mhurhangee/ep-ind-claims huggingface dataset:
A patch comprising a support layer and an adhesive agent layer, wherein the adhesive agent layer contains diclofenac or a pharmaceutically acceptable salt thereof, glycerin, butyleneglycol,and poly(ethyleneglycol) monooleate, and a mass ratio between the butylene glycol and the poly(ethylene glycol) monooleate (mass of butylene glycol:mass of poly(ethylene glycol) monooleate) is 1:1 to 4:1.
A method of producing at least one three dimensional printed part, the method comprising: continuously constructing to extend outwardly a diameter of a rotating cylindrical core via addition of a continuously deposited layer using a deposition system, wherein the cylindrical core is rotated by a rotating system; and defining a first pattern in the continuously deposited layer corresponding to a cross-section of the at least one 3D printed part, wherein the deposition system comprises a first subsystem configured to move radially with respect to the cylinder to continuously deposit a first portion of the layer on a curved outer surface of the rotating cylinder, and wherein the deposition system comprises a second subsystem configured to move radially with respect to the diameter of the cylinder to deposit a second portion of the layer on the curved outer surface of the rotating cylinder, and wherein the first portion comprises a first material and wherein the second portion comprises a second material, and wherein the rotating system comprises a support plate, wherein an axis of rotation of the cylindrical core is perpendicular to the support plate and the axis is oriented parallel to the direction of gravity. continuously constructing to extend outwardly a diameter of a rotating cylindrical core via addition of a continuously deposited layer using a deposition system, wherein the cylindrical core is rotated by a rotating system; and defining a first pattern in the continuously deposited layer corresponding to a cross-section of the at least one 3D printed part, wherein the deposition system comprises a first subsystem configured to move radially with respect to the cylinder to continuously deposit a first portion of the layer on a curved outer surface of the rotating cylinder, and wherein the deposition system comprises a second subsystem configured to move radially with respect to the diameter of the cylinder to deposit a second portion of the layer on the curved outer surface of the rotating cylinder, and wherein the first portion comprises a first material and wherein the second portion comprises a second material, and wherein the rotating system comprises a support plate, wherein an axis of rotation of the cylindrical core is perpendicular to the support plate and the axis is oriented parallel to the direction of gravity.
A crisp plate, comprising: a plate; a liner disposed on a surface of the plate, wherein the liner includes: a network of carbon nanotubes combined with aluminum nanoparticles and a ceramic component; a polymer component suitable to form a matrix, wherein the network of carbon nanotubes is embedded within the matrix, and further wherein the carbon nanotubes are unidirectionally aligned within the matrix. a plate; a liner disposed on a surface of the plate, wherein the liner includes: a network of carbon nanotubes combined with aluminum nanoparticles and a ceramic component; a polymer component suitable to form a matrix, wherein the network of carbon nanotubes is embedded within the matrix, and further wherein the carbon nanotubes are unidirectionally aligned within the matrix. a network of carbon nanotubes combined with aluminum nanoparticles and a ceramic component; a polymer component suitable to form a matrix, wherein the network of carbon nanotubes is embedded within the matrix, and further wherein the carbon nanotubes are unidirectionally aligned within the matrix.
Pressure sensor with displacing element, which is movably mounted on a mount and which is deflectable against a restoring force by pressure loadING, with a ferromagnetic fluid, which is arranged on a surface region at the mount and which is so coupled with the displacing element that the position of the fluid is dependent on the pressure acting on the displacing element, wherein the fluid is magnetised to be permanently magnetic and/or the pressure sensor comprises a magnetic field generator for generating a magnetic field penetrating the fluid and wherein for detection of the position of the fluid a magnetic field sensor is arranged at the mount, characterised in that the surface region, which is in contact with the fluid, is wettable for the fluid and a further surface region, which laterally adjoins this surface region, of the mount is non-wettable for the fluid and wherein the displacing element is a diaphragm and the mount comprises a semiconductor chip in which the magnetic field sensor is integrated.
A method for imaging an eye, comprising the steps of: positioning the eye relative to a Spectral Domain Optical Coherence Tomographic (SD-OCT) imaging system, the eye having a first and a second structure; and imaging the eye with the SD-OCT imaging system, by adjusting a reference depth of the SD-OCT imaging system to generate the direct (211,213) and mirror (214,212) images of the first and second eye-structures at corresponding image depths so that the direct and mirror images of the first and second eye-structures can be distinguished from each other; selecting one of a direct image or a mirror image of the first eye-structure and generating a first image-portion, corresponding to the selected image of the first eye-structure; selecting one of a direct image or a mirror image of the second eye-structure and generating a second image-portion, corresponding to the selected image of the second eye-structure; and suppressing the non-selected images of the first and second structures by at least one of preventing the display of generated non-selected images; and generating the non-selected images without displaying the non-selected images. positioning the eye relative to a Spectral Domain Optical Coherence Tomographic (SD-OCT) imaging system, the eye having a first and a second structure; and imaging the eye with the SD-OCT imaging system, by adjusting a reference depth of the SD-OCT imaging system to generate the direct (211,213) and mirror (214,212) images of the first and second eye-structures at corresponding image depths so that the direct and mirror images of the first and second eye-structures can be distinguished from each other; selecting one of a direct image or a mirror image of the first eye-structure and generating a first image-portion, corresponding to the selected image of the first eye-structure; selecting one of a direct image or a mirror image of the second eye-structure and generating a second image-portion, corresponding to the selected image of the second eye-structure; and suppressing the non-selected images of the first and second structures by at least one of preventing the display of generated non-selected images; and generating the non-selected images without displaying the non-selected images. selecting one of a direct image or a mirror image of the second eye-structure and generating a second image-portion, corresponding to the selected image of the second eye-structure; and suppressing the non-selected images of the first and second structures by at least one of preventing the display of generated non-selected images; and generating the non-selected images without displaying the non-selected images. preventing the display of generated non-selected images; and generating the non-selected images without displaying the non-selected images.
An in vitro method for detecting in a subject Mycobacterium tuberculosis which expresses a polypeptide comprising the amino acid sequence set forth as SEQ ID NO: 6 or at least nine to twenty consecutive amino acids of the amino acid sequence set forth as SEQ ID NO: 6, which nine to twenty consecutive amino acids can specifically bind major histocompatibility complex class I, comprising contacting a biological sample from the subject comprising T cells with one or more Mycobacterium polypeptides, and an antigen presenting cell presenting the one or more Mycobacterium polypeptides wherein the one or more Mycobacterium polypeptides consists of an amino acid sequence set forth as (a) the amino acid sequence set forth as SEQ ID NO: 6 or (b) at least nine to twenty consecutive amino acids of the amino acid sequence set forth as SEQ ID NO: 6, wherein the nine to twenty consecutive amino acids specifically bind major histocompatibility complex class I; and determining if the T cells specifically recognize the Mycobacterium polypeptide, wherein the presence of T cells that specifically recognize the Mycobacterium polypeptide detects Mycobacterium tuberculosis in the subject. (a) the amino acid sequence set forth as SEQ ID NO: 6 or (b) at least nine to twenty consecutive amino acids of the amino acid sequence set forth as SEQ ID NO: 6, wherein the nine to twenty consecutive amino acids specifically bind major histocompatibility complex class I; and
A method for the dehydration of acetic acid comprising the steps of: contacting an aqueous solution of acetic acid with a membrane comprising an acid-resistant polybenzimidazole membrane chemically modified by a process selected from the group consisting of sulfonation, phosphonation, and/or combinations thereof; taking away a permeate stream rich in water; and taking away a concentrate stream rich in acetic acid. contacting an aqueous solution of acetic acid with a membrane comprising an acid-resistant polybenzimidazole membrane chemically modified by a process selected from the group consisting of sulfonation, phosphonation, and/or combinations thereof; taking away a permeate stream rich in water; and taking away a concentrate stream rich in acetic acid.
System comprising: - a balloon comprising latex, and - a filling liquid for filling the balloon suitable for a method for occluding a tubular organ, the filling liquid comprising a microcapsule in which a naturally derived essential oil, that dissolves the balloon, is encapsulated, wherein the microcapsule is destroyable by an ultrasonic beam; and a liquid that is harmless in the tubular organ and does not dissolve the balloon. - a balloon comprising latex, and - a filling liquid for filling the balloon suitable for a method for occluding a tubular organ, the filling liquid comprising a microcapsule in which a naturally derived essential oil, that dissolves the balloon, is encapsulated, wherein the microcapsule is destroyable by an ultrasonic beam; and a liquid that is harmless in the tubular organ and does not dissolve the balloon.
A method for operating a base station, BS, in a wireless communication system the method comprising: transmitting, to a terminal, a grid index and a reference signal port index of the terminal; generating a reference signal based on the grid index; and transmitting the reference signal on corresponding time-frequency resources based on the grid index and the reference signal port index, wherein the grid index indicates one of grids, and wherein each of the grids corresponds to one of regions that are defined by dividing a coverage area of the base station. transmitting, to a terminal, a grid index and a reference signal port index of the terminal; generating a reference signal based on the grid index; and transmitting the reference signal on corresponding time-frequency resources based on the grid index and the reference signal port index, wherein the grid index indicates one of grids, and wherein each of the grids corresponds to one of regions that are defined by dividing a coverage area of the base station.
Tailgate of a motor vehicle, which comprises a structural lining, an outer skin, a rear window housing, one or more means of attachment located in the lower part of the tailgate below the housing and on one side of the structural lining opposite the outer skin, these means of attachment being capable of fixing technical elements on the face of the lining structural in relation to the outer skin of the tailgate, characterized in that it comprises a trim attached to the inner face of the structural lining and covering a partial area representing a small portion of the lower part of the structural lining located at the top of the lower part of the tailgate, just below the rear window of the tailgate.
An ophthalmic solution, comprising dexpanthenol, 0.2% of a phosphate buffer, and 0.0001% of polyhexamethylene biguanide, wherein the solution is made isotonic with sodium chloride, and wherein the pH is adjusted to 7.2 with 1 N sodium hydroxide or 1 N hydrochloric acid.
A mechanical system, forming a cam follower, the mechanical system comprising: - a support element, - a pin extending between two opposite ends (35, 36) along a first axis and supported by the support element, and - a roller movable in rotation relative to the pin around the first axis and adapted to roll on a cam, - a lubricating groove on an external surface of the support element, characterized in that the support element comprises at least a first part and a second separate part which, when fitted together, together delimit the lubricating groove and in that the second part is abutting against an internal shoulder of the first part. - a support element, - a pin extending between two opposite ends (35, 36) along a first axis and supported by the support element, and - a roller movable in rotation relative to the pin around the first axis and adapted to roll on a cam, - a lubricating groove on an external surface of the support element,
Vehicle module for a vehicle, which module comprises - one or more sensors (101, 205) which are designed to record sensor data in an operating mode of the vehicle module; - an interface for a data line for transmitting the sensor data to a control device of the vehicle; characterized in that the sensors are designed to assume a large number of discrete states in an energy saving mode in order to provide a basic function of the vehicle module in the energy saving mode of the vehicle module; wherein the vehicle module further comprises - an energy saving mode switch which is designed to connect the one or more sensors (101, 205) to the interface for the data line in the energy saving mode in such a way that information relating to a state of the large number of discrete states can be transmitted to the control device by means of the data line. - one or more sensors (101, 205) which are designed to record sensor data in an operating mode of the vehicle module; - an interface for a data line for transmitting the sensor data to a control device of the vehicle; - an energy saving mode switch which is designed to connect the one or more sensors (101, 205) to the interface for the data line in the energy saving mode in such a way that information relating to a state of the large number of discrete states can be transmitted to the control device by means of the data line.
A top handle chainsaw, comprising: a guide bar; a cutting chain; and a driving unit arranged to drive the cutting chain around the guide bar; wherein the guide bar defines a first longitudinal axis extending along a centre of the guide bar, as seen in a side view; a handle section for carrying and operating the chainsaw, wherein the handle section includes a control portion disposed on the upper side of the chainsaw, which control portion includes a throttle lever for controlling the speed of the driving unit and the control portion has a left and a right side, the right side of the control portion comprising a first exchangeable part, detachably connected to the left side of the control portion; characterized in that the chainsaw furthermore comprises at least one second exchangeable part, to which the first exchangeable part may be exchanged, the first exchangeable part differing from the at least one second exchangeable part, such that any one of surface structure, width and material of at least a part of the control portion may be adjusted by exchanging the first to the at least one second exchangeable part. a guide bar; a cutting chain; and a driving unit arranged to drive the cutting chain around the guide bar; wherein the guide bar defines a first longitudinal axis extending along a centre of the guide bar, as seen in a side view; a handle section for carrying and operating the chainsaw, wherein the handle section includes a control portion disposed on the upper side of the chainsaw, which control portion includes a throttle lever for controlling the speed of the driving unit and the control portion has a left and a right side, the right side of the control portion comprising a first exchangeable part, detachably connected to the left side of the control portion; characterized in that the chainsaw furthermore comprises at least one second exchangeable part, to which the first exchangeable part may be exchanged, the first exchangeable part differing from the at least one second exchangeable part, such that any one of surface structure, width and material of at least a part of the control portion may be adjusted by exchanging the first to the at least one second exchangeable part.
A wireless environment evaluation method evaluating a wireless environment of a wireless communication system, which is in an exposed situation in reception in which a normal reception rate of a prescribed wireless station decreases due to hidden wireless stations, in which a plurality of wireless stations share a same wireless channel and perform wireless communication using CSMA/CA (Carrier Sense Multiple Access/Collision Avoidance) method, the wireless environment evaluation method, characterized by,: a step 1 acquiring a transmission and reception history of wireless signals transmitted and received between the plurality of wireless stations, and acquiring or estimating a number of wireless stations in transmission standby, based on the transmission and reception history; a step 2 calculating a normal reception rate S in a congesting situation in reception according to the number of wireless stations in transmission standby; a step 3 acquiring a normal reception rate S' of the wireless signals per a fixed channel use time, from the transmission and reception history in the prescribed wireless station; and a step 4 evaluating a degree of the exposed situation in reception according to a ratio of the normal reception rate S' to the normal reception rate S. a step 1 acquiring a transmission and reception history of wireless signals transmitted and received between the plurality of wireless stations, and acquiring or estimating a number of wireless stations in transmission standby, based on the transmission and reception history; a step 2 calculating a normal reception rate S in a congesting situation in reception according to the number of wireless stations in transmission standby; a step 3 acquiring a normal reception rate S' of the wireless signals per a fixed channel use time, from the transmission and reception history in the prescribed wireless station; and a step 4 evaluating a degree of the exposed situation in reception according to a ratio of the normal reception rate S' to the normal reception rate S.
Transport device for a container handling machine with a transport carousel on which a plurality of container receptacles are positioned, and with at least one sawtooth starwheel (130, 170), the sawtooth contour of which forms a plurality of starwheel pockets for receiving containers (120-1, 120-2), characterized by an elastic element which is integrated in the sawtooth starwheel (130, 170) and which can hold a container (120-1, 120-2), depending on the container diameter, at a specific place in one of the starwheel pockets of the sawtooth starwheel (130, 170); and a control device for controlling a container transfer position between the transport carousel and the sawtooth starwheel (130, 170), depending on the container diameter.
A system (600, 700) for determining a non-viscosity correlation parameter for correcting a measured flow rate for viscosity effects of a fluid in a vibratory meter, the system comprising: a sensor assembly; and a meter electronics communicatively coupled to the sensor assembly, the meter electronics being configured to: receive sensor signals from the sensor assembly; determine a non-viscosity correlation parameter based on the sensor signals the system being characterised by the non-viscosity correlation parameter being comprised of a fluid velocity-to-mass flow rate ratio or a vibrating frequency ratio. a sensor assembly; and a meter electronics communicatively coupled to the sensor assembly, the meter electronics being configured to: receive sensor signals from the sensor assembly; determine a non-viscosity correlation parameter based on the sensor signals the system being characterised by the non-viscosity correlation parameter being comprised of a fluid velocity-to-mass flow rate ratio or a vibrating frequency ratio. receive sensor signals from the sensor assembly; determine a non-viscosity correlation parameter based on the sensor signals the system being characterised by the non-viscosity correlation parameter being comprised of a fluid velocity-to-mass flow rate ratio or a vibrating frequency ratio.
An aortic arch embolic protection device (100, 200, 300) having an upstream end and a downstream end, comprising: an anchoring structure comprising a first anchoring ring at the upstream end and a second anchoring ring at the downstream end; a first filter element extending from the first anchoring ring to the second anchoring ring and defining a lumen through the aortic arch embolic protection device (100, 200, 300); and a second filter element (150, 180) extending transversely across the lumen of the first filter element at a plurality of axial locations along a longitudinal axis of the lumen; wherein the second filter element (150, 180) includes an access port configured to facilitate passage of an interventional catheter through the access port. an anchoring structure comprising a first anchoring ring at the upstream end and a second anchoring ring at the downstream end; a first filter element extending from the first anchoring ring to the second anchoring ring and defining a lumen through the aortic arch embolic protection device (100, 200, 300); and a second filter element (150, 180) extending transversely across the lumen of the first filter element at a plurality of axial locations along a longitudinal axis of the lumen; wherein the second filter element (150, 180) includes an access port configured to facilitate passage of an interventional catheter through the access port.