mhurhangee/patent-ind-claim-en huggingface dataset:
A distribution station, comprising: a base ; a housing provided on the base and provided with a goods access port and an access door ; a rotating shelf provided on the base and located in the housing , the rotating shelf comprising: a rotating shaft provided on the base vertically and provided with a rotating wheel concentric with the rotating shaft ; a transmission belt wound around the outer circumference of the rotating wheel ; a plurality of shelf units provided on the transmission belt at intervals in a horizontal direction, and the shelf units are configured to store goods; and a driving mechanism connected to the rotating shaft in transmission, the driving mechanism is configured to drive the rotating shaft to rotate around itself, so that at least one of the plurality of shelf units corresponds to the goods access port ; characterized in that the distribution station further comprising: a distribution vehicle configured to enter and exit the housing through the access door and transport the goods; a sorting device provided on the base and located in the housing , the sorting device is configured to pick up and place the goods between the distribution vehicle and the shelf units ; and a control system configured to control the driving mechanism and the sorting device . a base ; a housing provided on the base and provided with a goods access port and an access door ; a rotating shelf provided on the base and located in the housing , the rotating shelf comprising: a rotating shaft provided on the base vertically and provided with a rotating wheel concentric with the rotating shaft ; a transmission belt wound around the outer circumference of the rotating wheel ; a plurality of shelf units provided on the transmission belt at intervals in a horizontal direction, and the shelf units are configured to store goods; and a driving mechanism connected to the rotating shaft in transmission, the driving mechanism is configured to drive the rotating shaft to rotate around itself, so that at least one of the plurality of shelf units corresponds to the goods access port ; characterized in that a rotating shaft provided on the base vertically and provided with a rotating wheel concentric with the rotating shaft ; a transmission belt wound around the outer circumference of the rotating wheel ; a plurality of shelf units provided on the transmission belt at intervals in a horizontal direction, and the shelf units are configured to store goods; and a driving mechanism connected to the rotating shaft in transmission, the driving mechanism is configured to drive the rotating shaft to rotate around itself, so that at least one of the plurality of shelf units corresponds to the goods access port ; characterized in that a distribution vehicle configured to enter and exit the housing through the access door and transport the goods; a sorting device provided on the base and located in the housing , the sorting device is configured to pick up and place the goods between the distribution vehicle and the shelf units ; and a control system configured to control the driving mechanism and the sorting device .
A substituted pyridazinone compound selected from the group consisting of: and
An environmental control system, comprising: an airflow source ; an air cycle machine in flow communication with the airflow source, and through which an airflow from the airflow source is directed, the air cycle machine including: a compressor to which the airflow from the airflow source is directed; and a turbine ; a liquid load heat exchanger located in flow communication with the turbine such that airflow downstream of the turbine exchanges thermal energy with a liquid flow at the liquid load heat exchanger to cool the liquid flow; a liquid load reheater disposed upstream of the turbine and upstream of the liquid load heat exchanger, configured such that a thermal energy exchange between the airflow prior to the airflow entering the turbine and the liquid flow prior to the liquid flow entering the liquid load heat exchanger occurs at the liquid load reheater; and a condenser disposed between the turbine and the liquid load reheater, configured such that the airflow output from the turbine flows through the condenser prior to flowing through the liquid load heat exchanger; and a primary heat exchanger disposed between the airflow source and the air cycle machine, the airflow directed directly from the primary heat exchanger into the compressor. an airflow source ; an air cycle machine in flow communication with the airflow source, and through which an airflow from the airflow source is directed, the air cycle machine including: a compressor to which the airflow from the airflow source is directed; and a turbine ; a compressor to which the airflow from the airflow source is directed; and a turbine ; a liquid load heat exchanger located in flow communication with the turbine such that airflow downstream of the turbine exchanges thermal energy with a liquid flow at the liquid load heat exchanger to cool the liquid flow; a liquid load reheater disposed upstream of the turbine and upstream of the liquid load heat exchanger, configured such that a thermal energy exchange between the airflow prior to the airflow entering the turbine and the liquid flow prior to the liquid flow entering the liquid load heat exchanger occurs at the liquid load reheater; and a condenser disposed between the turbine and the liquid load reheater, configured such that the airflow output from the turbine flows through the condenser prior to flowing through the liquid load heat exchanger; and a primary heat exchanger disposed between the airflow source and the air cycle machine, the airflow directed directly from the primary heat exchanger into the compressor.
A secondary battery unit , comprising: a first secondary battery module configured to be disposed at at least either one of a front part or a back part of a body of a humanoid robot ; a second secondary battery module comprising side secondary battery modules configured to be disposed at the left and right side parts of the body; and a base coupling the first secondary battery module to the second secondary battery module, wherein the base is detachably configured to be attached to the body, together with the first secondary battery module and the second secondary battery module. a first secondary battery module configured to be disposed at at least either one of a front part or a back part of a body of a humanoid robot ; a second secondary battery module comprising side secondary battery modules configured to be disposed at the left and right side parts of the body; and a base coupling the first secondary battery module to the second secondary battery module, wherein the base is detachably configured to be attached to the body, together with the first secondary battery module and the second secondary battery module.
A spinning reel with an intelligent alarm function, comprising a reel body , a line reel which can reel up a fishing line being arranged on the reel body , and a line reel shell which can rotate relatively to the line reel being arranged on an outer peripheral side of the line reel , wherein an integrated circuit board , having a power switch arranged on one end thereof and a magnetic induction switch arranged on the other end thereof, is arranged in an internal cavity of the reel body , and an indicator light is arranged on the integrated circuit board; a battery case , which is provided with a battery and a loudspeaker therein, is arranged on an outer side of the bottom of the reel body , and a reaction button connected to the power switch is arranged at the bottom of the reel body ; a front-rear brake switching lever configured to control the line reel is arranged on the reel body , a magnetic trigger wheel connected to the line reel is arranged at one end of the reel body far away from the line reel and is connected to a main shaft of the line reel , wherein the magnetic trigger wheel rotates together with the main shaft , a rear brake adjusting knob and a front brake adjusting knob are respectively arranged at both ends of the reel body , wherein a maximum braking force of a front brake is greater than a braking force of a rear brake; a rocker arm is arranged on one side of the reel body , and a locking slot is arranged on the magnetic trigger wheel , wherein a lock piece provided in the locking slot can slide in and out of the locking slot through the front-rear brake switching lever , and when the lock piece slides out of the locking slot of the magnetic trigger wheel by pulling the front-rear brake switching lever , so that the line reel drives the main shaft to rotate and the main shaft drives the magnetic trigger wheel to rotate, the magnetic induction switch is triggered to enable the loudspeaker to sound an alarm and the indicator light to flash.
An article formed of a knitted component , the article comprising: a first surface and a second surface , the first surface facing opposite the second surface ; a pod having the first surface formed by a first layer and the second surface formed by a second layer , wherein the pod includes a pocket formed between the first layer and the second layer ; and an edge region having the first surface and the second surface , the edge region at least partially demarcating the pod ; a first yarn comprising a first material that is fusible, wherein the first material is a thermoplastic polymer material, wherein the first surface within the pod is formed from a fused area; a second yarn substantially forming the second surface of the pod ; wherein a third yarn is laid in within the pocket between the first layer and the second layer , characterised in that the fused area is of the first material that is heat-processed during manufacturing such that it is fused, and in that the second yarn substantially forms the first surface of the edge region . a first surface and a second surface , the first surface facing opposite the second surface ; a pod having the first surface formed by a first layer and the second surface formed by a second layer , wherein the pod includes a pocket formed between the first layer and the second layer ; and an edge region having the first surface and the second surface , the edge region at least partially demarcating the pod ; a first yarn comprising a first material that is fusible, wherein the first material is a thermoplastic polymer material, wherein the first surface within the pod is formed from a fused area; a second yarn substantially forming the second surface of the pod ; wherein a third yarn is laid in within the pocket between the first layer and the second layer , characterised in that the fused area is of the first material that is heat-processed during manufacturing such that it is fused, and in that the second yarn substantially forms the first surface of the edge region .
An engine system including: a plurality of turbochargers arranged in series; an intake bypass passage which bypasses a high-pressure stage compressor of a high-pressure stage turbocharger arranged at a downstream side of an intake passage among the plurality of turbochargers; an intake bypass valve which adjusts a flow rate of intake air passing through the intake air bypass passage; an exhaust bypass passage which bypasses a high-pressure stage turbine of the high-pressure stage turbocharger; and an exhaust bypass valve which adjusts a flow rate of exhaust gas passing through the exhaust bypass passage, the engine system further comprising a control device which controls opening-and-closing of the intake valve and the exhaust bypass valve, wherein at a time when a state where both the intake bypass valve and the exhaust bypass valve are closed and the high-pressure stage turbocharger performs supercharging is switched to a state where both the intake bypass valve and the exhaust bypass valve are opened and supercharging of the high-pressure stage turbocharger is stopped, the control device performs control such that, after only the exhaust bypass valve is opened, the intake bypass valve is also opened, a pressure difference acquisition device which acquires a pressure difference between a pressure at an upstream side and a pressure at a downstream side of the high-pressure stage compressor in the intake passage, wherein the control device is configured to control to open the intake bypass valve when the pressure difference acquired via the pressure difference acquisition device becomes equal to or lower than a preset threshold after only the exhaust bypass valve is opened, characterized by a valve opening state acquiring device which acquires a valve opening state of the exhaust bypass valve, which is opened earlier than the intake bypass valve, as the pressure difference acquisition device, wherein the control device is configured to perform control to adjust a timing at which the intake bypass valve is opened based on the valve opening state acquired via the valve-opening-state acquisition device, wherein the control device is configured to acquire a maintenance time in which an opening degree of the exhaust bypass valve is maintained at a preset allowed opening degree or above as the valve opening state via the valve-opening-state acquisition device and to perform control to open the intake bypass valve when the maintenance time reaches a preset allowed time (ta), and wherein the allowed time (ta) is set to a time required for an intake pressure at a downstream side of the high-pressure stage compressor to become equal to an intake pressure at an upstream side of the high-pressure stage compressor in the intake passage.
A heat transfer structure, wherein the structure comprises a metallic body having a first surface and a second surface, wherein the first surface and the second surface are opposing surfaces, one of the first surface and the second surface is adapted to receive a heat generating component, and wherein the metallic body comprises a carbon based insert, characterized in that the metallic body is a copper structure and the carbon based insert comprises carbon based material plates arranged inside the copper structure , and the carbon based material plates have a length, a width and a height, the length being the greatest dimension and the height being the smallest dimension of the plates, wherein the carbon based material plates are arranged parallel inside the metallic body, such that the direction of length of carbon based material plates correspond to the direction of length of the metallic body and the direction of width of carbon based material plates correspond to the direction of height of the metallic body. the first surface and the second surface are opposing surfaces, one of the first surface and the second surface is adapted to receive a heat generating component, and wherein the metallic body comprises a carbon based insert, characterized in that the metallic body is a copper structure and the carbon based insert comprises carbon based material plates arranged inside the copper structure , and the carbon based material plates have a length, a width and a height, the length being the greatest dimension and the height being the smallest dimension of the plates, wherein the carbon based material plates are arranged parallel inside the metallic body, such that the direction of length of carbon based material plates correspond to the direction of length of the metallic body and the direction of width of carbon based material plates correspond to the direction of height of the metallic body.
Use of an optical waveguide in a method for optically measuring the temperature of a high-temperature melt , in which the optical waveguide guides electromagnetic waves from a measuring point to an optical detector and is moved to the measuring point with the help of a fluid through a conduit through which the fluid flows, wherein the optical waveguide used has a core , a casing and a coating, wherein the coating comprises a protective layer and an outer protective sheath , characterized in that the outer protective sheath is firmly connected to the protective layer , wherein relative movement between the protective layer and the outer protective sheath is blocked.
A confectionary container comprising: a chamber for storing confectionary; a domed base and an upper surface ; an egress that is openable so as to allow confectionary to be removed from the container and closable so as to prevent confectionary being removed from the container; wherein the egress is either formed between the upper surface and the domed base or is formed on the domed base; the upper surface is flat and comprises indicia printed thereon; said confectionary container being characterized in that the container is hemispherical. a chamber for storing confectionary; a domed base and an upper surface ; an egress that is openable so as to allow confectionary to be removed from the container and closable so as to prevent confectionary being removed from the container; wherein the egress is either formed between the upper surface and the domed base or is formed on the domed base; the upper surface is flat and comprises indicia printed thereon; said confectionary container being characterized in that the container is hemispherical.
A method of improving height measurement resolution for a radar altimeter system , the method comprising: periodically generating, at a fast Fourier transform, FFT, processor , a set of FFT bins across a frequency range based on a periodic ramping of a frequency modulated continuous wave, FMCW, radar signal from a first frequency, f 1 , to a second frequency, f 2 , wherein the sets of FFT bins are indicative of a respective plurality of distances; selecting a subset (510 or 550) of bins (520-523 or 560-563) from at least one set of FFT bins (500 or 501) by implementing a leading-edge-tracking algorithm by at least one processor , wherein the bins in the selected subset (510 or 550) of bins (520-523 or 560-563) are adjacent to each other, and wherein the selected subset of bins are indicative of a respective plurality of approximate distances between the radar system and a target ; implementing a second algorithm on the selected subset of bins to determine a power ratio between the leading edge tracked bin and the remaining bins in the selected subset of bins to determine an interpolated bin number within the selected subset of bins; and determining an approximate distance, dtarget, to the target based on the interpolated bin number (530 or 570) within the selected subset of bins (510 or 550). periodically generating, at a fast Fourier transform, FFT, processor , a set of FFT bins across a frequency range based on a periodic ramping of a frequency modulated continuous wave, FMCW, radar signal from a first frequency, f 1 , to a second frequency, f 2 , wherein the sets of FFT bins are indicative of a respective plurality of distances; selecting a subset (510 or 550) of bins (520-523 or 560-563) from at least one set of FFT bins (500 or 501) by implementing a leading-edge-tracking algorithm by at least one processor , wherein the bins in the selected subset (510 or 550) of bins (520-523 or 560-563) are adjacent to each other, and wherein the selected subset of bins are indicative of a respective plurality of approximate distances between the radar system and a target ; implementing a second algorithm on the selected subset of bins to determine a power ratio between the leading edge tracked bin and the remaining bins in the selected subset of bins to determine an interpolated bin number within the selected subset of bins; and determining an approximate distance, dtarget, to the target based on the interpolated bin number (530 or 570) within the selected subset of bins (510 or 550).
A method for delegating content processing, the method being implemented by a mobile device and comprising: determining a plurality of content requests for an online page, each one of the content requests corresponding to a different content item of the online page; detecting a plurality of delegate computing devices (320-1..320-N) to which to delegate the content requests, the plurality of delegate computing devices (320-1..320-N) comprising a plurality of mobile devices; transmitting a corresponding one of the content requests to each one of the delegate computing devices (320-1..320-N), each corresponding one of the content requests being configured to trigger the corresponding delegate computing device (320-1..320-N) to retrieve the corresponding content item of the corresponding one of the content requests from a server hosting the online page, render the corresponding content item, and transmit the rendered content item to the mobile device ; receiving the corresponding rendered content item from each one of the delegate computing device (320-1..320-N); and displaying the online page, the display of the online page comprising the corresponding rendered content items from the delegate computing devices (320-1..320-N). determining a plurality of content requests for an online page, each one of the content requests corresponding to a different content item of the online page; detecting a plurality of delegate computing devices (320-1..320-N) to which to delegate the content requests, the plurality of delegate computing devices (320-1..320-N) comprising a plurality of mobile devices; transmitting a corresponding one of the content requests to each one of the delegate computing devices (320-1..320-N), each corresponding one of the content requests being configured to trigger the corresponding delegate computing device (320-1..320-N) to retrieve the corresponding content item of the corresponding one of the content requests from a server hosting the online page, render the corresponding content item, and transmit the rendered content item to the mobile device ; receiving the corresponding rendered content item from each one of the delegate computing device (320-1..320-N); and displaying the online page, the display of the online page comprising the corresponding rendered content items from the delegate computing devices (320-1..320-N).