued movement forward is possible, the parking device being configured such that, when the upper parking plate needs to be lowered, if the control system detects that a vehicle is parked on the lower parking plate, then the lower parking plate rotates by a certain angle after automatically moving forward to a passage and continues to move forward to make ground space for the lowering position of the upper parking plate and an access passage for the front end of the upper parking plate, and then, the upper parking plate moves downward to the ground via the lifting and lowering mechanism; whereas if the control system detects that no vehicle is parked on the lower parking plate, then the lower parking plate is not started, the upper parking plate moves downward to the lower parking plate via the lifting and lowering mechanism and is stacked and fastened on the lower parking plate.