mhurhangee/ep-ind-claims huggingface dataset:
A solar heat collection adsorption composite tube, characterized in that the solar heat collection adsorption composite tube (1.2) comprises a solar vacuum tube (1.2.1) having two open ends; an outer metal tube (1.2.2) and an inner metal tube (1.2.3) are coaxially disposed inside the solar vacuum tube (1.2.1); a water path is formed between the outer metal tube (1.2.2) and the solar vacuum tube (1.2.1); a solid adsorbent (1.2.4) is disposed between the outer metal tube (1.2.2) and the inner metal tube (1.2.3) for exchanging heat with water outside the outer metal tube (1.2.2); a plurality of through holes are disposed on the inner metal tube (1.2.3); an adsorbate is disposed in the inner metal tube (1.2.3); and the adsorbate and the adsorbent (1.2.4) form a working pair for adsorption and desorption for accomplishing heat release and heat adsorption.
Controlled torque fastener for use with a substrate, the controlled torque fastener comprising: a first member including a threaded fastening portion and the first member having a threaded bore defined therein; and a second member including a break off portion including a driver engagement feature and having a threaded shaft threadedly received in the threaded bore and having a shear section located between and connecting the break off portion and the threaded shaft, wherein the driver engagement feature is configured to be engaged by a first driver to enable the first driver to tighten the controlled torque fastener onto the substrate until the driver engagement feature shears off from the threaded shaft at the shear section upon application of sufficient torque to the driver engagement feature whereby the break off portion is detached from the first member, the shear location being located in a cavity of the first member having an opening so that a remaining portion of the second member is disposed in a cavity portion of the cavity and is recessed from the opening and, with surrounding engagement faces defining a driver receiving socket. a first member including a threaded fastening portion and the first member having a threaded bore defined therein; and a second member including a break off portion including a driver engagement feature and having a threaded shaft threadedly received in the threaded bore and having a shear section located between and connecting the break off portion and the threaded shaft, wherein the driver engagement feature is configured to be engaged by a first driver to enable the first driver to tighten the controlled torque fastener onto the substrate until the driver engagement feature shears off from the threaded shaft at the shear section upon application of sufficient torque to the driver engagement feature whereby the break off portion is detached from the first member, the shear location being located in a cavity of the first member having an opening so that a remaining portion of the second member is disposed in a cavity portion of the cavity and is recessed from the opening and, with surrounding engagement faces defining a driver receiving socket.
A portable electronic lock for luggage, comprising: a housing and a securement member in cooperation with the housing to secure an item to the lock; a locking mechanism in the housing in communication with the securement member to releasably secure the securement member to the housing; a communications module in the housing for operating the locking mechanism to release and secure the securement member in response to a wireless signal; and a secondary release system for releasing the locking mechanism, wherein the secondary release system is selectively operable by a user; wherein the lock is programmable so that the secondary release system can be selectively operable via a wireless signal or a paired mobile device so that in one mode of operation the secondary release system can be used to release the locking mechanism and in another mode of operation, use of the secondary release system will not release the locking mechanism, characterized in that the secondary release system comprises a barrel and insertion and rotation of a master key in the barrel operates a micro switch to generate an the electrical signal for releasing the locking mechanism. a housing and a securement member in cooperation with the housing to secure an item to the lock; a locking mechanism in the housing in communication with the securement member to releasably secure the securement member to the housing; a communications module in the housing for operating the locking mechanism to release and secure the securement member in response to a wireless signal; and a secondary release system for releasing the locking mechanism, wherein the secondary release system is selectively operable by a user; wherein the lock is programmable so that the secondary release system can be selectively operable via a wireless signal or a paired mobile device so that in one mode of operation the secondary release system can be used to release the locking mechanism and in another mode of operation, use of the secondary release system will not release the locking mechanism, characterized in that the secondary release system comprises a barrel and insertion and rotation of a master key in the barrel operates a micro switch to generate an the electrical signal for releasing the locking mechanism.
A rotary geared actuator, comprising: an input gear; an output gear; a plurality of pinions arranged in an annular configuration about a central axis, each pinion including an input gear element and an output gear element, the input gear element meshingly engaged with the input gear and the output gear element meshingly engaged with the output gear; and an earth ring gear arranged radially outwardly of the pinions and meshingly engaged with the input gear elements of the pinions; characterised by further comprising: a first support ring gear arranged radially inwardly of the pinions and meshingly engaged with the input gear element; and a second support ring gear arranged radially inwardly of the pinions and meshingly engaged with the output gear element. an input gear; an output gear; a plurality of pinions arranged in an annular configuration about a central axis, each pinion including an input gear element and an output gear element, the input gear element meshingly engaged with the input gear and the output gear element meshingly engaged with the output gear; and an earth ring gear arranged radially outwardly of the pinions and meshingly engaged with the input gear elements of the pinions; characterised by further comprising: a first support ring gear arranged radially inwardly of the pinions and meshingly engaged with the input gear element; and a second support ring gear arranged radially inwardly of the pinions and meshingly engaged with the output gear element. a first support ring gear arranged radially inwardly of the pinions and meshingly engaged with the input gear element; and a second support ring gear arranged radially inwardly of the pinions and meshingly engaged with the output gear element.
Interventional medical device, comprising: an elongate body comprising a distal edge delimiting a distal forward facing surface and a side facing surface of the elongate body; a carrier comprising a first side and an opposite second side, wherein the distal portion of the carrier comprises an array of separate elongate structures, each comprising at least a sensor element with active surface oriented toward the first side of the carrier; wherein the carrier is configured for electrical conduction of signals from a proximal portion of the carrier to the sensor elements; wherein the second side of the carrier is attached to the elongate body; wherein the distal portion of the carrier comprises a flexible segment proximal to the array of elongate structures, the array of elongate structures comprising the sensors is folded over the distal edge of the elongate body and is attached to the distal forward facing surface. an elongate body comprising a distal edge delimiting a distal forward facing surface and a side facing surface of the elongate body; a carrier comprising a first side and an opposite second side, wherein the distal portion of the carrier comprises an array of separate elongate structures, each comprising at least a sensor element with active surface oriented toward the first side of the carrier; wherein the carrier is configured for electrical conduction of signals from a proximal portion of the carrier to the sensor elements; wherein the second side of the carrier is attached to the elongate body; wherein the distal portion of the carrier comprises a flexible segment proximal to the array of elongate structures, the array of elongate structures comprising the sensors is folded over the distal edge of the elongate body and is attached to the distal forward facing surface.
A method for selectively providing audio alerts via a speaker device, comprising: playing first audio content through a speaker; capturing, via a microphone, second audio content comprising an alert; suppressing output of the second audio content through the speaker by using noise cancellation; identifying the alert within the second audio content; determining a priority level of the alert; determining a time shift for the alert; and in response to determining, based on the priority level, that the alert should be reproduced, audibly reproducing the alert via the speaker at a time based on the time shift, with the first audio content or instead of the first audio content. playing first audio content through a speaker; capturing, via a microphone, second audio content comprising an alert; suppressing output of the second audio content through the speaker by using noise cancellation; identifying the alert within the second audio content; determining a priority level of the alert; determining a time shift for the alert; and in response to determining, based on the priority level, that the alert should be reproduced, audibly reproducing the alert via the speaker at a time based on the time shift, with the first audio content or instead of the first audio content.
A method of handling power requests during cluster operations, the method comprising: executing a delegated process on a network resource by a host processor subsystem of an information handling system, IHS; determining, by the host processor subsystem of the IHS, whether a request for a power operation of the IHS is received, wherein the host processor subsystem is configured to reboot in response to the power operation; in response to determining that a request for a power operation is received: transferring the delegated process to another network resource; and preventing the IHS from performing a power operation of the IHS during a transference of the delegated process; determining, by the host processor subsystem, a time duration required to transfer the delegated process; scheduling, by the host processor subsystem, a reboot of the IHS based on the time duration; informing, by the host processor subsystem, a remote access controller, RAC, of the IHS of the scheduled reboot in response to receiving a power operation request, characterised in: the RAC is configured to cause the power operation of the host processor subsystem; receiving, by the RAC, a reboot schedule associated with the scheduled reboot from the host processor subsystem; and ignoring, by the RAC, any new power operation requests or new delegated process requests prior to execution of the scheduled reboot by the host processor subsystem. executing a delegated process on a network resource by a host processor subsystem of an information handling system, IHS; determining, by the host processor subsystem of the IHS, whether a request for a power operation of the IHS is received, wherein the host processor subsystem is configured to reboot in response to the power operation; in response to determining that a request for a power operation is received: transferring the delegated process to another network resource; and preventing the IHS from performing a power operation of the IHS during a transference of the delegated process; transferring the delegated process to another network resource; and preventing the IHS from performing a power operation of the IHS during a transference of the delegated process; determining, by the host processor subsystem, a time duration required to transfer the delegated process; scheduling, by the host processor subsystem, a reboot of the IHS based on the time duration; informing, by the host processor subsystem, a remote access controller, RAC, of the IHS of the scheduled reboot in response to receiving a power operation request, characterised in: the RAC is configured to cause the power operation of the host processor subsystem; receiving, by the RAC, a reboot schedule associated with the scheduled reboot from the host processor subsystem; and ignoring, by the RAC, any new power operation requests or new delegated process requests prior to execution of the scheduled reboot by the host processor subsystem.
Method of arranging sections of a string of springs including a predetermined number of spring pockets for the manufacture of a spring core the method comprising - conveying the respective section with a first conveyor, - transferring the respective section to a second conveyor and - further conveying of the respective section with the second conveyor, - wherein lengths of segments of the respective section are measured and relative conveying speeds of the second conveyor relative to the first conveyor are adjusted depending on the measured lengths, while both conveyors (4, 7) convey the respective section to adjust a predetermined length of the section on the second conveyor, characterised in that the lengths of the segments of the respective section are measured in the region of the second conveyor. - conveying the respective section with a first conveyor, - transferring the respective section to a second conveyor and - further conveying of the respective section with the second conveyor, - wherein lengths of segments of the respective section are measured and relative conveying speeds of the second conveyor relative to the first conveyor are adjusted depending on the measured lengths, while both conveyors (4, 7) convey the respective section to adjust a predetermined length of the section on the second conveyor,
A fusible fire-proof emergency cut-off valve, comprising a swing check valve and a control mechanism, wherein the swing check valve comprises a valve body, a rotating shaft, a valve cover and a valve plate, two sides of the valve body are communicated with an outlet and an inlet, respectively, the inside of the valve body is rotationally connected with the rotating shaft, and the valve plate is fixed to one side of the rotating shaft and is positioned at one end of the outlet; characterized in that the control mechanism comprises a shifting fork box body, one side of the shifting fork box body is connected with a second cylinder, and the other side of the shifting fork box body is connected with a first cylinder; the other side of the rotating shaft is inserted into the shifting fork box body and fixedly connected with a shifting fork, one side of the shifting fork is provided with a clamping groove, the inside of the second cylinder is provided with a piston rod penetrating through the shifting fork box body and the first cylinder, a limit piston is fixed to the left side of the piston rod and is positioned inside the second cylinder, the right side of the limit piston is provided with a spring sleeved outside the piston rod, a shaft pin inserted into the clamping groove is fixed to the outside of the piston rod, and the right side of the piston rod is connected with a fusible pin penetrating through the first cylinder.
A method comprising: receiving a signal indicating a data block group size from a predefined set of data block group sizes for determining a number of data block groups of data, wherein the data block group size is a number of data blocks in each data block group of the data, and each data block is independently decodable; receiving the data; determining the data block group size and a number of data block groups of the received data; generating feedback information for each data block group of the received data for indicating a decoding status of the respective data block group, wherein the feedback information for the respective data block group comprises a single bit generated by performing a logic AND operation among decoding statuses corresponding to each data block of the respective data block group; and transmitting the feedback information for each data block group of the received data. receiving a signal indicating a data block group size from a predefined set of data block group sizes for determining a number of data block groups of data, wherein the data block group size is a number of data blocks in each data block group of the data, and each data block is independently decodable; receiving the data; determining the data block group size and a number of data block groups of the received data; generating feedback information for each data block group of the received data for indicating a decoding status of the respective data block group, wherein the feedback information for the respective data block group comprises a single bit generated by performing a logic AND operation among decoding statuses corresponding to each data block of the respective data block group; and transmitting the feedback information for each data block group of the received data.
An apparatus comprising a plurality of microphones, the apparatus comprising means for: determining a direction of arrival of an audio source by analysing audio signals from the plurality of microphones; identifying two or more microphones from a plurality of microphones based on the determined direction of arrival of the audio source during audio capture and a microphone orientation, the two or more microphones being identified relative to the direction of arrival of the audio source; obtaining two or more audio signals from the two or more microphones; determining a reference audio signal from the two or more audio signals, wherein the reference audio signal is provided from a reference microphone, from the two or more microphones, the reference microphone being nearest to the audio source relative to the determined direction of arrival during audio capture; determining delays for the two or more audio signals with respect to the reference audio signal so as to time align the two or more audio signals with respect to the reference audio signal; determining weighting values for each of the two or more audio signals including the reference audio signal dependent on a distance between a location of each of the two or more microphones and the audio source, relative to the determined direction of arrival, and applying the determined weighting values to the respective audio signals; combining the time aligned and weighted audio signals; and outputting the combined time aligned and weighted audio signals. determining a direction of arrival of an audio source by analysing audio signals from the plurality of microphones; identifying two or more microphones from a plurality of microphones based on the determined direction of arrival of the audio source during audio capture and a microphone orientation, the two or more microphones being identified relative to the direction of arrival of the audio source; obtaining two or more audio signals from the two or more microphones; determining a reference audio signal from the two or more audio signals, wherein the reference audio signal is provided from a reference microphone, from the two or more microphones, the reference microphone being nearest to the audio source relative to the determined direction of arrival during audio capture; determining delays for the two or more audio signals with respect to the reference audio signal so as to time align the two or more audio signals with respect to the reference audio signal; determining weighting values for each of the two or more audio signals including the reference audio signal dependent on a distance between a location of each of the two or more microphones and the audio source, relative to the determined direction of arrival, and applying the determined weighting values to the respective audio signals; combining the time aligned and weighted audio signals; and outputting the combined time aligned and weighted audio signals.
A fixing apparatus comprising: a tubular film; a heater provided at an inside of the film; a protection element provided at the inside of the film, the protection element including two terminals (TSt1, TSt2) and a switch (TSa) that turns off to shut off power to the heater when the heater abnormally generates heat; and at least one conductive member (11,12) provided at the inside of the film, a first end (11a, 12a) of the conductive member being electrically connected to one of the terminals of the protection element, wherein an unfixed image formed on a recording medium is fixed on the recording medium by the heat of the heater via the film, characterized in that the conductive member is not coated with an insulator, and a second end of the conductive member projects out of the film, and the conductive member comprises a sheet metal, the sheet metal including a first section in which a thickness direction of the sheet metal is a first direction and a second section in which the thickness direction of the sheet metal is a second direction different from the first direction.. a tubular film; a heater provided at an inside of the film; a protection element provided at the inside of the film, the protection element including two terminals (TSt1, TSt2) and a switch (TSa) that turns off to shut off power to the heater when the heater abnormally generates heat; and at least one conductive member (11,12) provided at the inside of the film, a first end (11a, 12a) of the conductive member being electrically connected to one of the terminals of the protection element, wherein an unfixed image formed on a recording medium is fixed on the recording medium by the heat of the heater via the film, characterized in that the conductive member is not coated with an insulator, and a second end of the conductive member projects out of the film, and the conductive member comprises a sheet metal, the sheet metal including a first section in which a thickness direction of the sheet metal is a first direction and a second section in which the thickness direction of the sheet metal is a second direction different from the first direction..