mhurhangee/ep-ind-claims huggingface dataset:
A seal assembly (176;476) for a gas turbine engine comprising: a seal (169;269;369;469) including a sealing portion (177;277;377;477) that extends from an engagement portion (179;279;379;479); wherein the sealing portion (177;277;377;477) includes a seal face that extends circumferentially between first and second mate faces (178;378;378;478); wherein an internal cavity (184;284;384;484) is defined between the sealing portion (177;277;377;477) and the engagement portion (179;279;379;479) that extends circumferentially between the first and second mate faces (178;378;378;478); and wherein the engagement portion (179;279;379;479) includes an impingement face (189;289;389;489) opposite the seal face that defines an elongated opening (191;291;391;491) to the internal cavity (184;284;384;484), and the elongated opening (191;291;391;491) is a slot that extends circumferentially along the impingement face (189;289;389;489); characterised in that the internal cavity (184;284;384;484) extends from a first opening (185;285;385) along the first mate face (178;378;378;478) to a second opening (185;285;385) along the second mate face (178;378;378;478). a seal (169;269;369;469) including a sealing portion (177;277;377;477) that extends from an engagement portion (179;279;379;479); wherein the sealing portion (177;277;377;477) includes a seal face that extends circumferentially between first and second mate faces (178;378;378;478); wherein an internal cavity (184;284;384;484) is defined between the sealing portion (177;277;377;477) and the engagement portion (179;279;379;479) that extends circumferentially between the first and second mate faces (178;378;378;478); and wherein the engagement portion (179;279;379;479) includes an impingement face (189;289;389;489) opposite the seal face that defines an elongated opening (191;291;391;491) to the internal cavity (184;284;384;484), and the elongated opening (191;291;391;491) is a slot that extends circumferentially along the impingement face (189;289;389;489); characterised in that the internal cavity (184;284;384;484) extends from a first opening (185;285;385) along the first mate face (178;378;378;478) to a second opening (185;285;385) along the second mate face (178;378;378;478).
A combination comprising a first agent for inhibiting aberrant Stat3 pathway Activity and a second agent for use in treating a subject with a cancer that is associated with aberrant Stat3 pathway activity, wherein the first agent is selected from the group consisting of 2-(1-hydroxyethyl)-naphtho[2,3-b]furan-4,9-dione, 2-acetyl-7-chloro-naphtho[2,3 -b]furan-4,9-dione, 2-acetyl-7-fluoro-naphtho[2,3 -b]furan-4,9-dione, 2-acetylnaphtho[2,3 -b]furan-4,9-dione, 2-ethyl-naphtho[2,3-b]furan-4,9-dione, and a pharmaceutically acceptable salt or solvate thereof; and the second agent is selected from the group consisting of paclitaxel, erlotinib, sunitinib, lapatinib, sorafenib, carboplatin, doxorubicin, docetaxel, gemcitabine, and etoposide.
Method for operating a learning system for automatically setting a variable (θ) characterizing a control policy (π) of an actuator regulation system wherein the actuator regulation system is set up for regulating a regulation variable (x) of an actuator to a pre-definable target variable (x), the actuator regulation system being set up to generate a correcting variable (u) as a function of a variable (θ) characterizing a control policy (π) and to control the actuator as a function of this correcting variable (u), wherein the variable (θ) characterizing the control policy (π) is determined as a function of a value function (V*). wherein the value function (V*) is determined iteratively by gradually approximating the value function (V*) by means of a Bellmann equation by successive iterations of an iterated value function ( V̂ t), wherein an iterated value function ( V̂ t) of a subsequent iteration ( V̂ t +1) is determined by means of the Bellmann equation from an iterated value function ( V̂ t +1) of a previous iteration, characterized in that for the solution of the Bellmann equation, instead of the iterated value function ( V̂ t) of the previous iteration, only its projection onto a functions space spanned by a set of basic functions φ i t is used. wherein the variable (θ) characterizing the control policy (π) is determined as a function of a value function (V*). wherein the value function (V*) is determined iteratively by gradually approximating the value function (V*) by means of a Bellmann equation by successive iterations of an iterated value function ( V̂ t), wherein an iterated value function ( V̂ t) of a subsequent iteration ( V̂ t +1) is determined by means of the Bellmann equation from an iterated value function ( V̂ t +1) of a previous iteration, characterized in that for the solution of the Bellmann equation, instead of the iterated value function ( V̂ t) of the previous iteration, only its projection onto a functions space spanned by a set of basic functions φ i t is used.
A hybrid sensor/communication device comprising: a radio frequency identification (RFID) communication device, wherein the RFID device includes: an antenna; and a crystalline inorganic semiconductor integrated circuit coupled to the antenna to facilitate communication to devices external to the hybrid device; and a sensor device operatively coupled to the crystalline inorganic semiconductor integrated circuit; characterized in that the sensor device includes a processor that includes at least one of an organic semiconductor material or an amorphous inorganic semiconductor material and the RFID device includes a power supply that provides a high voltage and a low voltage, with the low voltage used for internal operation of the crystalline inorganic semiconductor integrated circuit, and the other used for operation of the sensor device. a radio frequency identification (RFID) communication device, wherein the RFID device includes: an antenna; and a crystalline inorganic semiconductor integrated circuit coupled to the antenna to facilitate communication to devices external to the hybrid device; and an antenna; and a crystalline inorganic semiconductor integrated circuit coupled to the antenna to facilitate communication to devices external to the hybrid device; and a sensor device operatively coupled to the crystalline inorganic semiconductor integrated circuit; characterized in that the sensor device includes a processor that includes at least one of an organic semiconductor material or an amorphous inorganic semiconductor material and the RFID device includes a power supply that provides a high voltage and a low voltage, with the low voltage used for internal operation of the crystalline inorganic semiconductor integrated circuit, and the other used for operation of the sensor device.
A quantum dot composite film comprising: a first barrier film; a quantum dot phosphor film disposed on the first barrier film and having a patterned structure, wherein the quantum dot phosphor film includes scattering agents, red quantum dots and green quantum dots; and a second barrier film disposed on the quantum dot phosphor film, characterized in that the quantum dot phosphor film has a groove pattern, the quantum dot composite film comprises a patterned reflective film disposed between the quantum dot phosphor film and the second barrier film, and the second barrier film is a dichroic mirror barrier film. a first barrier film; a quantum dot phosphor film disposed on the first barrier film and having a patterned structure, wherein the quantum dot phosphor film includes scattering agents, red quantum dots and green quantum dots; and a second barrier film disposed on the quantum dot phosphor film, characterized in that the quantum dot phosphor film has a groove pattern, the quantum dot composite film comprises a patterned reflective film disposed between the quantum dot phosphor film and the second barrier film, and the second barrier film is a dichroic mirror barrier film.
Process for producing organically modified aerogels by i) preparing a sol comprising [SiO 4/2] units and [R x SiO (4-x)/2] units, wherein a compatibilizer is admixed in the course of the step of preparing the sol or a compatibilizer is formed out of the sol, ii) forming a gel out of the sol, wherein the compatibilizer content of the pore liquid is between 1 and 50 wt%, iii) surface modifying the resultant gel in the presence of above 0.1 wt% of the compatibilizer in a mixture comprising a disiloxane of the formula R 3 Si-O-SiR 3 and initiator, wherein the mixture comprises not less than 20 wt% of the disiloxane of the formula R 3 Si-O-SiR 3, and wherein the initiator consists of an acid or a chlorosilane or mixtures thereof, iv) and drying the gels obtained, wherein each X is 1, 2 or 3 and may be the same or different, and wherein each R is hydrogen or a substituted or unsubstituted organic moiety and may be the same or different. i) preparing a sol comprising [SiO 4/2] units and [R x SiO (4-x)/2] units, wherein a compatibilizer is admixed in the course of the step of preparing the sol or a compatibilizer is formed out of the sol, ii) forming a gel out of the sol, wherein the compatibilizer content of the pore liquid is between 1 and 50 wt%, iii) surface modifying the resultant gel in the presence of above 0.1 wt% of the compatibilizer in a mixture comprising a disiloxane of the formula R 3 Si-O-SiR 3 and initiator, wherein the mixture comprises not less than 20 wt% of the disiloxane of the formula R 3 Si-O-SiR 3, and wherein the initiator consists of an acid or a chlorosilane or mixtures thereof, iv) and drying the gels obtained,
A measuring device for determining a plurality of exhaust gas components in the exhaust gas of internal combustion engines, comprising - an exhaust gas probe, - a particle measuring chamber, - a water separator, - an infrared measuring bench - an O 2 sensor, and - a gas outlet, wherein the arrangement of said components is such, that, for a sample gas entering via the exhaust gas probe, the particle measuring chamber is arranged downstream of the exhaust gas probe, the water separator is arranged downstream of the particle measuring chamber, the infrared measuring bench is arranged downstream of the water separator, the O 2 sensor is arranged downstream of the infrared measuring bench, and the sample gas is dischargeable via the gas outlet to the surroundings, characterized in that the measuring device is configured to obtain a K-value for the opacity of the sample gas from a sample gas particle concentration value determined by the particle measuring chamber using a linear conversion process. - an exhaust gas probe, - a particle measuring chamber, - a water separator, - an infrared measuring bench - an O 2 sensor, and - a gas outlet,
An adapter (100, 130, 170, 190, 200, 210) for making a fluid connection between first and second medical fluid flow components in which the first medical fluid flow component includes a first male Luer or female Luer connector of a first configuration, and the second medical fluid flow component includes a second male Luer or female Luer connector of a second configuration that is not compatible with the first configuration, the adapter comprising: a. a fluid flow conduit (102, 132, 172, 192, 202, 212) including a first end and a second end and a fluid flow lumen (126, 186, 198, 218) extending between the first and second ends, and wherein on the surface of said fluid flow conduit one or more wings (128, 188,) are provided for receipt between a user's finger tips for gripping and turning; b. a first adapter connector positioned on the first end of said conduit, said first adapter connector being a male Luer or female Luer including a first set of threads and having a first configuration compatible with the first medical fluid flow component connector; and c. a second adapter connector positioned on the second end of said conduit, said second adapter connector being a male Luer or female Luer including a second set of threads and having a second configuration compatible with the second medical fluid flow component connector. a. a fluid flow conduit (102, 132, 172, 192, 202, 212) including a first end and a second end and a fluid flow lumen (126, 186, 198, 218) extending between the first and second ends, and wherein on the surface of said fluid flow conduit one or more wings (128, 188,) are provided for receipt between a user's finger tips for gripping and turning; b. a first adapter connector positioned on the first end of said conduit, said first adapter connector being a male Luer or female Luer including a first set of threads and having a first configuration compatible with the first medical fluid flow component connector; and c. a second adapter connector positioned on the second end of said conduit, said second adapter connector being a male Luer or female Luer including a second set of threads and having a second configuration compatible with the second medical fluid flow component connector.
A pair of spectacles having a frame, the pair of spectacles comprising: a switchable lens attached to the pair of spectacles, the switchable lens configured to switch its foci from a far focal length to a near focal length, where the near focal length is smaller than the far focal length; an infrared emitter disposed at a horizontal edge of the at least one switchable lens, the infrared emitter configured to emit an infrared radiation; an infrared sensor (560, 570) configured to detect the infrared radiation from the infrared emitter; wherein the switchable lens is configured to switch to its far focal length when the infrared sensor (560, 570) detects an intensity of infrared radiation that has been emitted and reflected off a front surface of a wearer's eye ball when the wearer is looking forward; and characterized in that the infrared sensor (560, 570) is disposed at an opposite side periphery of the at least one switchable lens, and in that the switchable lens is configured to switch to its near focal length when the infrared sensor (560, 570) detects a different intensity of infrared radiation when the infrared radiation is changed in reflecting off the front surface of the wearer's eye ball by an upper eyelid of the wearer when the wearer is looking downward. a switchable lens attached to the pair of spectacles, the switchable lens configured to switch its foci from a far focal length to a near focal length, where the near focal length is smaller than the far focal length; an infrared emitter disposed at a horizontal edge of the at least one switchable lens, the infrared emitter configured to emit an infrared radiation; an infrared sensor (560, 570) configured to detect the infrared radiation from the infrared emitter; wherein the switchable lens is configured to switch to its far focal length when the infrared sensor (560, 570) detects an intensity of infrared radiation that has been emitted and reflected off a front surface of a wearer's eye ball when the wearer is looking forward; and characterized in that the infrared sensor (560, 570) is disposed at an opposite side periphery of the at least one switchable lens, and in that the switchable lens is configured to switch to its near focal length when the infrared sensor (560, 570) detects a different intensity of infrared radiation when the infrared radiation is changed in reflecting off the front surface of the wearer's eye ball by an upper eyelid of the wearer when the wearer is looking downward.
A method of forming an inflatable cuff for an airway management device, comprising the steps of and characterised by: injection moulding a membrane about an airway tube of said device, said membrane including an open length, then; closing said open length of membrane against said airway tube and so forming the inflatable cuff. injection moulding a membrane about an airway tube of said device, said membrane including an open length, then; closing said open length of membrane against said airway tube and so forming the inflatable cuff.
An accelerator comprising: a vacuum chamber comprising a beam extraction port inside said vacuum chamber; an ion source connected to said vacuum chamber and configured to inject ion beams inside said vacuum chamber at an injection point; a pair of iron cores (14A, 14B) having a central axis and being arranged so as to face each other; said pair of iron cores (14A, 14B) configured to generate magnetic fields between each other; said magnetic fields configured to generate multiple annular beam turning trajectories along which the ion beams of respective different energies turn after being injected into the accelerator; an acceleration electrode (9A-9D) configured to accelerate the ion beams; and a beam extraction path configured to extract the ion beams to the outside, characterized in that the ion source is located toward the beam extraction port with respect to the central axis and is configured to inject said ion beams to a position offset to the beam extraction port, such that the gaps between the multiple annular beam turning trajectories between the ion injection point and the beam extraction port are narrower than the gaps between the multiple annular beam turning trajectories between the ion injection point and a direction passing through the ion injection point and the beam extraction port and positioned 180° opposite to the beam extraction port. a vacuum chamber comprising a beam extraction port inside said vacuum chamber; an ion source connected to said vacuum chamber and configured to inject ion beams inside said vacuum chamber at an injection point; a pair of iron cores (14A, 14B) having a central axis and being arranged so as to face each other; said pair of iron cores (14A, 14B) configured to generate magnetic fields between each other; said magnetic fields configured to generate multiple annular beam turning trajectories along which the ion beams of respective different energies turn after being injected into the accelerator; an acceleration electrode (9A-9D) configured to accelerate the ion beams; and a beam extraction path configured to extract the ion beams to the outside, characterized in that the ion source is located toward the beam extraction port with respect to the central axis and is configured to inject said ion beams to a position offset to the beam extraction port, such that the gaps between the multiple annular beam turning trajectories between the ion injection point and the beam extraction port are narrower than the gaps between the multiple annular beam turning trajectories between the ion injection point and a direction passing through the ion injection point and the beam extraction port and positioned 180° opposite to the beam extraction port.
A method, comprising: interpreting a modulation indication bit as a quadrature phase shift keying/ quadrature amplitude modulation indication if both a user equipment and a serving cell support 64 quadrature amplitude modulation according to the following condition: if the modulation indication bit indicates quadrature phase shift keying, interpreting 7 channelization code-set information bits in a high-speed-shared-control-channel, HS-SCCH, part 1 structure as currently interpreted as defined in the 3GPP release 5 specification such that the first three bits of the channelization code-set information bits represent a group code indicator and the last four bits of the channelization code-set information bits represent a code offset indication; and if the modulation indication bit indicates quadrature amplitude modulation, interpreting the 7 channelization code-set information bits in HS-SCCH part 1 structure such that only 6 bits of the channelization code-set information bits are interpreted as code-set information and one bit of the channelization code-set information bits is interpreted as selection between 16 quadrature amplitude modulation and 64 quadrature amplitude modulation. if the modulation indication bit indicates quadrature phase shift keying, interpreting 7 channelization code-set information bits in a high-speed-shared-control-channel, HS-SCCH, part 1 structure as currently interpreted as defined in the 3GPP release 5 specification such that the first three bits of the channelization code-set information bits represent a group code indicator and the last four bits of the channelization code-set information bits represent a code offset indication; and if the modulation indication bit indicates quadrature amplitude modulation, interpreting the 7 channelization code-set information bits in HS-SCCH part 1 structure such that only 6 bits of the channelization code-set information bits are interpreted as code-set information and one bit of the channelization code-set information bits is interpreted as selection between 16 quadrature amplitude modulation and 64 quadrature amplitude modulation.
A device for actuating a door with electric locking, comprising an actuating member mounted rotating on an axis of the device, the actuating member being able to actuate the rotation, via a gear (21, 41), a connecting piece, said connecting piece transmitting the rotational movement to a lock, the device being provided with a locking system comprising: - a first gear wheel, arranged on a part of the connecting piece that meshes with the actuating member, and having the same axis as said part, - a second gear wheel meshing with the first gear wheel, - a blocking lever, provided with a first tooth meshing with the first gear wheel and a second tooth meshing with the second gear wheel, the blocking lever further being provided with a surface able to be magnetized, and - an electromagnet able to magnetize said surface under the action of the electric current, so as to block the blocking lever and the connecting piece via the first and second tooth of the blocking lever. - a first gear wheel, arranged on a part of the connecting piece that meshes with the actuating member, and having the same axis as said part, - a second gear wheel meshing with the first gear wheel, - a blocking lever, provided with a first tooth meshing with the first gear wheel and a second tooth meshing with the second gear wheel, the blocking lever further being provided with a surface able to be magnetized, and - an electromagnet able to magnetize said surface under the action of the electric current, so as to block the blocking lever and the connecting piece via the first and second tooth of the blocking lever.
A press bending station having two opposing molds (5, 6) including a full-face mold and an annular mold; the full-face mold having a mold face with at least one peripheral annular groove located in a surface thereof and at least one hole defined in the annular groove, wherein the at least one hole is in fluid communication with the at least one peripheral annular groove and the at least one peripheral annular groove is formed in a peripheral area of the full-face mold that corresponds to the molding contact area where material is pressed between the full-face mold and the annular mold.