mhurhangee/ep-ind-claims huggingface dataset:
A transdermal preparation comprising: a non-liquid drug reservoir layer having first and second principal surfaces and containing bisoprolol or a pharmaceutically allowable salt thereof and a polymer that is to be a base; a drug permeation layer disposed at the first principal surface side of the drug reservoir layer; and a first backing with a bending resistance of 10 to 80 mm that is formed so as to cover a side surface of the drug reservoir layer, wherein the polymer that is to be the base of the drug reservoir layer is a (meth)acrylic-based polymer or a cellulose derivative, and wherein the drug permeation layer contains a styrene-based block copolymer with a content of 5 to 30% by mass. a non-liquid drug reservoir layer having first and second principal surfaces and containing bisoprolol or a pharmaceutically allowable salt thereof and a polymer that is to be a base; a drug permeation layer disposed at the first principal surface side of the drug reservoir layer; and a first backing with a bending resistance of 10 to 80 mm that is formed so as to cover a side surface of the drug reservoir layer,
A method for analysing the frequency of interaction of two or more bait nucleotide sequences with one or more nucleotide sequences of interest ( eg. one or more genomic loci) comprising the steps of: (a) providing a sample of cross-linked DNA; (b) digesting the cross-linked DNA with a primary restriction enzyme; (c) ligating the cross-linked nucleotide sequences; (d) reversing the cross linking; (e) optionally digesting the nucleotide sequences with a secondary restriction enzyme; (f) optionally ligating one or more DNA sequences of known nucleotide composition to the available secondary restriction enzyme digestion site(s) that flank the one or more nucleotide sequences of interest; (g) amplifying the one or more nucleotide sequences of interest using at least two oligonucleotide primers, wherein each primer hybridises to the DNA sequences that flank the nucleotide sequences of interest using multiplex PCR; (h) hybridising the amplified sequence(s) to an array; and (i) determining the frequency of interaction between the DNA sequences wherein the ligation products between bait sequences and cross-linked sequences are analysed by means of high-throughput sequencing. (a) providing a sample of cross-linked DNA; (b) digesting the cross-linked DNA with a primary restriction enzyme; (c) ligating the cross-linked nucleotide sequences; (d) reversing the cross linking; (e) optionally digesting the nucleotide sequences with a secondary restriction enzyme; (f) optionally ligating one or more DNA sequences of known nucleotide composition to the available secondary restriction enzyme digestion site(s) that flank the one or more nucleotide sequences of interest; (g) amplifying the one or more nucleotide sequences of interest using at least two oligonucleotide primers, wherein each primer hybridises to the DNA sequences that flank the nucleotide sequences of interest using multiplex PCR; (h) hybridising the amplified sequence(s) to an array; and (i) determining the frequency of interaction between the DNA sequences wherein the ligation products between bait sequences and cross-linked sequences are analysed by means of high-throughput sequencing.
Method of communication in respect of transmitting/receiving stations (1, 2) in a wireless communication network, in which method first multi-receiver frames (RTS, CTS) are exchanged between a station and a plurality of other stations and second mono-receiver frames (DATA, ACK) are exchanged between a transmitting station and a receiving station, the first multi-receiver frames (RTS, CTS) being transmitted in an omnidirectional manner and the second mono-receiver frames (DATA, ACK) being transmitted in a directional manner, characterized in that the mono-receiver frames are modulated by a modulation with a first number of phases and the multi-receiver frames are modulated by a modulation with a second number of phases, said first number of phases being higher than the second number of phases, and in that the mono-receiver frames are coded with a first forward error correction rate and the multi-receiver frames are coded with a second forward error correction, said first rate being higher than the second rate.
A method of obtaining a spatial power spectrum from L sound signals captured during a time interval by L respective sound sensors, the method comprising: deriving a covariance matrix R of the sound captured by the L sensors; for each direction of a predetermined set of directions, (i) deriving a respective steering vector e, wherein the steering vector e is a vector with a number of components equal to the number of sensors L, and with each component indicating the relative phase with respect to a reference point in an array, of a wavefront propagating in that direction, and (ii) obtaining a set of L weights w which minimize w H Rw subject to a constraint which is a function of the steering vector and a covariance matrix of sound captured by the sensors, wherein the constraint is in the form w H ee H w + βw H R Q w = c, where β is a control variable, c is an arbitrary constant, and R Q is a noise covariance matrix; and (iii) using the weights w to obtain a power value for the direction. deriving a covariance matrix R of the sound captured by the L sensors; for each direction of a predetermined set of directions, (i) deriving a respective steering vector e, wherein the steering vector e is a vector with a number of components equal to the number of sensors L, and with each component indicating the relative phase with respect to a reference point in an array, of a wavefront propagating in that direction, and (ii) obtaining a set of L weights w which minimize w H Rw subject to a constraint which is a function of the steering vector and a covariance matrix of sound captured by the sensors, wherein the constraint is in the form w H ee H w + βw H R Q w = c, where β is a control variable, c is an arbitrary constant, and R Q is a noise covariance matrix; and (iii) using the weights w to obtain a power value for the direction. (i) deriving a respective steering vector e, wherein the steering vector e is a vector with a number of components equal to the number of sensors L, and with each component indicating the relative phase with respect to a reference point in an array, of a wavefront propagating in that direction, and (ii) obtaining a set of L weights w which minimize w H Rw subject to a constraint which is a function of the steering vector and a covariance matrix of sound captured by the sensors, wherein the constraint is in the form w H ee H w + βw H R Q w = c, where β is a control variable, c is an arbitrary constant, and R Q is a noise covariance matrix; and (iii) using the weights w to obtain a power value for the direction.
An integrated blower and humidification system for providing heated humidified gases to a user, comprising: a humidifier unit adapted to contain a volume of water and also adapted for use in conjunction with a heater base such that said volume of water can be heated, said humidifier unit having a gases inlet port, a gases outlet port and a top fill aperture, a blower unit having an outer casing and having a humidifier compartment into which said humidifier unit locates in use, said humidifier unit substantially enclosed within said compartment in use, said compartment having the heater base, said blower unit further having an inlet vent open to atmosphere on said outer casing, a blower inlet port, a gases path running between said inlet vent and said blower inlet port, and a fan unit to provide a pressurised gases stream along said gases path, in use said blower inlet port and said humidifier gases inlet port aligned to provide a gases route for gases exiting said blower unit via said blower inlet port and entering said humidifier unit via said humidifier gases inlet port, said gases exiting said humidifier unit via said humidifier gases outlet port, a connector to allow said gases stream exiting said humidifier unit to enter a patient interface, a lid unit (22, 32), said lid unit (22, 32) and said blower unit adapted to mutually connect in such a manner that said lid unit (22, 32) closes and seals said humidifier unit, and said humidifier unit is held in position in said humidifier compartment. a humidifier unit adapted to contain a volume of water and also adapted for use in conjunction with a heater base such that said volume of water can be heated, said humidifier unit having a gases inlet port, a gases outlet port and a top fill aperture, a blower unit having an outer casing and having a humidifier compartment into which said humidifier unit locates in use, said humidifier unit substantially enclosed within said compartment in use, said compartment having the heater base, said blower unit further having an inlet vent open to atmosphere on said outer casing, a blower inlet port, a gases path running between said inlet vent and said blower inlet port, and a fan unit to provide a pressurised gases stream along said gases path, in use said blower inlet port and said humidifier gases inlet port aligned to provide a gases route for gases exiting said blower unit via said blower inlet port and entering said humidifier unit via said humidifier gases inlet port, said gases exiting said humidifier unit via said humidifier gases outlet port, a connector to allow said gases stream exiting said humidifier unit to enter a patient interface, a lid unit (22, 32), said lid unit (22, 32) and said blower unit adapted to mutually connect in such a manner that said lid unit (22, 32) closes and seals said humidifier unit, and said humidifier unit is held in position in said humidifier compartment.
A light curing unit for dental use comprising: a case including a case body having therein a light curing space and provided with an opening portion in communication with the light curing space and a door configured to close the opening portion; one or more light emitting sources (17,19) disposed at an inner wall portion of the case body to radiate light to a dental prosthesis made of a light curable material disposed in the light curing space; a power supply circuit disposed in the case body to supply electric power to the one or more light emitting sources (17,19) according to a condition set using one or more setting switches (23 to 27) each having a key top (23A to 27A); and a door opening/closing detection means for allowing the electric power to be supplied from the power supply circuit to the one or more light emitting sources (17,19) only when the door is closed, characterized in that: the one or more setting switches (23 to 27) are disposed at a position at which the one or more setting switches are operable when the door is opened, and at which the one or more setting switches are hidden by the door and each key top (23A to 27A) is not exposed to the light from the one or more light emitting sources (17,19) when the door is closed. a case including a case body having therein a light curing space and provided with an opening portion in communication with the light curing space and a door configured to close the opening portion; one or more light emitting sources (17,19) disposed at an inner wall portion of the case body to radiate light to a dental prosthesis made of a light curable material disposed in the light curing space; a power supply circuit disposed in the case body to supply electric power to the one or more light emitting sources (17,19) according to a condition set using one or more setting switches (23 to 27) each having a key top (23A to 27A); and a door opening/closing detection means for allowing the electric power to be supplied from the power supply circuit to the one or more light emitting sources (17,19) only when the door is closed, characterized in that: the one or more setting switches (23 to 27) are disposed at a position at which the one or more setting switches are operable when the door is opened, and at which the one or more setting switches are hidden by the door and each key top (23A to 27A) is not exposed to the light from the one or more light emitting sources (17,19) when the door is closed.
A method for assigning a smoke detector to be registered to a user profile of a smoke detector management system, comprising the following steps: - Establishing a data connection between the smoke detector and a server of the smoke detector management system, the smoke detector being connected directly to the server via narrowband Internet of Things, and transmitting first identification data of the smoke detector to be registered to the server via the data connection between the smoke detector and the server, the first identification data having an alphanumeric code uniquely assigned to the smoke detector; - Establishing a data connection between a mobile device and the server; - Logging into the user profile by means of the mobile device using user identification data uniquely assigned to the user profile; - Transmitting second identification data of the smoke detector to be registered from the smoke detector to be registered to the mobile device; - Transmitting the second identification data to the server by the mobile device, or transmitting the second identification data and the user identification data to the server by the mobile device; and - Identifying the smoke detector by means of the first and second identification data (6; 7) and assigning the smoke detector to the logged-in user profile or the user profile corresponding to the user identification data. - Establishing a data connection between the smoke detector and a server of the smoke detector management system, the smoke detector being connected directly to the server via narrowband Internet of Things, and transmitting first identification data of the smoke detector to be registered to the server via the data connection between the smoke detector and the server, the first identification data having an alphanumeric code uniquely assigned to the smoke detector; - Establishing a data connection between a mobile device and the server; - Logging into the user profile by means of the mobile device using user identification data uniquely assigned to the user profile; - Transmitting second identification data of the smoke detector to be registered from the smoke detector to be registered to the mobile device; - Transmitting the second identification data to the server by the mobile device, or transmitting the second identification data and the user identification data to the server by the mobile device; and - Identifying the smoke detector by means of the first and second identification data (6; 7) and assigning the smoke detector to the logged-in user profile or the user profile corresponding to the user identification data.
A rearview assembly (10; 10a) for a vehicle, the rearview assembly (10; 10a) comprising: an electro-optic mirror element that reflects images from the rear of the vehicle, wherein the reflected images may be dimmed in response to a detection of glare light from headlights of a trailing vehicle; a display (30; 30a) positioned behind the electro-optic mirror element for displaying images of a rearward scene to a driver of the vehicle; a user input for receiving user adjustment of an extent to which the displayed images are to be dimmed to reduce glare light from headlights of trailing vehicles; and a processor coupled to the electro-optic mirror element, the user input, and the display (30; 30a) for adjusting the extent to which the displayed images are dimmed in response to user adjustment via the user input by dimming the electro-optic mirror element and/or by dimming the brightness of the images shown by the display (30; 30a), wherein, when user adjustment is made via the user input, the processor causes simulated images of vehicle headlights to be displayed where the simulated images are dimmed to a brightness level selected by the user. an electro-optic mirror element that reflects images from the rear of the vehicle, wherein the reflected images may be dimmed in response to a detection of glare light from headlights of a trailing vehicle; a display (30; 30a) positioned behind the electro-optic mirror element for displaying images of a rearward scene to a driver of the vehicle; a user input for receiving user adjustment of an extent to which the displayed images are to be dimmed to reduce glare light from headlights of trailing vehicles; and a processor coupled to the electro-optic mirror element, the user input, and the display (30; 30a) for adjusting the extent to which the displayed images are dimmed in response to user adjustment via the user input by dimming the electro-optic mirror element and/or by dimming the brightness of the images shown by the display (30; 30a), wherein, when user adjustment is made via the user input, the processor causes simulated images of vehicle headlights to be displayed where the simulated images are dimmed to a brightness level selected by the user.
A method of generating a set of values for respective ones of a set of parameters used in determining rotor blade profiles for a corotating coaxial rotor system, the method comprising: establishing a ratio of respective desired thrusts of an upper rotor and a lower rotor of the corotating coaxial rotor system based on a desired performance of the corotating coaxial rotor system; and determining the set of values of the set of parameters from the desired thrusts ratio based on an equal rotation speed condition between the upper rotor and the lower rotor of the corotating coaxial rotor system, wherein the set of parameters includes torques of the upper rotor and the lower rotor. establishing a ratio of respective desired thrusts of an upper rotor and a lower rotor of the corotating coaxial rotor system based on a desired performance of the corotating coaxial rotor system; and determining the set of values of the set of parameters from the desired thrusts ratio based on an equal rotation speed condition between the upper rotor and the lower rotor of the corotating coaxial rotor system, wherein the set of parameters includes torques of the upper rotor and the lower rotor.
Actuating device for a clutch system or brake system of a motor vehicle, having a pedal lever which can be pivoted between a first end position which corresponds to the rest position and a pressed-down second end position, and having an energy store which, by way of its prestress, holds the non-actuated pedal lever in the rest position and exerts a force on the pedal lever, which force is directed in the direction of the first end position in the case of a position of the pedal lever between a dead centre position and the first end position and is directed in the direction of the second end position in the case of a position of the pedal lever between the dead centre position and the second end position, characterized in that means are provided, by way of which the prestress of the energy store can be adapted in a manner which is dependent on the actuating force which is determined on the pedal lever.
A duct assembly consisting of a flat duct connector and a flat duct, wherein the flat duct has a rectangular duct section consisting of a thin sheet metal and a slip-on gasket is slipped onto the rectangular duct section via a free end face of the rectangular duct section, and wherein the flat duct connector has a first and a second flat duct connection which are connected to each other via a tube section, wherein a supporting element is arranged in the cross section of the tube section, which supports opposite wall sections of the tube section against each other, wherein both the tube section and the two flat duct connections are made of thin sheet metal and wherein the supporting element extends in the axial direction of the flat duct connector from a first free cut edge to a second free cut edge at the end faces of the flat duct connectors.
A light-emitting device (30; 70; 90) comprising: a substrate; three-dimensional semiconductor elements resting on the substrate; for each semiconductor element, at least one shell at least partially covering the lateral walls of the semiconductor element, the shell comprising an active area having multiple quantum wells; and an electrode (56; 72) at least partially covering the shell, at least a portion of the active area being sandwiched between the electrode and the lateral walls of the semiconductor element, wherein the active area comprises an alternation of first semiconductor layers mainly comprising a first element and a second element and of second semiconductor layers mainly comprising the first element and the second element and further comprising a third element, characterized in that, in at least three of the second layers, the mass concentration of the third element increases in said portion of the active area as the distance to the substrate decreases. a substrate; three-dimensional semiconductor elements resting on the substrate; for each semiconductor element, at least one shell at least partially covering the lateral walls of the semiconductor element, the shell comprising an active area having multiple quantum wells; and an electrode (56; 72) at least partially covering the shell, at least a portion of the active area being sandwiched between the electrode and the lateral walls of the semiconductor element, wherein the active area comprises an alternation of first semiconductor layers mainly comprising a first element and a second element and of second semiconductor layers mainly comprising the first element and the second element and further comprising a third element, characterized in that, in at least three of the second layers, the mass concentration of the third element increases in said portion of the active area as the distance to the substrate decreases.