mhurhangee/ep-ind-claims huggingface dataset:
A rotary furnace, comprising a drum, wherein an end face of each of a feeding end and a discharging end of the drum is a closed end face, and the feeding end is higher than the discharging end, and the rotary furnace further comprises: a feeding device rotatably and sealingly in communication with a feeding inlet at the feeding end of the drum, wherein a cross-sectional area of the feeding inlet is smaller than the cross-sectional area of the feeding end, and an axis of the feeding inlet coincides with a rotational axis of the rotary furnace; a discharging device communicatedly arranged at the discharging end of the drum, wherein a drum material outlet is at a position rotatably and sealingly fitting with the discharging device, a cross-sectional area of the drum material outlet is smaller than a cross-sectional area of the discharging end, and an axis of the drum material outlet coincides with the rotational axis of the rotary furnace; a drive device arranged outside the drum, and configured to drive the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; a support device arranged outside the drum, and configured to rotatably support the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; and an oscillation control device connected to the drive device through wires, and configured to control the drive device to act, to control a radian and frequency of the reciprocating oscillation of the drum. a feeding device rotatably and sealingly in communication with a feeding inlet at the feeding end of the drum, wherein a cross-sectional area of the feeding inlet is smaller than the cross-sectional area of the feeding end, and an axis of the feeding inlet coincides with a rotational axis of the rotary furnace; a discharging device communicatedly arranged at the discharging end of the drum, wherein a drum material outlet is at a position rotatably and sealingly fitting with the discharging device, a cross-sectional area of the drum material outlet is smaller than a cross-sectional area of the discharging end, and an axis of the drum material outlet coincides with the rotational axis of the rotary furnace; a drive device arranged outside the drum, and configured to drive the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; a support device arranged outside the drum, and configured to rotatably support the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; and an oscillation control device connected to the drive device through wires, and configured to control the drive device to act, to control a radian and frequency of the reciprocating oscillation of the drum.
An optical wireless communications receiver for a portable communications device, the receiver comprising a signal processor, and configured to receive radiation signals on which communication data is encoded, wherein the receiver is comprised in or on or configured for mounting to at least part of a periphery or edge of the device, the optical wireless communications receiver comprising a plurality of optical receiver elements distributed around the receiver such that, when the optical receiver is mounted on the portable communication device, the optical receiver elements are distributed around the portable communication device, wherein the signal processor is configured to: distinguish between received signals depending on which respective receiver element the respective signals are received by, to thereby distinguish between radiation signals received from different transmitting devices depending on the location of the receiver element that receives the signal.
A coating composition comprising: an in-store tintable liquid base paint formulation comprising a multistage latex polymer having at least a first stage with a Tg of greater than 0 to 120°C and at least a second stage with a Tg of -35 to 0°C, wherein the difference in Tg of the first and second stage monomers is at least 65°C; and 0.05 to 15 wt% of one or more colorant compositions having volatile organic content of less than 5 wt%; which colorants are added to the base paint formulation at a point-of-sale to achieve a desired color; wherein the coating composition has scrub resistance of at least 600 scrubs tested using ASTM D2486-96. an in-store tintable liquid base paint formulation comprising a multistage latex polymer having at least a first stage with a Tg of greater than 0 to 120°C and at least a second stage with a Tg of -35 to 0°C, wherein the difference in Tg of the first and second stage monomers is at least 65°C; and 0.05 to 15 wt% of one or more colorant compositions having volatile organic content of less than 5 wt%; which colorants are added to the base paint formulation at a point-of-sale to achieve a desired color; wherein the coating composition has scrub resistance of at least 600 scrubs tested using ASTM D2486-96.
A method of manufacturing elementary chips (200; 400) of a LED-based emissive display device, each chip comprising an inorganic semiconductor LED, a circuit for controlling the LED, and a plurality of areas (125, 126, 127, 128) of connection to an external device arranged on a connection surface of the chip, the method comprising the steps of: a) forming the control circuits of the chips inside and on top of a semiconductor substrate so that each control circuit comprises a contact pad on the side of a first surface of the substrate; b) transferring onto the first surface of the substrate a LED stack comprising at least first and second semiconductor layers of opposite conductivity types, so that the second layer of the stack is electrically connected to the contact pads of the control circuits; c) forming in each chip a peripheral trench (209; 409) surrounding, in top view, the control circuit and the LED of the chip, the peripheral trench extending vertically in the substrate along the entire height of the control circuit, crossing the second semiconductor layer of the LED stack, and at least partially penetrating into the first semiconductor layer of the LED stack; d) forming in each trench (209; 409) a ring-shaped metallization (215; 415) in contact with the first semiconductor layer of the LED stack along the entire length of the trench; and e) cutting the substrate and the LED stack along cutting paths located, in top view, outside of the peripheral trenches of the chips to individualize the chips. a) forming the control circuits of the chips inside and on top of a semiconductor substrate so that each control circuit comprises a contact pad on the side of a first surface of the substrate; b) transferring onto the first surface of the substrate a LED stack comprising at least first and second semiconductor layers of opposite conductivity types, so that the second layer of the stack is electrically connected to the contact pads of the control circuits; c) forming in each chip a peripheral trench (209; 409) surrounding, in top view, the control circuit and the LED of the chip, the peripheral trench extending vertically in the substrate along the entire height of the control circuit, crossing the second semiconductor layer of the LED stack, and at least partially penetrating into the first semiconductor layer of the LED stack; d) forming in each trench (209; 409) a ring-shaped metallization (215; 415) in contact with the first semiconductor layer of the LED stack along the entire length of the trench; and e) cutting the substrate and the LED stack along cutting paths located, in top view, outside of the peripheral trenches of the chips to individualize the chips.
A process for treating volatile organic compounds (VOC's) contained in exhaust gas flow, comprising: a) an atmospheric dew point temperature sensing step of sensing a dew point temperature of the atmosphere as a reference temperature; b) a humidification and condensation processing step of spraying water mist all over the exhaust gas flow to increase humidity thereof and condensing the exhaust gas flow into condensate contained the volatile organic compounds; c) a treated exhaust gas flow dew point temperature sensing step of sensing a dew point temperature of the treated exhaust gas flow after the humidification and condensation processing step; d) a collection step of collecting dropped condensate from the humidification and condensation processing step and then transporting the dropped condensate back to the humidification and condensation processing step for circulation spray; and f) a control step of controlling the dew point temperature of the treated exhaust gas flow to be close to the reference temperature. a) an atmospheric dew point temperature sensing step of sensing a dew point temperature of the atmosphere as a reference temperature; b) a humidification and condensation processing step of spraying water mist all over the exhaust gas flow to increase humidity thereof and condensing the exhaust gas flow into condensate contained the volatile organic compounds; c) a treated exhaust gas flow dew point temperature sensing step of sensing a dew point temperature of the treated exhaust gas flow after the humidification and condensation processing step; d) a collection step of collecting dropped condensate from the humidification and condensation processing step and then transporting the dropped condensate back to the humidification and condensation processing step for circulation spray; and f) a control step of controlling the dew point temperature of the treated exhaust gas flow to be close to the reference temperature.
A power supply circuit for supplying a stable DC current output, the power supply circuit comprising: an LLC converter stage for converting a DC voltage input into a DC voltage output, the power supply circuit further comprising: at least one hysteretic converter stage having a DC voltage input coupled to the DC voltage output of the LLC converter stage, and having a DC current output (104; 118), and wherein the LLC converter stage lacks a feedback control. an LLC converter stage for converting a DC voltage input into a DC voltage output, the power supply circuit further comprising: at least one hysteretic converter stage having a DC voltage input coupled to the DC voltage output of the LLC converter stage, and having a DC current output (104; 118), and wherein the LLC converter stage lacks a feedback control. at least one hysteretic converter stage having a DC voltage input coupled to the DC voltage output of the LLC converter stage, and having a DC current output (104; 118), and wherein the LLC converter stage lacks a feedback control.
A method for simultaneous transmission of multiple data streams across an optical communication path, characterized in that the method comprising: identifying a power level assignment scheme, the power level assignment scheme assigning different power levels to first and second light sources; determining a current phase of the power level assignment scheme; determining a first power level of the first light source corresponding to a first stream of data to be transmitted across the optical communication path based upon the power level assignment scheme and the current phase; and transmitting data of the first stream of data at a first frequency across the optical communication path using the first light source at the first power level, the data of the first stream of data transmitted at a same time and frequency as data of a second stream of data is transmitted across the same optical communication path, the second stream of data transmitted at a second power level. identifying a power level assignment scheme, the power level assignment scheme assigning different power levels to first and second light sources; determining a current phase of the power level assignment scheme; determining a first power level of the first light source corresponding to a first stream of data to be transmitted across the optical communication path based upon the power level assignment scheme and the current phase; and transmitting data of the first stream of data at a first frequency across the optical communication path using the first light source at the first power level, the data of the first stream of data transmitted at a same time and frequency as data of a second stream of data is transmitted across the same optical communication path, the second stream of data transmitted at a second power level.
A household appliance comprising a body; a drum which is disposed in the body, which is rotated around its own axis and which is suitable for loading the laundry therein; at least one bearing member which provides the connection between the drum and the body; at least one shaft which is provided on the bearing member; at least one wheel which is connected to the shaft, which supports the drum by rotating together with the drum and whereon the drum is seated; and a ball bearing which is provided on the wheel, which contacts the shaft and which enables the wheel to be rotatably connected to the shaft, the drum, the ball bearing and the shaft which are manufactured from electrically conductive material; at least one conductive part which is provided on the wheel and which contacts the drum and the ball bearing to ensure electrical transmission from the drum to the ball bearing; and at least one grounding line which contacts the shaft and which ensures that the electric charge transmitted from the conductive part to the ball bearing is grounded through the shaft characterized by at least one wheel body which is provided on the wheel and which is manufactured from non-conductive material, and by the conductive part which has at least one outer body provided on the wheel so as to contact the drum, and at least one arm extending on the wheel body so as to contact the outer body and the ball bearing.
A method comprising: receiving, using a processor, image data indicative of an environment from at least one sensor of a vehicle, wherein the vehicle is configured to operate in an autonomous mode in the environment, and wherein the vehicle is substantially in a lane of travel of the environment; comparing the image data to a predetermined image map of a road in the environment indicative of the lane of travel; based on the comparing, determining a portion of the image data that corresponds to the lane of travel and disregarding a remaining portion of the image data; performing object detection based on only the determined portion of the image data; and providing instructions to control the vehicle in the autonomous mode in the environment based on the performed object detection. receiving, using a processor, image data indicative of an environment from at least one sensor of a vehicle, wherein the vehicle is configured to operate in an autonomous mode in the environment, and wherein the vehicle is substantially in a lane of travel of the environment; comparing the image data to a predetermined image map of a road in the environment indicative of the lane of travel; based on the comparing, determining a portion of the image data that corresponds to the lane of travel and disregarding a remaining portion of the image data; performing object detection based on only the determined portion of the image data; and providing instructions to control the vehicle in the autonomous mode in the environment based on the performed object detection.
Submarine direct-current network with two subnetworks (2, 3), which can be or are connected to one another by way of a network coupling, wherein each of the subnetworks (2, 3) has at least one generator for generating electrical energy, at least one battery for storing electrical energy and as an energy user a motor for driving a propeller of the submarine, characterised in that the battery comprises a number of battery groups connected in parallel, which in turn consist of in each case a number of strands from high-power energy accumulator battery cells that are connected in series, wherein a current-increase-limiting protective element is switched in each of the strands and wherein a further current-increase-limiting protective element (22, 23) exists for the total short-circuit currents of a number of battery groups.
A flap for an inhalation actuated mechanism of a powder inhaler, comprising: a base member comprising a plate-shaped flat portion; a skirt structure, wherein the skirt structure comprises first side wall portions, which substantially extend in a longitudinal direction of the base member, and a second side wall portion which extends between the first side wall portions in a width direction of the base member such that the skirt structure comprising the first side wall portions and the second side wall portion extends along the circumference of the base member, but is open toward a front end of the base member; and a coupling portion to be coupled to a resilient member of the inhalation actuated mechanism, wherein the coupling portion projects from a lower surface of the base member downward, characterized in that the skirt structure projects upward from the plate-shaped flat portion of the base member. a base member comprising a plate-shaped flat portion; a skirt structure, wherein the skirt structure comprises first side wall portions, which substantially extend in a longitudinal direction of the base member, and a second side wall portion which extends between the first side wall portions in a width direction of the base member such that the skirt structure comprising the first side wall portions and the second side wall portion extends along the circumference of the base member, but is open toward a front end of the base member; and a coupling portion to be coupled to a resilient member of the inhalation actuated mechanism, wherein the coupling portion projects from a lower surface of the base member downward, characterized in that the skirt structure projects upward from the plate-shaped flat portion of the base member.
A method for an autonomous handover in an unlicensed spectrum performed by a user equipment, the method comprising: receiving a first measurement condition including a first maximum duration of time for sending a message informing that the autonomous handover is being initiated; when an autonomous handover event is triggered, starting a timer to indicate whether the first maximum duration of time has expired; initiating the sending of the message to an access node of a source cell during the first maximum duration of time, wherein the message is sent when a channel clearance procedure is successful and; commencing the autonomous handover towards an access node of a target cell after the first maximum duration of time has expired. receiving a first measurement condition including a first maximum duration of time for sending a message informing that the autonomous handover is being initiated; when an autonomous handover event is triggered, starting a timer to indicate whether the first maximum duration of time has expired; initiating the sending of the message to an access node of a source cell during the first maximum duration of time, wherein the message is sent when a channel clearance procedure is successful and; commencing the autonomous handover towards an access node of a target cell after the first maximum duration of time has expired.
A user equipment, UE, comprising: means for transmitting, to a base station, an indication that Physical Uplink Shared Channel, PUSCH, transmission with a set number of resource block sets is supported at the UE, the set number being at least two; means for receiving, from the base station, information for scheduling including uplink resource allocation information for indicating to the UE two or more resource block sets to be allocated to the UE for PUSCH transmission, wherein the number of the two or more resource block sets to be allocated to the UE is according to the set number of resource block sets; and means for transmitting, to the base station, a demodulation reference signal for use in demodulation of the PUSCH, wherein a sequence length of the demodulation reference signal matches a transmit bandwidth which consists of the two or more sets of resource blocks to be allocated to the UE, each of the allocated sets of resource blocks to be allocated to the UE consist of one or more consecutive resource blocks, and the two or more sets of resource blocks to be allocated to the UE are separated in frequency by at least one subcarrier that is not allocated to the UE. means for transmitting, to a base station, an indication that Physical Uplink Shared Channel, PUSCH, transmission with a set number of resource block sets is supported at the UE, the set number being at least two; means for receiving, from the base station, information for scheduling including uplink resource allocation information for indicating to the UE two or more resource block sets to be allocated to the UE for PUSCH transmission, wherein the number of the two or more resource block sets to be allocated to the UE is according to the set number of resource block sets; and means for transmitting, to the base station, a demodulation reference signal for use in demodulation of the PUSCH, wherein a sequence length of the demodulation reference signal matches a transmit bandwidth which consists of the two or more sets of resource blocks to be allocated to the UE, each of the allocated sets of resource blocks to be allocated to the UE consist of one or more consecutive resource blocks, and the two or more sets of resource blocks to be allocated to the UE are separated in frequency by at least one subcarrier that is not allocated to the UE.
A degron comprising an amino acid sequence having at least 92% identity to the amino acid sequence of SEQ ID NO:1, wherein the degron is capable of promoting degradation of a polypeptide.
A hair care composition comprising: a. from 0.25% to 80% of a pre-emulsified emulsion comprising from 0.005% to 80% of one or more materials selected from the group consisting of metathesized unsaturated polyol esters, with a molecular weight greater than or equal to 1500, by weight of said hair care composition; wherein said metathesized unsaturated polyol esters are oligomers, wherein said one or more oligomers is a triglyceride oligomer, wherein the triglyceride oligomer is a soy oligomer; wherein an emulsifier is selected from the group consisting of anionic emulsifier, non-ionic emulsifier, cationic emulsifier, amphoteric emulsifier, and mixtures thereof; wherein the average particle size of the pre-emulsified oil in water emulsion is from 20 nanometers to 20 microns; and b. a cationic surfactant system; further wherein the composition is stable with respect to one of the following measures selected from emulsion particle size, viscosity or visual phase separation and mixtures thereof. a. from 0.25% to 80% of a pre-emulsified emulsion comprising from 0.005% to 80% of one or more materials selected from the group consisting of metathesized unsaturated polyol esters, with a molecular weight greater than or equal to 1500, by weight of said hair care composition; wherein said metathesized unsaturated polyol esters are oligomers, wherein said one or more oligomers is a triglyceride oligomer, wherein the triglyceride oligomer is a soy oligomer; wherein an emulsifier is selected from the group consisting of anionic emulsifier, non-ionic emulsifier, cationic emulsifier, amphoteric emulsifier, and mixtures thereof; wherein the average particle size of the pre-emulsified oil in water emulsion is from 20 nanometers to 20 microns; and b. a cationic surfactant system;