mhurhangee/ep-ind-claims huggingface dataset:
A method for producing calcium sulfoaluminate cement which comprises the steps of: providing thermal energy by combustion of sulphur and/or a sulphur-containing compound; reacting sulphur oxides produced by combustion of the sulphur and/or sulphur-containing compound with a mixture of calcium oxide and/or carbonate, and alumina and/or its hydrates to form a sulphur-containing mixture; heating the sulphur-containing mixture using the thermal energy to produce a clinker; and reacting remaining sulphur oxides produced by combustion of the sulphur and/or sulphur-containing compound with lime. providing thermal energy by combustion of sulphur and/or a sulphur-containing compound; reacting sulphur oxides produced by combustion of the sulphur and/or sulphur-containing compound with a mixture of calcium oxide and/or carbonate, and alumina and/or its hydrates to form a sulphur-containing mixture; heating the sulphur-containing mixture using the thermal energy to produce a clinker; and reacting remaining sulphur oxides produced by combustion of the sulphur and/or sulphur-containing compound with lime.
A method of enabling use of a camera module with a light emitting diode "LED", the camera module having a processor to execute a white-balance routine that allows the camera module to be used with sources of light having chromaticity coordinates falling along a blackbody curve on a chromaticity chart and falling within a limit region of the chromaticity chart, the limit region overlying a portion of the blackbody curve on the chromaticity chart, the white-balance routine being adapted to receive data defining a reference white region of the chromaticity chart and to derive a reference white color constrained to fall within that reference white region, the LED having chromaticity coordinates that fall outside the limit region, the method comprising: transmitting a white-balance patch to the camera module, the white-balance patch comprising alternative parameter data that includes chromaticity coordinates of points on the chromaticity chart; employing the white-balance patch to override, in accordance with the alternative parameter data, at least one original boundary that defines the limit region with at least one replacement boundary that redefines the limit region to create an alternate limit region to cause at least a portion of the chromaticity coordinates of the LED serving as a flash to fall within the alternate limit region; and, transmitting to the camera module chromaticity coordinates of a first point on the chromaticity chart that falls outside the limit region but within the alternate limit region, and that partly defines an alternate reference white region, the alternate reference white region excluding any portion of the black body curve. transmitting a white-balance patch to the camera module, the white-balance patch comprising alternative parameter data that includes chromaticity coordinates of points on the chromaticity chart; employing the white-balance patch to override, in accordance with the alternative parameter data, at least one original boundary that defines the limit region with at least one replacement boundary that redefines the limit region to create an alternate limit region to cause at least a portion of the chromaticity coordinates of the LED serving as a flash to fall within the alternate limit region; and, transmitting to the camera module chromaticity coordinates of a first point on the chromaticity chart that falls outside the limit region but within the alternate limit region, and that partly defines an alternate reference white region, the alternate reference white region excluding any portion of the black body curve.
A sensor assembly for motor vehicle steering systems, comprising a torque sensor for magnetically determining a steering torque, and a rotational angle sensor for magnetically determining an absolute steering angle (α), characterized in that precisely one carrier member is provided which has a magnetic coding for determining the steering torque and the absolute steering angle (α), which is shared by the torque sensor and the rotational angle sensor.
Print head, comprising a capillary that adjoins at least one elastic element (7, 28) around an axis of symmetry for a fluid to be printed onto a substrate with a nozzle opening, which opens into a pre-chamber, wherein a) the pre-chamber has an outlet opening, which is flush with the nozzle opening of the capillary in its axial alignment to the axis of symmetry, and at least one inlet opening for a guiding gas, b) the at least one elastic element forms a guide for the capillary only in its axial orientation, and c) feeding means provided for the fluid that is to be printed into the capillary, characterised in that d) a mechanical vibration system comprising the at least one elastic element (7, 28) and the capillary with the fluid contained in it, and e) a piezo actuator (10, 19) with a mechanical interaction of force with the vibration system. a) the pre-chamber has an outlet opening, which is flush with the nozzle opening of the capillary in its axial alignment to the axis of symmetry, and at least one inlet opening for a guiding gas, b) the at least one elastic element forms a guide for the capillary only in its axial orientation, and c) feeding means provided for the fluid that is to be printed into the capillary, characterised in that d) a mechanical vibration system comprising the at least one elastic element (7, 28) and the capillary with the fluid contained in it, and e) a piezo actuator (10, 19) with a mechanical interaction of force with the vibration system.
A method of preparing a compound represented by formula: comprising reacting in a reaction mixture a first starting material represented by formula: and a second starting material represented by formula under Negishi conditions: to form the compound of formula, wherein R is an amine protecting group; Y is Cl, Br or I; and Z is Cl, Br, I or triflate.
Cage rotor of a rotary asynchronous machine with - an axially laminated core with grooves running essentially axially, in which at least one electrical conductor is located which is at least composed of two part conductors (12, 13) of different electrically-conductive materials, - a short-circuit ring provided on the respective end face side of the laminated core, which connects the electrical conductors of the respective grooves protruding axially from the laminated core electrically-conductively to one another, wherein the higher-strength material of the different electrically-conductive materials, viewed in the axial course of the respective grooves, is facing, at least in sections, towards the radially-outer area of the groove, wherein at least one part conductor (12, 13) of the conductors of the short-circuit cage is embodied as a preformed solid conductor, characterised in that the preformed solid conductor has special contours, through which the surfaces of the solid conductor are created which run practically in the same alignment as the direction of tangential stresses, wherein the solid conductor is at least partly surrounded by the higher-strength material of the different electrically-conductive materials, wherein the solid conductor is embodied, at least in sections, in an S shape, as a type of comb or as a type of double comb. - an axially laminated core with grooves running essentially axially, in which at least one electrical conductor is located which is at least composed of two part conductors (12, 13) of different electrically-conductive materials, - a short-circuit ring provided on the respective end face side of the laminated core, which connects the electrical conductors of the respective grooves protruding axially from the laminated core electrically-conductively to one another, wherein the higher-strength material of the different electrically-conductive materials, viewed in the axial course of the respective grooves, is facing, at least in sections, towards the radially-outer area of the groove,
A data transmission method performed by a terminal device, comprising: receiving,, configuration information from a first network device or a second network device; configuring, using the received configuration information, the terminal device to collect first data, wherein the first data is data used for machine learning and comprises one or more of the following data: training data, a model parameter gradient, and an inference result; collecting the first data using the configured terminal device; and sending, from the configured terminal device, a first data segment and first information to the first network device, wherein the first data segment is one of one or more data segments corresponding to the first data,- and the first information indicates a target device of the first data segment. receiving,, configuration information from a first network device or a second network device; configuring, using the received configuration information, the terminal device to collect first data, wherein the first data is data used for machine learning and comprises one or more of the following data: training data, a model parameter gradient, and an inference result; collecting the first data using the configured terminal device; and sending, from the configured terminal device, a first data segment and first information to the first network device, wherein the first data segment is one of one or more data segments corresponding to the first data,- and the first information indicates a target device of the first data segment.
A continuous flow centrifuge system comprising: a rotor having a rotor shaft; an upper bearing plate; an upper bearing rotatably securing said rotor shaft in said upper bearing plate; a first snap ring securing said upper bearing to said rotor shaft; a lip seal being positioned over said upper bearing and forming a rotatable seal with said upper bearing plate; a second snap ring securing said lip seal to an inner diameter of said upper bearing plate; a stator housing having a stator therein; a lower bearing plate; and a lower bearing 114) rotatably securing said rotor shaft in said lower bearing plate, said upper and lower bearing plates being secured to said stator housing so that said rotor is operatively aligned with said stator in a non-vacuum environment. a rotor having a rotor shaft; an upper bearing plate; an upper bearing rotatably securing said rotor shaft in said upper bearing plate; a first snap ring securing said upper bearing to said rotor shaft; a lip seal being positioned over said upper bearing and forming a rotatable seal with said upper bearing plate; a second snap ring securing said lip seal to an inner diameter of said upper bearing plate; a stator housing having a stator therein; a lower bearing plate; and a lower bearing 114) rotatably securing said rotor shaft in said lower bearing plate, said upper and lower bearing plates being secured to said stator housing so that said rotor is operatively aligned with said stator in a non-vacuum environment.
An office workplace system, intended to be used together with an office desk, comprising: a vertically extending frame with a base arranged to be placed on, or fixed to, a floor, a wall, a ceiling or a desk top; a sound reducing and/or absorbing screen, wherein the screen is elongated in shape, the front surface of the screen and the short edges of the screen extend vertically and the long edges of the screen extend horizontally; wherein the frame is arranged to hold the screen at a height relative to the floor, the wall, the ceiling or the desk top; wherein the frame is provided with means (42, 43, 44, 45, 46) to adjust the height of the screen relative to the base of the frame; and wherein the system is dimensioned such that the lower edge of the screen is allowed to extend higher than the height of the top front surface of a standard office desk with which the system is used, wherein the system further comprises a computer display mount for holding at least one computer display; wherein the frame holds the display mount at a height relative to the floor, the wall, the ceiling or the desk top; wherein the frame is provided with means (42, 43, 44, 45, 46) to adjust the height of the display mount relative to the base of the frame; and characterised in that the system is provided with means arranged to fix the relative height between the screen and the display mount while the height of the screen and the display mount is being adjusted, and in that the frame comprises a vertically extending plate comprising one, two or more vertical slots in which the screen is slidably mounted. a vertically extending frame with a base arranged to be placed on, or fixed to, a floor, a wall, a ceiling or a desk top; a sound reducing and/or absorbing screen, wherein the screen is elongated in shape, the front surface of the screen and the short edges of the screen extend vertically and the long edges of the screen extend horizontally; wherein the frame is arranged to hold the screen at a height relative to the floor, the wall, the ceiling or the desk top; wherein the frame is provided with means (42, 43, 44, 45, 46) to adjust the height of the screen relative to the base of the frame; and wherein the system is dimensioned such that the lower edge of the screen is allowed to extend higher than the height of the top front surface of a standard office desk with which the system is used, wherein the system further comprises a computer display mount for holding at least one computer display; wherein the frame holds the display mount at a height relative to the floor, the wall, the ceiling or the desk top; wherein the frame is provided with means (42, 43, 44, 45, 46) to adjust the height of the display mount relative to the base of the frame; and characterised in that the system is provided with means arranged to fix the relative height between the screen and the display mount while the height of the screen and the display mount is being adjusted, and in that the frame comprises a vertically extending plate comprising one, two or more vertical slots in which the screen is slidably mounted.
A cold-rolling method for preventing fracture of high-silicon strip steel, wherein the high-silicon strip steel has Si content≥2.3wt%, and at the beginning of cold-rolling, the temperature of the inlet strip steel is above 45°C; characterized in that during the cold-rolling process, emulsion liquid is sputtered onto the strip steel, wherein the flow rate of the emulsion liquid is 3500L/min at the inlet in the rolling direction, wherein the flow rate of the emulsion liquid is 1500~4000L/min at the outlet in the rolling direction, and whereby the temperature of the strip steel is ensured to be above 45°C under the precondition to guarantee technological lubrication.
An optical network comprising first and second passive optical networks, 'PONs' (2010, 2020), each of the first and second PONs comprising: an optical line terminal, 'OLT' (2110, 2120); one or more optical network units, 'ONUs' (2511, 2521); and an optical splitter (2310, 2320) downstream of said OLT and upstream of said one or more ONUs, said splitter comprising: a plurality of inputs (2210, 2211, 2220, 2221), one of said inputs (2210, 2220) being coupled to said OLT, and a plurality of outputs (2410, 2412, 2422, 2421), each of said ONUs being coupled to one of said outputs (2410, 2421); characterised in that the optical network further comprises an optical switch configured to switch the optical network from a first configuration, in which the optical switch is left open so that the first and second PONs operate independently, to a second configuration in response to a fault being detected on the first PON; wherein: one of the plurality of outputs of the second PON's splitter is a spare output that is uncoupled in the first configuration; and one of the plurality of inputs of the first PON's splitter is a spare input that is: uncoupled in the first configuration, and coupled to the spare output of the second PON's splitter in the second configuration such that the second PON is capable of providing protection to the first PON. an optical line terminal, 'OLT' (2110, 2120); one or more optical network units, 'ONUs' (2511, 2521); and an optical splitter (2310, 2320) downstream of said OLT and upstream of said one or more ONUs, said splitter comprising: a plurality of inputs (2210, 2211, 2220, 2221), one of said inputs (2210, 2220) being coupled to said OLT, and a plurality of outputs (2410, 2412, 2422, 2421), each of said ONUs being coupled to one of said outputs (2410, 2421); characterised in that the optical network further comprises an optical switch configured to switch the optical network from a first configuration, in which the optical switch is left open so that the first and second PONs operate independently, to a second configuration in response to a fault being detected on the first PON; wherein: a plurality of inputs (2210, 2211, 2220, 2221), one of said inputs (2210, 2220) being coupled to said OLT, and a plurality of outputs (2410, 2412, 2422, 2421), each of said ONUs being coupled to one of said outputs (2410, 2421); one of the plurality of outputs of the second PON's splitter is a spare output that is uncoupled in the first configuration; and one of the plurality of inputs of the first PON's splitter is a spare input that is: uncoupled in the first configuration, and coupled to the spare output of the second PON's splitter in the second configuration such that the second PON is capable of providing protection to the first PON. uncoupled in the first configuration, and coupled to the spare output of the second PON's splitter in the second configuration
A method for location authentication, the method comprising: demodulating a plurality of client received satellite navigation signals received at a client device from a plurality of navigation satellites respectively to provide a plurality of demodulated client received navigation signals; selecting a subset of the plurality of demodulated client received navigation signals to provide a plurality of client bit frames; computing a function of the plurality of client bit frames to reduce the size of a combination of the plurality of client bit frames to provide a client signature set; demodulating a plurality of server received satellite navigation signals received at a server antenna from the navigation satellites respectively to provide a plurality of demodulated server received navigation signals; selecting a subset of the plurality of demodulated server received navigation signals synchronized to a plurality of client bit frames to provide a plurality of synchronized server bit frames; computing a function of the plurality of synchronized server bit frames to reduce the size of a combination of the plurality of synchronized server bit frames to provide a server signature set; receiving by the server the client signature set; comparing the client signature set and the server signature set to provide a comparison result; and authenticating a location of a client device based on the comparison result. demodulating a plurality of client received satellite navigation signals received at a client device from a plurality of navigation satellites respectively to provide a plurality of demodulated client received navigation signals; selecting a subset of the plurality of demodulated client received navigation signals to provide a plurality of client bit frames; computing a function of the plurality of client bit frames to reduce the size of a combination of the plurality of client bit frames to provide a client signature set; demodulating a plurality of server received satellite navigation signals received at a server antenna from the navigation satellites respectively to provide a plurality of demodulated server received navigation signals; selecting a subset of the plurality of demodulated server received navigation signals synchronized to a plurality of client bit frames to provide a plurality of synchronized server bit frames; computing a function of the plurality of synchronized server bit frames to reduce the size of a combination of the plurality of synchronized server bit frames to provide a server signature set; receiving by the server the client signature set; comparing the client signature set and the server signature set to provide a comparison result; and authenticating a location of a client device based on the comparison result.
Composition comprising at least 67% by weight of crude proteins, at least 5% by weight of chitin, the percentages by weight being given with respect to the total weight of composition, and 85% by weight of digestible proteins with respect to the total weight of crude proteins.
A high-frequency generator for connecting an electrosurgical instrument, comprising - an electrical output connection point for an electrosurgical instrument, - a power supply, which is at least indirectly connected to the output connection point, - a power controller for controlling the electrical output power output via the output connection point, characterized in that the power controller is configured - to begin the output of an electrical output power when an output energy balance amount is greater than an output energy limit value and - to end the output of the electrical output power when the output energy balance amount falls below a minimum value (EBMIN), - the output energy balance amount being determined over a moving determination duration from a supplied specified generator power and the output electrical output power. - an electrical output connection point for an electrosurgical instrument, - a power supply, which is at least indirectly connected to the output connection point, - a power controller for controlling the electrical output power output via the output connection point, - to begin the output of an electrical output power when an output energy balance amount is greater than an output energy limit value and - to end the output of the electrical output power when the output energy balance amount falls below a minimum value (EBMIN), - the output energy balance amount being determined over a moving determination duration from a supplied specified generator power and the output electrical output power.
A system for audibly communicating a status of at least one operably connected device or system, comprising: a status module configured to receive a signal representative of a status of the at least one operably connected device or system, the status having a set of states; and a transceiver operably connected to the status module, wherein the transceiver is configured to receive signals from the status module representative of one of the set of states of the at least one operably connected device or system and to transmit a set of simultaneous musical sounds representative of the set of states of the at least one operably connected device or system; wherein the at least one operably connected device or system includes a motion detection system, and wherein the set of states of the motion detection system includes a first state indicating a lack of motion detected by the motion detection system and a second state indicating motion detected by the motion detection system. a status module configured to receive a signal representative of a status of the at least one operably connected device or system, the status having a set of states; and a transceiver operably connected to the status module, wherein the transceiver is configured to receive signals from the status module representative of one of the set of states of the at least one operably connected device or system and to transmit a set of simultaneous musical sounds representative of the set of states of the at least one operably connected device or system; wherein the at least one operably connected device or system includes a motion detection system, and wherein the set of states of the motion detection system includes a first state indicating a lack of motion detected by the motion detection system and a second state indicating motion detected by the motion detection system.