mhurhangee/ep-ind-claims huggingface dataset:
A process for recovering energy from a petroleum, petrochemical, or chemical plant comprising: providing at least a first fluid process stream in a petroleum, petrochemical, or chemical process zone; and controlling a flow rate of the first process stream by directing at least a portion of the first process stream through a first variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; characterised in that the process further comprises: providing at least a second fluid process stream flowing through the process zone; controlling a flow rate of the second process stream by directing at least a portion of the second process stream through at least a second variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; combining the direct current from the first and second power recovery turbines (5A, 5B); and converting the combined recovered direct current into recovered alternating current in a single DC to AC inverter; and providing the recovered alternating current to a first substation. providing at least a first fluid process stream in a petroleum, petrochemical, or chemical process zone; and controlling a flow rate of the first process stream by directing at least a portion of the first process stream through a first variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; characterised in that the process further comprises: providing at least a second fluid process stream flowing through the process zone; controlling a flow rate of the second process stream by directing at least a portion of the second process stream through at least a second variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; combining the direct current from the first and second power recovery turbines (5A, 5B); and converting the combined recovered direct current into recovered alternating current in a single DC to AC inverter; and providing the recovered alternating current to a first substation. providing at least a second fluid process stream flowing through the process zone; controlling a flow rate of the second process stream by directing at least a portion of the second process stream through at least a second variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; combining the direct current from the first and second power recovery turbines (5A, 5B); and converting the combined recovered direct current into recovered alternating current in a single DC to AC inverter; and providing the recovered alternating current to a first substation.
A method for detecting a mutated PIK3CA polynucleotide, comprising: amplifying a PIK3CA polynucleotide; and sequencing the polynucleotide amplified in the amplification step to detect the presence of a mutation in the polynucleotide amplified in the amplification step, wherein the mutation is at least one mutation selected from the group consisting of C112T, G113A, G263A, C311G, G317T, G323C, del332-334, G353A, G365A, C370A, T1035A, G1048C, T1132C, T1258C, G1357C, C1616G, G1624A, A1625G, A1625T, G1633A, A1634G, G1635T, C1636A, A1637C, C1981A, A2102C, G2702T, T2725C, T3022C, A3073G, C3074A, G3129T, C3139T, A3140G, A3140T, G3145A in comparison with a wild type PIK3CA polynucleotide, the wild type PIK3CA polynucleotide having a nucleotide sequence of SEQ ID NO.1.
A handle for a cleaner, comprising: a grip member formed to be movable in a forward direction or a backward direction of the cleaner and gripped by a user; a guide module to guide the grip member to move in the forward direction or the backward direction of the cleaner; a handle body coupled to the guide module; and a pressure sensor to detect pressure generated between the guide module and the handle body, in response to the grip member moving in the forward direction or the backward direction of the cleaner, wherein the guide module is configured to be movable in the forward direction or the backward direction of the cleaner in a state of being coupled to the handle body, the guide module comprising a first plate and a second plate wherein the handle body is located between the first plate and the second plate, characterized in that the handle body is provided with a groove formed in a surface, on which the guide module is disposed, of outer surfaces of the handle body; and either one of the first and second plates (102a, 102b) is provided with a rib, the rib being inserted into the groove in the handle body to guide the movement of the guide module. a grip member formed to be movable in a forward direction or a backward direction of the cleaner and gripped by a user; a guide module to guide the grip member to move in the forward direction or the backward direction of the cleaner; a handle body coupled to the guide module; and a pressure sensor to detect pressure generated between the guide module and the handle body, in response to the grip member moving in the forward direction or the backward direction of the cleaner, wherein the guide module is configured to be movable in the forward direction or the backward direction of the cleaner in a state of being coupled to the handle body, the guide module comprising a first plate and a second plate wherein the handle body is located between the first plate and the second plate, characterized in that the handle body is provided with a groove formed in a surface, on which the guide module is disposed, of outer surfaces of the handle body; and either one of the first and second plates (102a, 102b) is provided with a rib, the rib being inserted into the groove in the handle body to guide the movement of the guide module.
A juice extraction module for juice, comprising: a juice extraction mesh configured to accommodate a screw supplied with a driving force to rotate; a rotating brush configured to be disposed at an outer side of the juice extraction mesh to rotate along with the screw; a container configured to accommodate the screw, the juice extraction mesh, and a rotating brush; a driving gear configured to penetrate through a bottom of the container to be mounted in a driving shaft connected to the screw and transfer a driving force to the rotating brush; a driving transmission assembly configured to have a lower end gear-connected with the driving gear and an upper end disposed at a bottom inside the container; and a driven gear configured to be gear-connected with an upper end of the driving transmission assembly and be formed along an inner circumferential surface of a lower portion of the rotating brush to rotate along with the driving transmission assembly, wherein the driving gear, the driving transmission assembly, and the driven gear are disposed to be isolated from an inner space of the juice extraction mesh and the rotating brush. a juice extraction mesh configured to accommodate a screw supplied with a driving force to rotate; a rotating brush configured to be disposed at an outer side of the juice extraction mesh to rotate along with the screw; a container configured to accommodate the screw, the juice extraction mesh, and a rotating brush; a driving gear configured to penetrate through a bottom of the container to be mounted in a driving shaft connected to the screw and transfer a driving force to the rotating brush; a driving transmission assembly configured to have a lower end gear-connected with the driving gear and an upper end disposed at a bottom inside the container; and a driven gear configured to be gear-connected with an upper end of the driving transmission assembly and be formed along an inner circumferential surface of a lower portion of the rotating brush to rotate along with the driving transmission assembly, wherein the driving gear, the driving transmission assembly, and the driven gear are disposed to be isolated from an inner space of the juice extraction mesh and the rotating brush.
Burner having a mixing device which has a burner tube, a flame tube connected to the burner tube, and a nozzle block arranged in the burner tube, wherein there is arranged coaxially in the burner tube an air nozzle which extends into the flame tube and guides combustion air from the burner tube into the flame tube, and having a holder which holds the nozzle block coaxially in the burner tube and the air nozzle, in that the air nozzle is arranged in an axially fixed manner in the burner tube and the nozzle block is arranged in an axially displaceable manner in the burner tube, characterized in that the nozzle block is axially displaceable by means of a spindle, and in that the mixing device is arranged in a housing of the burner and the spindle is guided out of the housing of the burner.
A compound for imaging primary cilium in biological cells comprising a molecule of formula: wherein Ln is selected from Eu, Tb, Gd, Yb, Er, Dy, Sm, La, Ce, Pr, Nd, Pm, Tm and Y; X - is selected from Cl -, NO 3 -, CH 3 COO -, ClO 4 - or other anions; A 1 is selected from C, N or Si; R 1, R 2 and R 3 are jointly or separately selected from NH(tert)Bu or other amine; R 4, R 5, R 6, R 7, R 8, R 9 and R 10 are jointly or separately selected from H, CF 3, OMe, OEt, OH or NMe 2; R 11 is selected from alkyl, aryl ether, ester, amide or aromatic rings; and m is an integer selected from 0, 1, 2 or 3. wherein Ln is selected from Eu, Tb, Gd, Yb, Er, Dy, Sm, La, Ce, Pr, Nd, Pm, Tm and Y; X - is selected from Cl -, NO 3 -, CH 3 COO -, ClO 4 - or other anions; A 1 is selected from C, N or Si; R 1, R 2 and R 3 are jointly or separately selected from NH(tert)Bu or other amine; R 4, R 5, R 6, R 7, R 8, R 9 and R 10 are jointly or separately selected from H, CF 3, OMe, OEt, OH or NMe 2; R 11 is selected from alkyl, aryl ether, ester, amide or aromatic rings; and m is an integer selected from 0, 1, 2 or 3.
A light emitting diode chip, comprising: a substrate, a light emitting structure that is positioned on an upper portion of the substrate and includes an active layer interposed between a first conductivity type semiconductor layer and a second conductivity type semiconductor layer; and a distributed Bragg reflector reflecting light emitted from the light emitting structure, wherein the distributed Bragg reflector has a reflectivity of 90% or more for light of a first wavelength in a blue wavelength range, light of a second wavelength in a green wavelength range, and light of a third wavelength in a red wavelength range wherein the distributed Bragg reflector includes a first distributed Bragg reflector and a second distributed Bragg reflector; the first distributed Bragg reflector has higher reflectivity for light of the green or red wavelength range than for light of the blue wavelength range, and the second distributed Bragg reflector has higher reflectivity for light of the blue wavelength range than for light of the red wavelength range; and the distributed Bragg reflector is positioned on the lower portion of the substrate and characterized in that the first distributed Bragg reflector is positioned to be closer to the substrate than the second distributed Bragg reflector. a substrate, a light emitting structure that is positioned on an upper portion of the substrate and includes an active layer interposed between a first conductivity type semiconductor layer and a second conductivity type semiconductor layer; and a distributed Bragg reflector reflecting light emitted from the light emitting structure,
Method for adjusting the transmission outputs of two channels (CH1, CH2) of a first link, whereby - data of the first link is simultaneously transmitted over the two channels (CH1, CH2) - and the transmission outputs of the two channels (CH1, CH2) are adjusted to a common value which is dependent upon the value of a quality parameter of the data transmission of the first channel and upon the value of a quality parameter of the data transmission of the second channel. - data of the first link is simultaneously transmitted over the two channels (CH1, CH2) - and the transmission outputs of the two channels (CH1, CH2) are adjusted to a common value which is dependent upon the value of a quality parameter of the data transmission of the first channel and upon the value of a quality parameter of the data transmission of the second channel.
Mains distribution board for electric wirings comprising a rear side to be attached to a wall, a cover placed onto the rear side which cover has an opening, and units of switch material (30, 31) attached in a row at the rear side and extending through the opening at the front side, wherein the mains distribution board is furthermore provided with an identification label having a flat insertion plate placed adjacent to a unit of switch material in the row, characterized in that the insertion plate is provided with an identification section that stands out above the opening and which at the front side of the row stands out from said unit of switch material (30, 31), wherein an identification has been placed on the identification section.
A contaminant removal subsystem, having a first gas-liquid contactor-separator, a second gas-liquid contactor-separator, and a dehumidifier, wherein the first gas-liquid contactor separator is configured to receive dehumidified air having a gas contaminant and to discharge a used liquid absorbent having the gas contaminant and to return purified air to the dehumidifier as a sweep gas; wherein the second gas-liquid contactor-separator is configured to receive the used liquid absorbent having the gas contaminant from the first gas-liquid contactor-separator and to discharge a clean liquid absorbent to the first gas-liquid contactor-separator; wherein the dehumidifier is configured to receive the air having the gas contaminant and to remove water vapor from the air into the sweep gas before discharging dehumidified air to the first gas-liquid contactor-separator; wherein the first and the second gas-liquid contactor-separators (402, 408) comprise hollow fiber membrane bundles (602b, 702b, 802b); and wherein the subsystem comprises an ionic liquid as liquid absorbent that circulates through the first and second gas-liquid contactor-separators (402, 408) in a closed-loop fashion.
A windpower plant, especially for the production of electrical energy, which has an air inlet sector, which is connected to the wind flow entry area by the air deflector sector, where the air inlet sector forms a single space with the air outlet sector, which is geometrically cylindrical, the air deflector sector has a continuously narrowing cross-section in the direction of the air inlet sector, where the air deflector sector is equipped with an opening gap, and where the air outlet sector is firmly connected to an air deflector plate for setting wind direction, where the wind motor that is mounted in the symmetry axis of the air inlet sector is connected to an energy recovery device and the windpower plant is equipped with a built-in control device, characterised in that the air deflector sector is a split air deflector sector, which is made up of connected air deflector sector elements (1/1, 1/2, 1/3... 1/8...), there are the opening gaps in the deflector sector between the air deflector sectors elements (1/1, 1/2, 1/3... 1/8...), the a side of the air outlet sector opposite the air flow direction is closed and the cylindrical shell surface of the air outlet sector is axially located with even spacing, with approximately rectangular air gaps, and a control disc (8/1) fitted to the shaft in the air outlet sector and an axially connected force element (7/1) is provided and a vertical control rod (8/2) is connected to the control disc (8/1) in the radial direction, and a main runner (10/2) is connected to the air inlet sector, where the main runner (10/2) is connected to the base of the windpower plant by a hinged structure (10/1), furthermore, the main runner (10/2) and the parallel vertical control rod (8/2) are equipped with through holes, and in these through holes there are horizontal control rods (8/3) inserted, and the horizontal control rods (8/3) on the section between the main runner (10/2) and the split air deflector sector are equipped with force elements (7/2), furthermore, the horizontal control rods (8/3) are connected to one of the air deflector sector elements (1/1, 1/2, 1/3... 1/8...) at one end, and are connected to the locking elements (8/4) at the other end.
Device for measuring movement and/or position and/or speed, comprising a magnet and a sensor detecting the magnetic field strength, wherein the magnet is a permanent magnet, wherein the magnet generates a substantially dipole-shaped magnetic field, wherein the magnet and/or the sensor interact(s) with a movable element, wherein a relative movement between the sensor and the magnet can be brought about by means of the movable element, and wherein the sensor establishes the components of the magnetic field that are acting in the sensor at the same location in three linearly independent spatial directions, in such a way that the movement and/or the position and/or the speed of the movable element can be established on the basis of the magnetic field strength generated by the magnet and detected by the sensor, characterized in that the magnet is a cylindrical bar magnet, the ratio of the height (h) to the diameter (d) of which is approximately 1:1 and which is magnetized parallel to the central axis thereof, forming the axis of symmetry, of the cylinder, or in that the magnet is a spherical magnet (2"), or in that the magnet is a cylindrical element, on the two main faces of which an approximately conical element with a flattened tip is arranged.
An apparatus, comprising; a processor (107, 750) comprising one or more cache circuits, at least one of the cache circuits comprising local cache resources and gateway logic circuitry, the gateway logic circuitry to: a) determine which requests received by the cache circuit are to be directed to the local cache resources, and b) determine which lower level cache resource that any of the following are to be directed to: i) a request that suffers a cache miss in the local cache resources; ii) an item that has been evicted from the local cache resources; characterised in that the gateway circuitry in each of said at least one of the cache circuits is, by a plurality of pathways (302, 303, 304, 305), directly connected to each lower level cache and to the system memory; and in that each pathway corresponds to a configurable address range. a) determine which requests received by the cache circuit are to be directed to the local cache resources, and b) determine which lower level cache resource that any of the following are to be directed to: i) a request that suffers a cache miss in the local cache resources; ii) an item that has been evicted from the local cache resources;
A method for providing access to a third party to a communication device that is locked with a data protection key, comprising: generating, by the communication device, a data access key by using a vendor public key of a vendor of the communication device, wherein the data access key contains encrypted information relating to the data protection key that can be used to unlock the communication device; storing the data access key within memory associated with the communication device; reformatting, by the communication device, the data access key into a first transportable format comprising a barcode; initiating, by the third party, the unlock procedure by accessing the communication device unlock screen which displays the first reformatted data access key and transporting, by the third party, the reformatted data access key to the vendor of the communication device, wherein the reformatted data access key is processed such that the result will be the binary form of the data access key that is decrypted with a vendor private key of the vendor of the communication device; receiving, by the third party, the data protection key back from the vendor in a second transportable format comprising a barcode; and unlocking, by the third party, the communication device with the data protection key. generating, by the communication device, a data access key by using a vendor public key of a vendor of the communication device, wherein the data access key contains encrypted information relating to the data protection key that can be used to unlock the communication device; storing the data access key within memory associated with the communication device; reformatting, by the communication device, the data access key into a first transportable format comprising a barcode; initiating, by the third party, the unlock procedure by accessing the communication device unlock screen which displays the first reformatted data access key and transporting, by the third party, the reformatted data access key to the vendor of the communication device, wherein the reformatted data access key is processed such that the result will be the binary form of the data access key that is decrypted with a vendor private key of the vendor of the communication device; receiving, by the third party, the data protection key back from the vendor in a second transportable format comprising a barcode; and
A method for maintaining a subcooled state within a bottom layer of a cryogenic fluid in a storage vessel comprising - removing a portion of the cryogenic fluid from near the bottom of the storage vessel; - cooling the removed portion of cryogenic fluid in an external heat exchanger; and - reintroducing the removed portion of cryogenic fluid back into the liquid region of the storage vessel at a position higher than where the cryogenic fluid was removed from the storage vessel, characterized in that said external heat exchanger is at an elevation higher than the position in the tank where the removed liquefied gas is returned, wherein a thermosiphon effect is created to circulate the removed portion of cryogenic fluid from the external heat exchanger to the storage vessel. - removing a portion of the cryogenic fluid from near the bottom of the storage vessel; - cooling the removed portion of cryogenic fluid in an external heat exchanger; and - reintroducing the removed portion of cryogenic fluid back into the liquid region of the storage vessel at a position higher than where the cryogenic fluid was removed from the storage vessel, characterized in that said external heat exchanger is at an elevation higher than the position in the tank where the removed liquefied gas is returned,
A powder feeding apparatus for a tablet press, comprising: a powder storage container, a filling channel arranged in the bottom of the powder storage container for gravityfeeding powder to a die rotation unit positionable thereunder, and a powder advancing device for advancing powder in the region of the filling channel in order to promote a gravity-fed flow of powder from the powder storage container through the filling channel into a die rotation unit positionable thereunder, wherein the powder advancing device includes a filling channel movement unit which is arranged at least partially, in particular completely, in the filling channel and which is configured to advance powder in the filling channel, characterized in that the filling channel movement unit is configured to advance powder by intermittent advancing movements. a powder storage container, a filling channel arranged in the bottom of the powder storage container for gravityfeeding powder to a die rotation unit positionable thereunder, and a powder advancing device for advancing powder in the region of the filling channel in order to promote a gravity-fed flow of powder from the powder storage container through the filling channel into a die rotation unit positionable thereunder, wherein the powder advancing device includes a filling channel movement unit which is arranged at least partially, in particular completely, in the filling channel and which is configured to advance powder in the filling channel, characterized in that the filling channel movement unit is configured to advance powder by intermittent advancing movements.