mhurhangee/ep-ind-claims huggingface dataset:
A processing machine comprising - a housing, - a spindle having a hollow bore, which spindle is rotatably mounted in the housing and can be driven by a motor, - a tool holder arranged in or on the spindle and - a rod which is movable within the hollow bore of the spindle and connected to a length measuring system, characterized by - a screw-in tool arranged in the tool holder, the screw-in tool comprising a base part, which is clamped in the tool holder, and has a receptacle, which can be longitudinally displaced in the base part but is rotationally coupled therewith, for a screw and/or a thread insert, characterized in that the rod is movable up to said receptacle. - a housing, - a spindle having a hollow bore, which spindle is rotatably mounted in the housing and can be driven by a motor, - a tool holder arranged in or on the spindle and - a rod which is movable within the hollow bore of the spindle and connected to a length measuring system, - a screw-in tool arranged in the tool holder, the screw-in tool comprising a base part, which is clamped in the tool holder, and has a receptacle, which can be longitudinally displaced in the base part but is rotationally coupled therewith, for a screw and/or a thread insert, characterized in that the rod is movable up to said receptacle.
A method for transmitting information in a wireless system, the method comprising: a. determining traffic on a plurality of channels (36; 40; 46; 151; 159) by sensing the plurality of channels; b. selecting a bandwidth for a packet based on the determined traffic and available channel bandwidths; c. selecting a first and a second, different, modulation and coding schemes from a plurality of modulation and coding schemes, wherein the first modulation and coding scheme is applied to a first segment (210; 403) of the packet and wherein the second modulation and coding scheme is applied to a second segment (211; 404) of the packet; and d. transmitting the packet on at least one of the plurality of channels (36; 40; 46; 151; 159). a. determining traffic on a plurality of channels (36; 40; 46; 151; 159) by sensing the plurality of channels; b. selecting a bandwidth for a packet based on the determined traffic and available channel bandwidths; c. selecting a first and a second, different, modulation and coding schemes from a plurality of modulation and coding schemes, wherein the first modulation and coding scheme is applied to a first segment (210; 403) of the packet and wherein the second modulation and coding scheme is applied to a second segment (211; 404) of the packet; and d. transmitting the packet on at least one of the plurality of channels (36; 40; 46; 151; 159).
An electric lamp comprising: - a bulb mounted on a socket, - cooling means for cooling the lamp during operation, - a semiconductor light source arranged inside the bulb, - a lamp axis extending through a central end of the socket and a central extremity of the bulb, the bulb having an outer surface comprising a light transmittable surface for transmitting light originating from the light source during operation of the lamp, whereby both the cooling means and the light transmittable surface are spread over the bulb outer surface, such that for an imaginary set of two planes, of which a first plane extends parallel to the axis and a second plane extends perpendicular to the axis, a position of said planes can be found in which at least one of said two planes crosses at least two times a boundary between the cooling means and the light transmittable surface characterized in that the light source comprises a cluster of LEDs which is distributed in sub-groups of LEDs by the cooling means. - a bulb mounted on a socket, - cooling means for cooling the lamp during operation, - a semiconductor light source arranged inside the bulb, - a lamp axis extending through a central end of the socket and a central extremity of the bulb,
Fastening means for fixing two articles, consisting of a mixture of an aerobic adhesive and a hydrophilic substance forming a moisture buffer, characterised in that the aerobic adhesive is formed by silane MS polymers, that the hydrophilic substance is formed by a hydrophilic carrier fibre and that the fastening means is constructed as a mounting set comprising two receptacles for separate storage of the aerobic adhesive and the hydrophilic substance, wherein the aerobic adhesive and the hydrophilic substance are removable from the receptacles for mixing up of the fastening means and wherein moisture is admetered to the hydrophilic substance so that that fastening means lying in an interior space bounded by diffusion-tight surfaces and isolated from the environment can harden.
A short interfering ribonucleic acid (siRNA), said siRNA comprising two RNA strands that are complementary to each other over at least 15 nucleotides, wherein each strand is 49 nucleotides or less, and wherein the 3'-terminus of at least one strand comprises a modification at the 3' carbon, wherein the modification is:
An environmental chamber system in which a device under test can be tested, the environmental chamber system comprising: an environmental chamber in which the DUT can be tested; a temperature sensor for sensing temperature of the DUT, the temperature sensor generating a signal indicative of temperature of the DUT, the temperature sensor being an infrared temperature sensor located outside the chamber, the DUT being within a field of view of the infrared temperature sensor; and a controller for receiving at least one input signal related to at least one of temperature and humidity in the chamber and receiving the signal indicative of temperature of the DUT and providing at least one control signal for adjusting at least one of temperature and humidity in the chamber, such that the temperature of the DUT is not below a dew point of an environment in the chamber in a region of the chamber near the DUT, such that condensation in the environment in the chamber in the region near the DUT does not occur. an environmental chamber in which the DUT can be tested; a temperature sensor for sensing temperature of the DUT, the temperature sensor generating a signal indicative of temperature of the DUT, the temperature sensor being an infrared temperature sensor located outside the chamber, the DUT being within a field of view of the infrared temperature sensor; and a controller for receiving at least one input signal related to at least one of temperature and humidity in the chamber and receiving the signal indicative of temperature of the DUT and providing at least one control signal for adjusting at least one of temperature and humidity in the chamber, such that the temperature of the DUT is not below a dew point of an environment in the chamber in a region of the chamber near the DUT, such that condensation in the environment in the chamber in the region near the DUT does not occur.
An apparatus for facilitating emergence of a subject from inhaled anesthesia by decreasing a concentration of anesthetic agents in blood leaving the lungs and flowing into the brain of the subject, increasing blood flow through the brain of the subject and preventing the subject from inhaling previously exhaled anesthetic agents, the apparatus comprising: a filter including a housing/body (22, 22"") with a proximal port and a distal port for connection to a breathing circuit, the housing containing an anesthesia filter member in communication with both the proximal port and the distal port, the anesthesia filter member adapted to adsorb at least some anesthetic agents from the previously exhaled gases in order to prevent the subject from inhaling previously exhaled anesthetic agents; and a rebreathing component comprising a dead space volume (30"") connected to or within the housing/body (22, 22"") of the filter, the dead space volume (30"") configured to be adjusted, the rebreathing component in use causing the subject to rebreathe previously exhaled CO 2 in order to increase blood flow through the brain of the subject. a filter including a housing/body (22, 22"") with a proximal port and a distal port for connection to a breathing circuit, the housing containing an anesthesia filter member in communication with both the proximal port and the distal port, the anesthesia filter member adapted to adsorb at least some anesthetic agents from the previously exhaled gases in order to prevent the subject from inhaling previously exhaled anesthetic agents; and a rebreathing component comprising a dead space volume (30"") connected to or within the housing/body (22, 22"") of the filter, the dead space volume (30"") configured to be adjusted, the rebreathing component in use causing the subject to rebreathe previously exhaled CO 2 in order to increase blood flow through the brain of the subject.
Assembly and electrical connection part for at least two electrical energy storage cells, that will be included in an electric assembly module of an energy storage system, characterised in that the part comprises first and second means of connecting the part to said at least two electrical energy storage cells, characterised in that the first and second connection means being configured to enable the passage and assembly in rotation of connection pins to assemble and electrically connect the part to each of said at least two electrical energy storage cells, the first and second connection means comprising first and second housings respectively through which connection pins can pass for the assembly and electrical connection of the part with each of said at least two electrical energy storage cells, and in that the external part of the assembly and electrical connection part comprises an electrically insulating material.
A system comprising a purge device (4; 4A; 4B; 4C; 4D) and a plurality of containers to be purged, wherein the plurality of containers comprise containers of different types having different type depending purge characteristics, wherein the purge device 4; 4A; 4B; 4C; 4D) comprises: a type detector that is configured to detect the type of a respective container of said plurality of containers to be purged; and a purge controller that is configured to determine purge conditions for the respective container based on a detection result from the type detector, such that the purge conditions being determined are suited to purge a container of that type which is indicated by the detection result from the type detector. a type detector that is configured to detect the type of a respective container of said plurality of containers to be purged; and a purge controller that is configured to determine purge conditions for the respective container based on a detection result from the type detector, such that the purge conditions being determined are suited to purge a container of that type which is indicated by the detection result from the type detector.
An environmental control unit comprising a shell, a cooling device, a water pipe, a heating device, a controlling device, a sensor device, a safety protection device, an air purification device and a humidifying device; Said shell comprises an inner shell and an outer shell, an air duct is formed between said outer shell and said inner shell; Said cooling device is fixed on the inside wall of the inner shell, said heating device is fixed on the bottom wall of the inner shell, and said heating device is connected with the cooling device by the water pipe; Said controlling device comprises a controller and a display device, said controller is set on the top of the heating device and fixed on the inside wall of the inner shell opposite to the cooling device, said display device is set on the top wall of the outer shell; Said sensor device comprises a temperature sensor, a humidity sensor and a PM sensor which are all set on the outside wall of the outer shell and connected to the controlling device, and further comprises a monitoring sensor set on inside wall of the inner shell; Said safety protection device comprises a lightning protection device set on the bottom of the inner shell, an anti-tipping device set on inside wall of the inner shell at the same side with the controller, a water level switch unit set in the heating device and an anti-creeping device set on the bottom of the inner shell; Said air purification device is set on the top of the controller; Said humidifying device is set in the air purification device and fixed on the top wall of the inner shell; Said heating device, said air purification device and said humidifying device are electrically connected with the controlling device.
Sample temperature control chamber for a benchtop X-ray device and/or a full protection X-ray device, the sample temperature control chamber comprising a first chamber part and a second chamber part, which are connectable together and which are configured for forming a closed chamber, a sample holder, an integrated temperature control device for temperature controlling a sample which is attached at the sample holder, an active cooling system for dissipating heat from the sample temperature control chamber, wherein the active cooling system comprises a heat sink and a ventilator, at least one temperature sensor for determining the sample temperature, wherein the integrated temperature control device comprises a temperature control element (18, 18a) for heating up and/or cooling down the sample, and wherein the integrated temperature control device further comprises a control unit which is connected with the at least one temperature sensor, and which is configured for controlling the temperature control element in dependence of the sample temperature which is determined by the at least one temperature sensor, for obtaining a predetermined sample temperature and/or for enforcing a temperature profile, characterized in that the sample temperature control chamber further comprises an input device for inputting a predetermined sample temperature or a predetermined sample temperature range by users.
Electrical module configured to be connected to a power shaft of an aircraft turbine engine, the electrical module being configured to draw off power from/inject power into said power shaft, the electrical module comprising: - An electric machine comprising a machine housing wherein a stator and a rotor configured to be mechanically connected to the power shaft, the machine housing having a cylindrical shape extending along a cylinder axis, - A first electric converter mounted in a first housing, - A second electric converter mounted in a second housing, the second converter being independent from the first converter, - Electrical module characterized by the fact that the first housing and the second housing are each in the shape of a half-cylinder extending along the cylinder axis to form a cylindrical assembly which is mounted as an extension of the machine housing of the electric machine to limit the size of the electrical module. - An electric machine comprising a machine housing wherein a stator and a rotor configured to be mechanically connected to the power shaft, the machine housing having a cylindrical shape extending along a cylinder axis, - A first electric converter mounted in a first housing, - A second electric converter mounted in a second housing, the second converter being independent from the first converter, - Electrical module characterized by the fact that the first housing and the second housing are each in the shape of a half-cylinder extending along the cylinder axis to form a cylindrical assembly which is mounted as an extension of the machine housing of the electric machine to limit the size of the electrical module.
An optical fiber ribbon comprising three or more optical fibers arranged in parallel and connecting portions connecting the respective adjacent two optical fibers, the connecting portions being formed in a height direction intermittently in each of a ribbon longitudinal direction and a ribbon width direction in an orthogonal coordinate system, wherein each maximum load for splitting the connecting portions is in a range from 1.50 gram force (gf) to 21.0 gram force (gf), wherein, when the optical fibers are arranged in the direction, the direction of the cross section of a thickness of each connecting portion is perpendicular to both the direction and the ribbon longitudinal direction, and in the ribbon longitudinal direction, the thickness of each connecting portion in the direction gradually increases in an arc from one side towards a middle, is thickest in the middle and gradually decreases in an arc towards another side, wherein each of the connecting portions is a filled gap between the adjacent two optical fibers so as to connect the adjacent two optical fibers together.
An oral enteric high-dose tablet comprising as an active ingredient 1000mg of mesalazine or a pharmaceutically acceptable salt thereof and at least one excipient that does not contain any matrix-forming ingredients, wherein the mass of the high-dose tablet is at most 35% higher than the mass of the active ingredient and the at least one excipient consists of polyvinylpyrrolidone, wherein the high-dose tablet has at least one film coating that comprises an enteric polymer and that makes up less than 10% by weight based on the total weight of the high-dose tablet.
A process for recovering isoprenol essentially free of formaldehyde from a stream of crude isoprenol containing isoprenol, water and formaldehyde, the process comprising subjecting the stream of crude isoprenol or an isoprenol containing fraction thereof to distillation in a low-boiler separation tower operated at a pressure of 2.5 bara or higher to obtain a distillate stream containing aqueous formaldehyde and a bottoms stream containing isoprenol.
Rail vehicle, comprising: - a device compartment for accommodating a device, - a protective flap for protecting the device compartment, - a decorative flap at least partially hiding the protective flap, - wherein the decorative flap has a lower degree of rigidity than the protective flap. - a device compartment for accommodating a device, - a protective flap for protecting the device compartment, - a decorative flap at least partially hiding the protective flap, - wherein the decorative flap has a lower degree of rigidity than the protective flap.
A method of performing a random access procedure at a mobile terminal, the method comprising: receiving first information comprising an index of a first root sequence and a cyclic shift parameter, wherein the first root sequence index and the cyclic shift parameter are used to identify available signatures in a cell, selecting a dedicated signature from a second set of dedicated signatures reserved in a set of signatures used for contention-based random access, or from a first set of dedicated signatures, in a set of reserved dedicated signatures associated with the first root sequence and a second root sequence composed of the first and second sets of dedicated signatures, and transmitting the selected dedicated signature for the random access procedure, wherein the first set of dedicated signatures is a set of signatures not used for contention-based random access, and wherein the second set of dedicated signatures comprises a first part of Nrset1 signatures associated with the first root sequence and the cyclic shift parameter, and a second part of Nrset2 signatures associated with the second root sequence and the cyclic shift parameter. receiving first information comprising an index of a first root sequence and a cyclic shift parameter, wherein the first root sequence index and the cyclic shift parameter are used to identify available signatures in a cell, selecting a dedicated signature from a second set of dedicated signatures reserved in a set of signatures used for contention-based random access, or from a first set of dedicated signatures, in a set of reserved dedicated signatures associated with the first root sequence and a second root sequence composed of the first and second sets of dedicated signatures, and transmitting the selected dedicated signature for the random access procedure, wherein the first set of dedicated signatures is a set of signatures not used for contention-based random access, and wherein the second set of dedicated signatures comprises a first part of Nrset1 signatures associated with the first root sequence and the cyclic shift parameter, and a second part of Nrset2 signatures associated with the second root sequence and the cyclic shift parameter.
A thermoelectric conversion element comprising: first substrates having p-type thermoelectric material layers formed thereon; second substrates having n-type thermoelectric material layers formed thereon and conductive material (104p, 104n) connecting the adjacent layers of the p-type thermoelectric material layers and the n-type thermoelectric material layers; characterized in that the first substrates and the second substrates are alternately disposed such that the plurality of substrates (101p, 101n) are disposed between adjacent layers of the p-type thermoelectric material layers and n-type thermoelectric material layers; the plurality of substrates (101p, 101n) have contact holes (103p,103n) respectively provided in the plurality of substrates (101p, 101n) such that the contact holes (103p, 103n) appear alternately at opposite ends, in a direction perpendicular to a direction of arrangement of the p-type thermoelectric material layers and the n-type thermoelectric material layers, of the substrates (101p, 101n); and the conductive material (104p, 104n) is disposed in the contact holes (103p,103n). first substrates having p-type thermoelectric material layers formed thereon; second substrates having n-type thermoelectric material layers formed thereon and conductive material (104p, 104n) connecting the adjacent layers of the p-type thermoelectric material layers and the n-type thermoelectric material layers; characterized in that the first substrates and the second substrates are alternately disposed such that the plurality of substrates (101p, 101n) are disposed between adjacent layers of the p-type thermoelectric material layers and n-type thermoelectric material layers; the plurality of substrates (101p, 101n) have contact holes (103p,103n) respectively provided in the plurality of substrates (101p, 101n) such that the contact holes (103p, 103n) appear alternately at opposite ends, in a direction perpendicular to a direction of arrangement of the p-type thermoelectric material layers and the n-type thermoelectric material layers, of the substrates (101p, 101n); and the conductive material (104p, 104n) is disposed in the contact holes (103p,103n).
An exhaust acoustic noise reduction apparatus for an aircraft engine including a housing (102, 202), the apparatus comprising: an exhaust port comprising a flange that extends from the housing (102, 202) in a mounted state and defines an exhaust aperture; a first vane extending at least partially across the exhaust aperture; and a second vane extending at least partially across the exhaust aperture and intersecting the first vane, such that the first and second vanes are oriented obliquely with regard to each other in the plane of the exhaust aperture and form asymmetrical flow channels in order to interfere with formation of an acoustic feedback loop and reduce an acoustic noise signature of the exhaust port. an exhaust port comprising a flange that extends from the housing (102, 202) in a mounted state and defines an exhaust aperture; a first vane extending at least partially across the exhaust aperture; and a second vane extending at least partially across the exhaust aperture and intersecting the first vane, such that the first and second vanes are oriented obliquely with regard to each other in the plane of the exhaust aperture and form asymmetrical flow channels in order to interfere with formation of an acoustic feedback loop and reduce an acoustic noise signature of the exhaust port.