mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing organic coating porous granules for a fish feed or an assorted feed aid using the blood of livestock and clay minerals, the method comprising: a first mixing step of preparing plural clay minerals including a zeolite and a bentonite and then pulverizing, calcining, and mixing them respectively, thereby preparing a powder mixture; a second mixing step of preparing the blood of livestock, and then mixing the blood of livestock with the powder mixture by pulverizing, thereby preparing a fluid colloidal slurry; a molding step of jetting the fluid colloidal slurry prepared in the second mixing step at a high pressure in a granulator with an inner temperature of 130-400°C, thereby preparing granules including a granule layer having a porous structure and an organic coating layer formed outside the granule layer to wrap the granule layer; and cooling the molded granules. a first mixing step of preparing plural clay minerals including a zeolite and a bentonite and then pulverizing, calcining, and mixing them respectively, thereby preparing a powder mixture; a second mixing step of preparing the blood of livestock, and then mixing the blood of livestock with the powder mixture by pulverizing, thereby preparing a fluid colloidal slurry; a molding step of jetting the fluid colloidal slurry prepared in the second mixing step at a high pressure in a granulator with an inner temperature of 130-400°C, thereby preparing granules including a granule layer having a porous structure and an organic coating layer formed outside the granule layer to wrap the granule layer; and cooling the molded granules.
A vehicle summoning method, comprising: obtaining, when a vehicle is in a parking state, identifier information of a person in a first range around the vehicle; when the identifier information of the person in the first range meets a preset condition, determining, as a target person, the person who meets the preset condition; obtaining a body movement of the target person; when a first distance is less than a first threshold, controlling, based on the body movement, the vehicle to travel to a first location, wherein the first location is obtained based on the vehicle and information about an ambient environment of the vehicle, and the first distance is used to indicate a distance between the target person and the vehicle; and wherein the controlling, based on the body movement, the vehicle to travel to a first location comprises: obtaining a first direction based on the body movement; and controlling the vehicle to travel in the first direction to the first location. obtaining, when a vehicle is in a parking state, identifier information of a person in a first range around the vehicle; when the identifier information of the person in the first range meets a preset condition, determining, as a target person, the person who meets the preset condition; obtaining a body movement of the target person; when a first distance is less than a first threshold, controlling, based on the body movement, the vehicle to travel to a first location, wherein the first location is obtained based on the vehicle and information about an ambient environment of the vehicle, and the first distance is used to indicate a distance between the target person and the vehicle; and wherein the controlling, based on the body movement, the vehicle to travel to a first location comprises: obtaining a first direction based on the body movement; and controlling the vehicle to travel in the first direction to the first location. obtaining a first direction based on the body movement; and controlling the vehicle to travel in the first direction to the first location.
Process for the production of synthesis gas, which involves the steps of a) preparing a vapor phase mixture comprising steam and glycerol, and b) catalytic conversion of the vapor phase mixture into synthesis gas in a reformer, wherein - the vapor phase mixture is prepared by atomizing the glycerol through a nozzle such that the glycerol is present as droplets with a droplet size of less than 500 μm and the time to complete evaporation does not exceed 0.5 seconds, said vapor phase having a H 2 O/C molar ratio of at least 2, - the nozzle that generates the droplets is an atomizing nozzle, which is aided by steam, and - the glycerol is at a temperature of less than 180 °C and is fed to the nozzle with steam chambers followed by a heating device. a) preparing a vapor phase mixture comprising steam and glycerol, and b) catalytic conversion of the vapor phase mixture into synthesis gas in a reformer, wherein - the vapor phase mixture is prepared by atomizing the glycerol through a nozzle such that the glycerol is present as droplets with a droplet size of less than 500 μm and the time to complete evaporation does not exceed 0.5 seconds, said vapor phase having a H 2 O/C molar ratio of at least 2, - the nozzle that generates the droplets is an atomizing nozzle, which is aided by steam, and - the glycerol is at a temperature of less than 180 °C and is fed to the nozzle with steam chambers followed by a heating device. - the vapor phase mixture is prepared by atomizing the glycerol through a nozzle such that the glycerol is present as droplets with a droplet size of less than 500 μm and the time to complete evaporation does not exceed 0.5 seconds, said vapor phase having a H 2 O/C molar ratio of at least 2, - the nozzle that generates the droplets is an atomizing nozzle, which is aided by steam, and - the glycerol is at a temperature of less than 180 °C and is fed to the nozzle with steam chambers followed by a heating device.
Ingestible and biologically inert gastric volume reduction device comprising: a controllably adjustable volume subsystem including a titration system that in an expansion mode of the device increases the volume of the device and in a contraction mode of the device decreases the volume of the device; and a control subsystem including a sensor and a receiver coupled to the volume subsystem and configured to selectively set the mode of the device between the expansion mode and the contraction mode; characterized in that the titration system, in response to control from the control subsystem, is capable of releasing a first gas agent that expands the volume of the device in the expansion mode and releasing a second gas agent that reduces the volume of the device in the contraction mode. a controllably adjustable volume subsystem including a titration system that in an expansion mode of the device increases the volume of the device and in a contraction mode of the device decreases the volume of the device; and a control subsystem including a sensor and a receiver coupled to the volume subsystem and configured to selectively set the mode of the device between the expansion mode and the contraction mode; characterized in that the titration system, in response to control from the control subsystem, is capable of releasing a first gas agent that expands the volume of the device in the expansion mode and releasing a second gas agent that reduces the volume of the device in the contraction mode.
A switchable light-collimating film comprising: a first light-transmissive electrode layer; a collimating layer having a thickness of at least 20 μm, and comprising a plurality of elongated chambers, each elongated chamber having an opening, a height, a length, and a width, and being elongated along its length; a bistable electrophoretic fluid comprising pigment particles disposed in each elongated chamber; a sealing layer that seals the bistable electrophoretic fluid within at least one of the plurality of elongated chambers by spanning the opening of the elongated chamber; and a second light-transmissive electrode layer, wherein the first and second light-transmissive layers are disposed on either side of the collimating layer, the switchable light-collimating film being characterized in that the elongated chambers are arranged in rows and columns when the collimating layer is viewed through the first light-transmissive electrode layer, and wherein the adjacent elongated chambers within the same row are separated by a gap of less than 30 μm, the gaps between adjacent elongated chambers in the first row being offset along the rows from the gaps between adjacent elongated chambers in the second row. a first light-transmissive electrode layer; a collimating layer having a thickness of at least 20 μm, and comprising a plurality of elongated chambers, each elongated chamber having an opening, a height, a length, and a width, and being elongated along its length; a bistable electrophoretic fluid comprising pigment particles disposed in each elongated chamber; a sealing layer that seals the bistable electrophoretic fluid within at least one of the plurality of elongated chambers by spanning the opening of the elongated chamber; and a second light-transmissive electrode layer, wherein the first and second light-transmissive layers are disposed on either side of the collimating layer, the switchable light-collimating film being characterized in that the elongated chambers are arranged in rows and columns when the collimating layer is viewed through the first light-transmissive electrode layer, and wherein the adjacent elongated chambers within the same row are separated by a gap of less than 30 μm, the gaps between adjacent elongated chambers in the first row being offset along the rows from the gaps between adjacent elongated chambers in the second row.
A method comprising: (a) receiving one or more fine time measurement, FTM, requests from a wireless station by an access point, AP, in an indoor wireless local area network, wherein the AP has multiple antennas strategically placed in different locations via long extending cables; (b) exchanging FTM frames with the station via a first antenna and measuring a first set of timestamps associated with the first antenna, wherein the first set of timestamps are transmitted to the station; and (c) exchanging FTM frames with the station via a second antenna and measuring a second set of timestamps associated with the second antenna, wherein the second set of timestamps are transmitted to the station. (a) receiving one or more fine time measurement, FTM, requests from a wireless station by an access point, AP, in an indoor wireless local area network, wherein the AP has multiple antennas strategically placed in different locations via long extending cables; (b) exchanging FTM frames with the station via a first antenna and measuring a first set of timestamps associated with the first antenna, wherein the first set of timestamps are transmitted to the station; and (c) exchanging FTM frames with the station via a second antenna and measuring a second set of timestamps associated with the second antenna, wherein the second set of timestamps are transmitted to the station.
A system for communicating between a host and a plurality of peripheral devices (210a..f), the system comprising: a plurality of class drivers on the host, wherein each of the class drivers implements functionality associated with one or more of the plurality of peripheral devices (210a..f); a plurality of miniport drivers on the host, wherein each miniport driver provides an interface by which one or more of the class drivers communicate with one or more of the plurality peripheral devices (210a..f) using class protocols, wherein the miniport drivers communicate through a single host interface supported by the host; characterized by an embedded controller comprising firmware configured to implement the bus transactions using the bus protocol chosen for the single host interface, wherein the firmware of the embedded controller is further configured to interface with the plurality of peripheral devices (210a..f) using the respective native bus protocols of the peripheral devices (210a..f) and wherein the embedded controller interfaces with the plurality of miniport drivers using the single host interface. a plurality of class drivers on the host, wherein each of the class drivers implements functionality associated with one or more of the plurality of peripheral devices (210a..f); a plurality of miniport drivers on the host, wherein each miniport driver provides an interface by which one or more of the class drivers communicate with one or more of the plurality peripheral devices (210a..f) using class protocols, wherein the miniport drivers communicate through a single host interface supported by the host; characterized by an embedded controller comprising firmware configured to implement the bus transactions using the bus protocol chosen for the single host interface, wherein the firmware of the embedded controller is further configured to interface with the plurality of peripheral devices (210a..f) using the respective native bus protocols of the peripheral devices (210a..f) and wherein the embedded controller interfaces with the plurality of miniport drivers using the single host interface.
A clothes treating apparatus, comprising: a housing having an accommodation space therein; and a hanger accommodated in the accommodation space, and configured to hang an clothing item thereon, wherein the hanger includes: a hook detachably mounted to the housing; and a frame having a first extension and a second extension which extend to two directions from the hook, and configured to support the clothing item by at least one of the first and second extensions (122a, 122b); a body bar connected to the first and second extensions (122a, 122b), and protruded between the first and second extensions (122a, 122b) so as to outward pressurize the clothing item hung on the frame, wherein the body bar is formed between the hook and a clip, wherein the body bar is provided with a first rotatable bar and a second rotatable bar hinge-coupled to the first and second extensions (122a, 122b) and protruded back and forth by rotation; and the clip disposed at a lower part of the hanger, and configured to fix the clothing item hung on the frame. a housing having an accommodation space therein; and a hanger accommodated in the accommodation space, and configured to hang an clothing item thereon, wherein the hanger includes: a hook detachably mounted to the housing; and a frame having a first extension and a second extension which extend to two directions from the hook, and configured to support the clothing item by at least one of the first and second extensions (122a, 122b); a body bar connected to the first and second extensions (122a, 122b), and protruded between the first and second extensions (122a, 122b) so as to outward pressurize the clothing item hung on the frame, wherein the body bar is formed between the hook and a clip, wherein the body bar is provided with a first rotatable bar and a second rotatable bar hinge-coupled to the first and second extensions (122a, 122b) and protruded back and forth by rotation; and the clip disposed at a lower part of the hanger, and configured to fix the clothing item hung on the frame. a hook detachably mounted to the housing; and a frame having a first extension and a second extension which extend to two directions from the hook, and configured to support the clothing item by at least one of the first and second extensions (122a, 122b); a body bar connected to the first and second extensions (122a, 122b), and protruded between the first and second extensions (122a, 122b) so as to outward pressurize the clothing item hung on the frame, wherein the body bar is formed between the hook and a clip, wherein the body bar is provided with a first rotatable bar and a second rotatable bar hinge-coupled to the first and second extensions (122a, 122b) and protruded back and forth by rotation; and the clip disposed at a lower part of the hanger, and configured to fix the clothing item hung on the frame.
A sub-band processing method, comprising: transforming an audio signal into a plurality of frequency bins each having a phase value; partitioning the plurality of frequency bins into a smaller number of bands; defining a first band to include multiple bins of the plurality of frequency bins; determining a representative phase value for the first band by a processor programmed to determine the representative phase value based on the phase value of at least one of the multiple bins within the first band; determining a representative magnitude for the first band; and processing the first band using the representative phase and magnitude value, based on original spectral relationships between the representative phase and magnitude value and the bins in the first band. transforming an audio signal into a plurality of frequency bins each having a phase value; partitioning the plurality of frequency bins into a smaller number of bands; defining a first band to include multiple bins of the plurality of frequency bins; determining a representative phase value for the first band by a processor programmed to determine the representative phase value based on the phase value of at least one of the multiple bins within the first band; determining a representative magnitude for the first band; and processing the first band using the representative phase and magnitude value, based on original spectral relationships between the representative phase and magnitude value and the bins in the first band.
An injection molding machine comprising: a movable member; a motor which moves the movable member; a motion conversion mechanism which converts rotation motion of the motor into linear motion of the movable member, a plasticizing cylinder which heats a molding material which is filled into a mold unit; and a delivery member which sends out the molding material in the plasticizing cylinder, wherein the motor is mounted on the movable member and moves along with the movable member, the motion conversion mechanism includes a female screw member and a male screw member corresponding to the female screw member, and at least a part of the female screw member is disposed at a position overlapping the motor in an axial direction, wherein the center line of the injection motor and the center line of the motion conversion mechanism are disposed on the same straight line, and the delivery member moves along with the movable member. a movable member; a motor which moves the movable member; a motion conversion mechanism which converts rotation motion of the motor into linear motion of the movable member, a plasticizing cylinder which heats a molding material which is filled into a mold unit; and a delivery member which sends out the molding material in the plasticizing cylinder, wherein the motor is mounted on the movable member and moves along with the movable member, the motion conversion mechanism includes a female screw member and a male screw member corresponding to the female screw member, and at least a part of the female screw member is disposed at a position overlapping the motor in an axial direction, wherein the center line of the injection motor and the center line of the motion conversion mechanism are disposed on the same straight line, and the delivery member moves along with the movable member.
A filler head apparatus for filling and emptying a container with flowable material through a fitment on the container, the fitment having a removable cap, the filler head comprising: (a) a cylindrical outer housing having a proximal end and a distal end, the outer housing configured with a fitment opening at the distal end to receive the container fitment; (b) a hollow inner cylinder slidably engaged within the outer housing to telescopically slide within the outer housing to advance toward and retract away from the outer housing distal end; (c) a transfer tube assembly extending through the inner cylinder through which the flowable material flows when filling and emptying the container, the transfer tube having a leading end connectable to the fitment and an opposite end connectable to an external source of flowable material or to an external receptacle for the flowable material; (d) a fitment cap assembly positioned within the inner cylinder for removing the fitment cap from the fitment and attaching the fitment cap to the fitment, the apparatus having a leading end engageable with the fitment cap; and (e) an actuating system that selectively positions the leading end of the transfer tube assembly at the fitment or the leading end of the fitment cap assembly at the fitment when the inner cylinder is advanced to the distal end of the outer housing and correspondingly retracts the leading end of the transfer tube assembly away from the fitment or the leading end of the fitment cap assembly away from the fitment when the inner cylinder is retracted from the distal end of the outer housing. (a) a cylindrical outer housing having a proximal end and a distal end, the outer housing configured with a fitment opening at the distal end to receive the container fitment; (b) a hollow inner cylinder slidably engaged within the outer housing to telescopically slide within the outer housing to advance toward and retract away from the outer housing distal end; (c) a transfer tube assembly extending through the inner cylinder through which the flowable material flows when filling and emptying the container, the transfer tube having a leading end connectable to the fitment and an opposite end connectable to an external source of flowable material or to an external receptacle for the flowable material; (d) a fitment cap assembly positioned within the inner cylinder for removing the fitment cap from the fitment and attaching the fitment cap to the fitment, the apparatus having a leading end engageable with the fitment cap; and (e) an actuating system that selectively positions the leading end of the transfer tube assembly at the fitment or the leading end of the fitment cap assembly at the fitment when the inner cylinder is advanced to the distal end of the outer housing and correspondingly retracts the leading end of the transfer tube assembly away from the fitment or the leading end of the fitment cap assembly away from the fitment when the inner cylinder is retracted from the distal end of the outer housing.
A lighting controller for a lighting system that comprises a lighting apparatus including one or more lights arranged to provide light to promote smoltification of salmon in a volume of water; wherein the lighting controller is arranged to: send control information to the lighting system to control light output of the lighting apparatus so that continuous light is provided to the volume of water for a first predetermined period lasting at least 24 hours; and send control information to the lighting system to control light output of the lighting apparatus so that a plurality of simulated day periods and night periods are provided to the volume of water for a second predetermined period, the second predetermined period following the first predetermined period; characterized in that during the second predetermined period, an intensity of the light provided to the volume of water in a night period is non-zero and up to 20% of an intensity of the light provided to the volume of water in a day period. send control information to the lighting system to control light output of the lighting apparatus so that continuous light is provided to the volume of water for a first predetermined period lasting at least 24 hours; and send control information to the lighting system to control light output of the lighting apparatus so that a plurality of simulated day periods and night periods are provided to the volume of water for a second predetermined period, the second predetermined period following the first predetermined period; characterized in that during the second predetermined period, an intensity of the light provided to the volume of water in a night period is non-zero and up to 20% of an intensity of the light provided to the volume of water in a day period.