mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine comprising: a cooled wall for lining a combustor of the gas turbine, the cooled wall comprising: an annular outer wall extending axially along a centerline intersecting the geometric center of the gas turbine, wherein the annular outer wall defines a radial passage extending therethrough; a first inner wall spaced radially inward from the outer wall with respect to the centerline; and a first connecting wall joining the first inner wall to the outer wall , wherein the outer wall , the first inner wall , and the first connecting wall define an axial channel therebetween that is in fluid communication with the radial passage; a second inner wall spaced radially inward from the annular outer wall ; and a second connecting wall joining the second inner wall to the annular outer wall , wherein the second inner wall is axially spaced from the first inner wall to define an opening between a first end of the first inner wall and a second end of the second inner wall; wherein the annular outer wall , the first and second inner walls (16a, b), and the first and second connecting walls (18a, b) form a monolithic body; and wherein the cooled wall has a radially outermost portion consisting of a metallic material and a radially innermost portion consisting of a ceramic material. an annular outer wall extending axially along a centerline intersecting the geometric center of the gas turbine, wherein the annular outer wall defines a radial passage extending therethrough; a first inner wall spaced radially inward from the outer wall with respect to the centerline; and a first connecting wall joining the first inner wall to the outer wall , wherein the outer wall , the first inner wall , and the first connecting wall define an axial channel therebetween that is in fluid communication with the radial passage; a second inner wall spaced radially inward from the annular outer wall ; and a second connecting wall joining the second inner wall to the annular outer wall , wherein the second inner wall is axially spaced from the first inner wall to define an opening between a first end of the first inner wall and a second end of the second inner wall; wherein the annular outer wall , the first and second inner walls (16a, b), and the first and second connecting walls (18a, b) form a monolithic body; and wherein the cooled wall has a radially outermost portion consisting of a metallic material and a radially innermost portion consisting of a ceramic material.
A sample holder comprising: a ceramic thin-walled cylinder having a flat bottom and having a ceramic heat transfer surface to contact a sample container, the ceramic thin-walled cylinder dimensioned to hold a sample container; a ceramic beam ; a thermocouple attached to the bottom of the ceramic thin-walled cylinder , wherein the ceramic thin-walled cylinder is diffusion-bonded to: the ceramic beam ; or a ceramic adapter , to which the ceramic beam is attached. a ceramic thin-walled cylinder having a flat bottom and having a ceramic heat transfer surface to contact a sample container, the ceramic thin-walled cylinder dimensioned to hold a sample container; a ceramic beam ; a thermocouple attached to the bottom of the ceramic thin-walled cylinder , the ceramic beam ; or a ceramic adapter , to which the ceramic beam is attached.
A ready-to-use vincristine composition comprising; a continuous aqueous phase comprising a first aqueous buffer, a liposome phase dispersed within the first aqueous buffer, and a stabilizing aqueous solution encapsulated as cargo within the liposome phase; wherein the stabilizing aqueous solution comprises a second aqueous buffer and stabilized vincristine dissolved therein; wherein the second aqueous buffer comprises an ammonium salt; and wherein the continuous aqueous phase and the stabilizing aqueous solution have a pH difference of at least 2 pH units, and further wherein the pH of the continuous aqueous phase is from 7 to 9. a continuous aqueous phase comprising a first aqueous buffer, a liposome phase dispersed within the first aqueous buffer, and a stabilizing aqueous solution encapsulated as cargo within the liposome phase; wherein the stabilizing aqueous solution comprises a second aqueous buffer and stabilized vincristine dissolved therein; wherein the second aqueous buffer comprises an ammonium salt; and wherein the continuous aqueous phase and the stabilizing aqueous solution have a pH difference of at least 2 pH units, and further wherein the pH of the continuous aqueous phase is from 7 to 9.
An isolated nucleic acid molecule comprising or consisting essentially of exons 20-29 and a portion but not all of intron 19 of an Anaplastic Lymphoma Kinase (ALK) gene, wherein the nucleic acid molecule does not comprise exons 1-19 of the ALK gene, either individually or in any combination, wherein the nucleic acid molecule is about 2300-2600 bp in length.
A system, comprising: at least one computing device; an inventory application executable in the at least one computing device, the inventory application comprising: logic configured to obtain configuration data embodying an interoperability between at least a subset of a plurality of virtual machine instances , wherein the configuration data comprises disk configurations associated with disk access by a virtual machine instance, including one or more of a redundant array of independent disks "RAID" configuration, a disk partitioning scheme, and/or a data redundancy scheme; and logic configured to obtain previously generated identification of applications and to generate an identification for at least one application executed in one of the virtual machine instances based at least in part on comparing the disk configuration of the configuration data to the obtained previously generated identification of applications, wherein the inventory application is configured to be executed external to the machine instances without performing an internal inspection of the one of the machine instances. at least one computing device; an inventory application executable in the at least one computing device, the inventory application comprising: logic configured to obtain configuration data embodying an interoperability between at least a subset of a plurality of virtual machine instances , wherein the configuration data comprises disk configurations associated with disk access by a virtual machine instance, including one or more of a redundant array of independent disks "RAID" configuration, a disk partitioning scheme, and/or a data redundancy scheme; and logic configured to obtain previously generated identification of applications and to generate an identification for at least one application executed in one of the virtual machine instances based at least in part on comparing the disk configuration of the configuration data to the obtained previously generated identification of applications, logic configured to obtain configuration data embodying an interoperability between at least a subset of a plurality of virtual machine instances , wherein the configuration data comprises disk configurations associated with disk access by a virtual machine instance, including one or more of a redundant array of independent disks "RAID" configuration, a disk partitioning scheme, and/or a data redundancy scheme; and logic configured to obtain previously generated identification of applications and to generate an identification for at least one application executed in one of the virtual machine instances based at least in part on comparing the disk configuration of the configuration data to the obtained previously generated identification of applications, wherein the inventory application is configured to be executed external to the machine instances without performing an internal inspection of the one of the machine instances.
An electromagnet device comprising: an electromagnet block comprising an iron core being wound by a coil and an auxiliary yoke fixed to one end portion of the iron core ; a yoke connected to the one end portion of the iron core via a permanent magnet ; a movable iron piece having a pivoting shaft center , the movable iron piece being pivotally disposed at an end face edge portion of the yoke with the pivoting shaft center supported by and disposed in pivotal contact with the end face edge portion of the yoke , the movable iron piece being adapted to pivot on a basis of magnetization and demagnetization of the electromagnet block ; wherein the permanent magnet is located on an extension line of an axial center of the iron core and interposed between the auxiliary yoke and the yoke , characterized in that the auxiliary yoke comprises a caulking hole having an annular step portion on an upper surface of the caulking hole facing the permanent magnet , and the one end portion of the iron core is fitted into the caulking hole . an electromagnet block comprising an iron core being wound by a coil and an auxiliary yoke fixed to one end portion of the iron core ; a yoke connected to the one end portion of the iron core via a permanent magnet ; a movable iron piece having a pivoting shaft center , the movable iron piece being pivotally disposed at an end face edge portion of the yoke with the pivoting shaft center supported by and disposed in pivotal contact with the end face edge portion of the yoke , the movable iron piece being adapted to pivot on a basis of magnetization and demagnetization of the electromagnet block ; wherein the permanent magnet is located on an extension line of an axial center of the iron core and interposed between the auxiliary yoke and the yoke , characterized in that the auxiliary yoke comprises a caulking hole having an annular step portion on an upper surface of the caulking hole facing the permanent magnet , and the one end portion of the iron core is fitted into the caulking hole .
Sealing ring for sealing a sealing gap arranged between two machine elements , the sealing ring comprising an elastically deformable polymer material and a support ring which is form-fittingly embedded in the polymer material at least in part, the support ring being designed as a 3D printed part having an at least partially multilayered structure of its material, and the material of the support ring having a greater modulus of elasticity than the polymer material , characterized in that the support ring can be elastically widened in a radial direction with respect to the central axis of the sealing ring and has dimensionally stable first ring segments which are hingedly connected to one another in the circumferential direction of the sealing ring .
A knee orthosis with - an upper leg frame for arranging on an upper leg and - a lower leg frame for arranging on a lower leg, o wherein the lower leg frame is arranged on the upper leg frame such that it can be swivelled about a first swivel axis by means of at least one joint , and - a calf pad for mounting on a calf, wherein the knee orthosis comprises at least one elastic bearing element that is attached in such a way that the bearing element is tensioned when the knee orthosis is mounted and, in this state, presses the calf pad either directly or indirectly against a calf of the wearer of the knee orthosis and wherein the knee orthosis comprises a pad retainer , characterized in that the pad retainer is arranged on the lower leg frame , wherein the calf pad is arranged on the pad retainer via the at least one elastic bearing element . - an upper leg frame for arranging on an upper leg and - a lower leg frame for arranging on a lower leg, o wherein the lower leg frame is arranged on the upper leg frame such that it can be swivelled about a first swivel axis by means of at least one joint , and o wherein the lower leg frame is arranged on the upper leg frame such that it can be swivelled about a first swivel axis by means of at least one joint , and - a calf pad for mounting on a calf,
A pharmaceutical formulation comprising - daptomycin, - one or more polar protic solvents, and - one or more polar aprotic solvents. - daptomycin, - one or more polar protic solvents, and - one or more polar aprotic solvents.
A pack for holding and re-charging an e-cigarette , said pack comprising: a pack battery ; an opening for receiving an e-cigarette inserted by a user into the pack; a re-charging mechanism for re-charging the e-cigarette received into the pack using the pack battery; and a user-activated switch or button on the exterior of the pack for causing the re-charging mechanism to begin re-charging an e-cigarette which has been inserted into the pack using the pack battery; wherein the pack further comprises a light to indicate the charging status of the e-cigarette, the light being pulsed to indicate the e-cigarette is being recharged; wherein the pack is provided with one or more temperature sensors to detect an excess temperature in the pack and the supply of power from the pack to the e-cigarette requires the temperature of the pack battery to be within acceptable limits. a pack battery ; an opening for receiving an e-cigarette inserted by a user into the pack; a re-charging mechanism for re-charging the e-cigarette received into the pack using the pack battery; and a user-activated switch or button on the exterior of the pack for causing the re-charging mechanism to begin re-charging an e-cigarette which has been inserted into the pack using the pack battery; wherein the pack further comprises a light to indicate the charging status of the e-cigarette, the light being pulsed to indicate the e-cigarette is being recharged; wherein the pack is provided with one or more temperature sensors to detect an excess temperature in the pack and the supply of power from the pack to the e-cigarette requires the temperature of the pack battery to be within acceptable limits.
A process for isomerizing Z -1,1,1,4,4,4-hexafluoro-2-butene to E -1,1,1,4,4,4-hexafluoro-2-butene comprising: (a) providing a starting material comprising Z -1,1,1,4,4,4-hexafluoro-2-butene; (b) contacting the starting material with a suitable catalyst in a reaction zone to produce E -HFO-1336mzz; and optionally, (c) recovering the E -HFO-1336mzz wherein the contacting step is performed in the liquid phase and wherein the suitable catalyst is a metal halide. (a) providing a starting material comprising Z -1,1,1,4,4,4-hexafluoro-2-butene; (b) contacting the starting material with a suitable catalyst in a reaction zone to produce E -HFO-1336mzz; and optionally, (c) recovering the E -HFO-1336mzz
A microfluidic chip, comprising a substrate and an integrated unit on the substrate , wherein the integrated unit comprises: A) a sample chamber , a mixing chamber , and a reaction chamber , wherein the sample chamber is configured to form a first fluid connection with the mixing chamber , and the mixing chamber is configured to form a second fluid connection with the reaction chamber ; B) a distribution channel between the mixing chamber and the reaction chamber ; and C) a circuit configured to provide an air connection between the sample chamber and the mixing chamber ; wherein the mixing chamber comprises: a sleeve disposed on the substrate ; a rotor disposed within the sleeve , wherein the rotor , the sleeve , and the substrate enclose a space within the mixing chamber ; two apertures on the substrate , each configured to form a fluid connection between the mixing chamber and the sample chamber or the distributing channel , e.g., via a channel; and a structure disposed on the rotor and extending toward the substrate , wherein the structure is configured to block or close one or both apertures. A) a sample chamber , a mixing chamber , and a reaction chamber , wherein the sample chamber is configured to form a first fluid connection with the mixing chamber , and the mixing chamber is configured to form a second fluid connection with the reaction chamber ; B) a distribution channel between the mixing chamber and the reaction chamber ; and C) a circuit configured to provide an air connection between the sample chamber and the mixing chamber ; a sleeve disposed on the substrate ; a rotor disposed within the sleeve , wherein the rotor , the sleeve , and the substrate enclose a space within the mixing chamber ; two apertures on the substrate , each configured to form a fluid connection between the mixing chamber and the sample chamber or the distributing channel , e.g., via a channel; and a structure disposed on the rotor and extending toward the substrate , wherein the structure is configured to block or close one or both apertures.
A three-lead electrocardiography monitoring method, the three leads comprising two measurement-lead electrodes and one driving-lead electrode that are attached to a measurement object, the method comprises: acquiring an electrocardiography signal of a first channel of the measured object by means of the two measurement-lead electrodes; andacquiring an electrocardiography signal of a second channel of the measured object by means of the driving-lead electrode and either of the two measurement-lead electrodes; and characterized in that the method further comprises: acquiring a common-mode interference amplitude in an electrocardiography signal of the measured object by means of one or both of the two channels; and choosing, according to the common-mode interference amplitude, one or both of the acquired electrocardiography signal of the first channel and the electrocardiography signal of the second channel for processing, to obtain an electrocardiography parameter of the measured object. acquiring an electrocardiography signal of a first channel of the measured object by means of the two measurement-lead electrodes; andacquiring an electrocardiography signal of a second channel of the measured object by means of the driving-lead electrode and either of the two measurement-lead electrodes; and characterized in that the method further comprises: acquiring a common-mode interference amplitude in an electrocardiography signal of the measured object by means of one or both of the two channels; and choosing, according to the common-mode interference amplitude, one or both of the acquired electrocardiography signal of the first channel and the electrocardiography signal of the second channel for processing, to obtain an electrocardiography parameter of the measured object.
An outdoor unit of an air-conditioning apparatus, the outdoor unit comprising: a housing ; a compressor disposed in the housing ; an outdoor heat exchanger connected to the compressor via a refrigerant pipe ; an air-sending device configured to send air to the outdoor heat exchanger ; an electric component box including an electric component configured to control the compressor ; a dividing plate dividing an interior of the housing into a mechanical chamber accommodating the compressor and an air-sending chamber accommodating the air-sending device , wherein the dividing plate further includes a heat exchanger cover that is bent toward the mechanical chamber to separate the compressor and the outdoor heat exchanger from each other; an electric component mount disposed above the compressor to partition the mechanical chamber from an electric component chamber accommodating the electric component box ; a support part provided along an outer circumferential shape of the electric component mount to project from an inner wall of the housing toward the interior of the housing to support the electric component mount ; a catch part provided to the electric component box installed on an upper surface of the electric component mount and configured to be engaged with a catch hole from above, the catch hole being provided to an upper end of the dividing plate ; and a bent portion provided to an upper end portion of the heat exchanger cover and contacting a lower surface of the electric component mount to support the electric component box . a housing ; a compressor disposed in the housing ; an outdoor heat exchanger connected to the compressor via a refrigerant pipe ; an air-sending device configured to send air to the outdoor heat exchanger ; an electric component box including an electric component configured to control the compressor ; a dividing plate dividing an interior of the housing into a mechanical chamber accommodating the compressor and an air-sending chamber accommodating the air-sending device , wherein the dividing plate further includes a heat exchanger cover that is bent toward the mechanical chamber to separate the compressor and the outdoor heat exchanger from each other; an electric component mount disposed above the compressor to partition the mechanical chamber from an electric component chamber accommodating the electric component box ; a support part provided along an outer circumferential shape of the electric component mount to project from an inner wall of the housing toward the interior of the housing to support the electric component mount ; a catch part provided to the electric component box installed on an upper surface of the electric component mount and configured to be engaged with a catch hole from above, the catch hole being provided to an upper end of the dividing plate ; and a bent portion provided to an upper end portion of the heat exchanger cover and contacting a lower surface of the electric component mount to support the electric component box .
A polynucleotide comprising: (a) a sensor expression cassette comprising (i) a sensor transcription control element operably linked to (ii) a unique identifier sequence providing an RNA oligonucleotide; and (b) an effector expression cassette comprising (i) a sequence providing an effector expression product; wherein said unique identifier sequence specifically identifies said polynucleotide. (a) a sensor expression cassette comprising (i) a sensor transcription control element operably linked to (ii) a unique identifier sequence providing an RNA oligonucleotide; and (i) a sensor transcription control element operably linked to (ii) a unique identifier sequence providing an RNA oligonucleotide; (b) an effector expression cassette comprising (i) a sequence providing an effector expression product; (i) a sequence providing an effector expression product;
Manually operated cutting machine, in particular sawing machine, with a drive assembly having a tool holder for a disc-type cutting tool , in particular a saw blade, and a drive motor for the rotary drive of the tool holder , and with a guide device , which can be guided along a ground with a guide surface and at which the drive assembly is mounted for pivoting, by means of a depth adjustment bearing , about a depth adjustment axis (TA) between an upper and a lower cutting depth position (SU, SO), wherein the tool holder is closer to the guide surface in the lower cutting depth position (SU) than in the upper lower cutting depth position (SO), so that the cutting tool projects farther in front of the guide surface than in the upper lower cutting depth position (SO), wherein the manually operated cutting machine has, for adjusting the respective cutting depth position (SU, SO), a depth adjustment device with a guide depth adjustment element connected to the guide device and with a drive depth adjustment element connected to the drive assembly , which is adjusted relative to the guide depth adjustment element when adjusting the cutting depth position (SU, SO), and with an adjustment body providing at least one adjustment functionality, wherein the adjustment body is mounted movably with respect to the guide depth adjustment element and the drive depth adjustment element and can be releasably attached to the drive depth adjustment element by means of a drive fastening device and to the guide depth adjustment element by means of a guide fastening device , wherein the drive fastening device has a holding element spring-loaded towards a holding position for holding the adjustment body , characterised in that the guide fastening device has a holding element spring-loaded towards a holding position holding the adjustment body for holding the adjustment body .