mhurhangee/ep-ind-claims huggingface dataset:
A system for capturing aerial images of the ground, the system characterized by: at least one camera unit, the at least one camera unit comprising at least one detail camera mounted so that its optical path is oriented substantially vertically downwards; a first steerable mirror, mounted in the optical path of the at least one detail camera, the steering angle of the first steerable mirror being arranged to be varied over time in order to time-multiplex a subsequent optical axis (602a - 602e) of the at least one detail camera, thereby providing an aggregate field of view (160a - 160e) of the at least one detail camera that is more extensive than the field of view without the time multiplexing; a second steerable mirror mounted in the optical path of the at least one detail camera, the second steerable mirror being aligned so that it compensates, at least partially, for bending of the optical path of the at least one detail camera by the first steerable mirror, thereby ensuring the optical axis of the at least one detail camera subsequent to the two mirrors (604, 608) is oriented substantially vertically downwards; an inertial measurement unit configured to measure angular motion of the aircraft; and an angular motion compensation unit, responsive to the measurement reported by the IMU, providing control signals to the second steerable mirror to compensate for the angular motion of the aircraft, thereby ensuring that the at least one detail camera points in a consistent direction over time. at least one camera unit, the at least one camera unit comprising at least one detail camera mounted so that its optical path is oriented substantially vertically downwards; a first steerable mirror, mounted in the optical path of the at least one detail camera, the steering angle of the first steerable mirror being arranged to be varied over time in order to time-multiplex a subsequent optical axis (602a - 602e) of the at least one detail camera, thereby providing an aggregate field of view (160a - 160e) of the at least one detail camera that is more extensive than the field of view without the time multiplexing; a second steerable mirror mounted in the optical path of the at least one detail camera, the second steerable mirror being aligned so that it compensates, at least partially, for bending of the optical path of the at least one detail camera by the first steerable mirror, thereby ensuring the optical axis of the at least one detail camera subsequent to the two mirrors (604, 608) is oriented substantially vertically downwards; an inertial measurement unit configured to measure angular motion of the aircraft; and an angular motion compensation unit, responsive to the measurement reported by the IMU, providing control signals to the second steerable mirror to compensate for the angular motion of the aircraft, thereby ensuring that the at least one detail camera points in a consistent direction over time.
A polymer alloy comprising a polycarbonate resin and polybutylene terephthalate resin, wherein in the case where the infrared absorption spectrum of the polymer alloy is measured, the intensity ratio of the absorption peak appearing in a range of 2933±5 cm -1 to the absorption peak appearing in a range of 2965± cm -1 is 0.43 or more.
Liquid container for producing surge flushings with an evacuation valve which serves for shutting off a drain opening of the liquid container, designed as a flushing chute for a sewer system, and which has a riser pipe, in which liquid can rise, and has a valve element, which is designed as a float and which, when liquid enters the riser pipe, floats upwards and rises from its closed position, which closes off the drain opening, into an open position, wherein provision is made of a deaeration device which selectively shuts off and opens up a deaeration opening of the riser pipe such that an air cushion which is formed in a space, adjacent to the deaeration opening, within the riser pipe is released from the riser pipe and liquid can enter the riser pipe, wherein the valve element is arranged at least partially in the riser pipe, wherein the float is designed as a hollow body with a float interior space which, for setting the density of the float, is filled at least partially with ballast, wherein this partial filling with ballast serves for adapting the density of the float such that, on the one hand, the density is so high that, owing to the weight force of the valve element, there is sufficient sealing action between a valve body of the valve element and a valve seat, formed by the drain opening, in the closed position, and on the other hand, the density of the valve element is low enough that the valve element is reliably transferred into the open position when the inner level is raised, wherein the deaeration device has a shut-off element which, in the shut-off position, closes off the deaeration opening and which is connected to a further float arranged in a top section, having overflow openings, of the riser pipe, such that liquid can enter the top section of the riser pipe and allow the further float to float upwards, wherein the float is designed as a float body in the shape of a cup which is open in the direction of the deaeration opening and in which an air cushion is able to be enclosed when liquid enters the top section of the riser pipe, wherein the float is connected to the shut-off element by means of a guide, such that the upwardly floating float simultaneously lifts the shut-off element and thereby actuates the deaeration device and opens up the deaeration opening.
A storage container including: a container body defining an accommodating space that has a top opening; a lid removably disposed on said container body, and having two covering sections that cooperatively cover said opening, each one of said covering sections being independently operable to uncover a part of said opening; and a dividing member removably disposed in said accommodating space for dividing said accommodating space into two compartments; wherein said dividing member is configured as a plate, characterized in that said dividing member has two plate sections that are connected to each other such that said dividing member is foldable in a manner that said plate sections overlap each other, said dividing member being displaceable between a first position, where said dividing member extends horizontally in said accommodating space such that said compartments are respectively formed on top and bottom sides of said dividing member, and a second position, where said dividing member is folded and is vertically disposed in said accommodating space such that said compartments are respectively formed on two lateral sides of said dividing member. a container body defining an accommodating space that has a top opening; a lid removably disposed on said container body, and having two covering sections that cooperatively cover said opening, each one of said covering sections being independently operable to uncover a part of said opening; and a dividing member removably disposed in said accommodating space for dividing said accommodating space into two compartments; wherein said dividing member is configured as a plate, characterized in that said dividing member has two plate sections that are connected to each other such that said dividing member is foldable in a manner that said plate sections overlap each other, said dividing member being displaceable between a first position, where said dividing member extends horizontally in said accommodating space such that said compartments are respectively formed on top and bottom sides of said dividing member, and a second position, where said dividing member is folded and is vertically disposed in said accommodating space such that said compartments are respectively formed on two lateral sides of said dividing member.
An aerosol generating system comprising: an aerosol generating device comprising a housing; a first module; a second module; a third module, wherein the first module is operably couplable to the aerosol generating device, to the second module, and to the third module, and wherein the second module is operably couplable to the first module, to the third module, and to the aerosol generating device, wherein the third module is operably couplable to the aerosol generating device, to the first module, and to the second module, and wherein each of the first module, the second module, and the third module are operably couplable to the aerosol generating device indirectly through another of the first module, second module, or third module when the other of the first module, the second module, or the third module is directly coupled to aerosol generating device through the housing. an aerosol generating device comprising a housing; a first module; a second module; a third module, wherein the first module is operably couplable to the aerosol generating device, to the second module, and to the third module, and wherein the second module is operably couplable to the first module, to the third module, and to the aerosol generating device, wherein the third module is operably couplable to the aerosol generating device, to the first module, and to the second module, and wherein each of the first module, the second module, and the third module are operably couplable to the aerosol generating device indirectly through another of the first module, second module, or third module when the other of the first module, the second module, or the third module is directly coupled to aerosol generating device through the housing.
A device to generate a wireless communication flow frame for a packet flow, the device comprising: a means for generating, by a medium access control logic, the wireless communications flow frames after creation of the packet flow, wherein one or more duplicative bit sequences that are indicated during creation of the packet flow are not included in the wireless communications flow frames transmitted within the packet flow, wherein the one or more duplicative bit sequences are bit sequences that repeat across a number of the wireless communication flow frames transmitted during the packet flow, wherein the means for generating the wireless communications flow frames comprises: a means for determining a flow frame control field, wherein determining the flow frame control field comprises determining a flow index to include in a flow index field of the flow frame control field to associate the wireless communications flow frame with flow compression rules for the one or more duplicative bit sequences; a means for determining a compressed frame, the compressed frame comprising a frame control field, a sequence control field and a frame body field, wherein determining the compressed frame comprises generating the compressed frame without the one or more duplicative bit sequences; and a means for determining a frame check sequence. a means for determining a flow frame control field, wherein determining the flow frame control field comprises determining a flow index to include in a flow index field of the flow frame control field to associate the wireless communications flow frame with flow compression rules for the one or more duplicative bit sequences; a means for determining a compressed frame, the compressed frame comprising a frame control field, a sequence control field and a frame body field, wherein determining the compressed frame comprises generating the compressed frame without the one or more duplicative bit sequences; and a means for determining a frame check sequence.
A system, comprising: a first device (101, 201, 1014) and a second device (102, 202, 1015) configured to communicate over a selected wireless communication channel selected from a band of channels or over a selected set of channels used in an adaptive frequency hopping scheme; the first device (101, 201, 1014) configured to transmit a probe signal that has a plurality of frequencies contained within the band of channels; the second device (102, 202, 1015) configured to determine a signal strength of the probe signal for each of a plurality of potential communication channels within the band of channels; and the first (101, 201, 1014) and second devices (102, 202, 1015) configured to switch to another wireless communication channel or set of channels based at least in part on the signal strength of the probe signal for each of a plurality of potential wireless communication channels, wherein the first (101, 201, 1014) and second devices (102, 202, 1015) are configured to communicate over the selected wireless communication channel while the probe signal is transmitted and the signal strength of the probe signal is determined for each of the plurality of potential communication channels within the band of channels and wherein at least one of the first (101, 201, 1014) and second devices (102, 202, 1015) includes a wearable device configured to be worn by a user. a first device (101, 201, 1014) and a second device (102, 202, 1015) configured to communicate over a selected wireless communication channel selected from a band of channels or over a selected set of channels used in an adaptive frequency hopping scheme; the first device (101, 201, 1014) configured to transmit a probe signal that has a plurality of frequencies contained within the band of channels; the second device (102, 202, 1015) configured to determine a signal strength of the probe signal for each of a plurality of potential communication channels within the band of channels; and the first (101, 201, 1014) and second devices (102, 202, 1015) configured to switch to another wireless communication channel or set of channels based at least in part on the signal strength of the probe signal for each of a plurality of potential wireless communication channels, wherein the first (101, 201, 1014) and second devices (102, 202, 1015) are configured to communicate over the selected wireless communication channel while the probe signal is transmitted and the signal strength of the probe signal is determined for each of the plurality of potential communication channels within the band of channels and wherein at least one of the first (101, 201, 1014) and second devices (102, 202, 1015) includes a wearable device configured to be worn by a user.
A rupture dome for use as a breakable seal for an internal passageway of a wellbore tubing, said rupture dome being formed of a breakable material, said breakable material being ceramic, said rupture dome including: i. a circular-shaped body with dome-shaped cross-section with a. a convex side; b. a concave side; and c. an attached circumferential rim for mounting to a seal on the inside of the tubing or a fitting on the tubing; ii. the convex side having a pattern of features included in its surface to guide the breakage of the rupture dome, the pattern of features comprising at least a linear depression or ridge in the surface of the convex side; iii. a portion of the body defined between the convex side and concave side forming a breakaway section, being frangible, and configured to hold high fluid pressure applied to the convex side, and to break when fluid pressure applied to the concave side exceeds a threshold; characterized in that the breakaway section when ruptured as a result of application of pressure to the concave side which exceeds the threshold, breaks into pre-determined fragments defined at least in part by the features included in the surface of the convex side. i. a circular-shaped body with dome-shaped cross-section with a. a convex side; b. a concave side; and c. an attached circumferential rim for mounting to a seal on the inside of the tubing or a fitting on the tubing; a. a convex side; b. a concave side; and c. an attached circumferential rim for mounting to a seal on the inside of the tubing or a fitting on the tubing; ii. the convex side having a pattern of features included in its surface to guide the breakage of the rupture dome, the pattern of features comprising at least a linear depression or ridge in the surface of the convex side; iii. a portion of the body defined between the convex side and concave side forming a breakaway section, being frangible, and configured to hold high fluid pressure applied to the convex side, and to break when fluid pressure applied to the concave side exceeds a threshold;
A method for obtaining a transmitter test parameter, comprising: performing waveform sampling on an optical signal sent by a transmitter, to obtain a sampled electrical signal; obtaining a first noise amount corresponding to the sampled electrical signal based on a preset initial noise ratio parameter and a level amplitude of the sampled electrical signal, wherein the level amplitude of the sampled electrical signal is greater than a minimum level and less than a maximum level, the initial noise ratio parameter is a ratio of a maximum noise amount to a minimum noise amount, the maximum noise amount is a noise amount corresponding to an electrical signal at the maximum level, the minimum noise amount is a noise amount corresponding to an electrical signal at the minimum level, and the first noise amount is a noise amount that is greater than the minimum noise amount and less than the maximum noise amount; and obtaining a second noise amount corresponding to an ideal electrical signal based on the initial noise ratio parameter and a level amplitude of the ideal electrical signal, wherein the ideal electrical signal is determined based on an optical modulation amplitude of the sampled electrical signal, wherein the ideal electrical signal is a virtual signal that has a same optical modulation amplitude as the sampled electrical signal, and the level amplitude of the ideal electrical signal is the maximum level or the minimum level, wherein the first noise amount and the second noise amount are used to perform a consistency test on the transmitter. performing waveform sampling on an optical signal sent by a transmitter, to obtain a sampled electrical signal; obtaining a first noise amount corresponding to the sampled electrical signal based on a preset initial noise ratio parameter and a level amplitude of the sampled electrical signal, wherein the level amplitude of the sampled electrical signal is greater than a minimum level and less than a maximum level, the initial noise ratio parameter is a ratio of a maximum noise amount to a minimum noise amount, the maximum noise amount is a noise amount corresponding to an electrical signal at the maximum level, the minimum noise amount is a noise amount corresponding to an electrical signal at the minimum level, and the first noise amount is a noise amount that is greater than the minimum noise amount and less than the maximum noise amount; and obtaining a second noise amount corresponding to an ideal electrical signal based on the initial noise ratio parameter and a level amplitude of the ideal electrical signal, wherein the ideal electrical signal is determined based on an optical modulation amplitude of the sampled electrical signal, wherein the ideal electrical signal is a virtual signal that has a same optical modulation amplitude as the sampled electrical signal, and the level amplitude of the ideal electrical signal is the maximum level or the minimum level, wherein the first noise amount and the second noise amount are used to perform a consistency test on the transmitter.
A carbon nanomaterial composite sheet, comprising: a) a layer of a carbon nanomaterial structure, and b) a carrier layer comprising a porous metalized nonwoven material, the carrier layer being bonded to the carbon nanomaterial structure, wherein a releasable protective film is coupled to the carrier layer, and the carrier layer is located between the protective film and the carbon nanomaterial structure. a) a layer of a carbon nanomaterial structure, and b) a carrier layer comprising a porous metalized nonwoven material, the carrier layer being bonded to the carbon nanomaterial structure,
A method for cleaning a biological reactor having a media bed by backwashing said media bed in a plurality of short pulses, said method comprising: (a) stopping supply of a wastewater influent to be treated; (b) supplying a backwash liquid to pass through said media bed; (c) stopping supply of said backwash liquid; (d) allowing said media bed to at least partially settle; and (e) draining backwash liquid from above the media bed through a backwash effluent line with a backwash effluent valve, wherein an opening from the reactor to the backwash effluent line is located less than 30 cm above the height of the media bed when fully settled, wherein said backwash liquid is supplied for 5 minutes or less and wherein steps b) to e) are repeated at least once. (a) stopping supply of a wastewater influent to be treated; (b) supplying a backwash liquid to pass through said media bed; (c) stopping supply of said backwash liquid; (d) allowing said media bed to at least partially settle; and (e) draining backwash liquid from above the media bed through a backwash effluent line with a backwash effluent valve, wherein an opening from the reactor to the backwash effluent line is located less than 30 cm above the height of the media bed when fully settled,
A food supplement, containing leuzea, ascorbic acid (Vitamin C) and Vitamin E and excipients (calcium stearate, talc, lactose), differing in that it contains a male bee brood with the following ratio of components (mass%): Male bee brood 1-70; Leuzea 5-70; Ascorbic acid 1-70; Vitamin E 0.05-30; Excipients- the rest. Male bee brood 1-70; Leuzea 5-70; Ascorbic acid 1-70; Vitamin E 0.05-30; Excipients- the rest.
A shovel control device configured to receive an input of a shape of a bucket provided at a tip of an attachment attached to a shovel, and calculate a weight (Ws) of an object in the bucket, based on the input shape of the bucket and an output of a detection part (S7R, S7B) whose detection result changes according to the weight (Ws) of the object in the bucket, characterized in that the shovel control device is configured to receive an input from an operation device of the shovel or an input received from an external device via a communication device of the shovel as the input of the shape of the bucket.
A damper for a washing machine, comprising: a cylinder; a piston body having one end inserted into the cylinder; a first friction member interposed in a contact surface between the piston body and the cylinder; an extension bar extending from an inserted portion of the piston body, the extension bar having a circumferential stopper at the extended portion; a friction ring formed between the circumferential stopper and the first friction member; and a second friction member formed on an outer circumferential surface of the friction ring to contact with an inner surface of the cylinder, characterized in that the extension bar has a diameter smaller than the piston body; and the circumferential stopper is a separate part and connected to the extension bar, the damper for the washing machine further comprises an elastic member (330, 340) interposed between the friction ring and the circumferential stopper and/or between the friction ring and the piston body. a cylinder; a piston body having one end inserted into the cylinder; a first friction member interposed in a contact surface between the piston body and the cylinder; an extension bar extending from an inserted portion of the piston body, the extension bar having a circumferential stopper at the extended portion; a friction ring formed between the circumferential stopper and the first friction member; and a second friction member formed on an outer circumferential surface of the friction ring to contact with an inner surface of the cylinder, characterized in that the extension bar has a diameter smaller than the piston body; and the circumferential stopper is a separate part and connected to the extension bar, the damper for the washing machine further comprises an elastic member (330, 340) interposed between the friction ring and the circumferential stopper and/or between the friction ring and the piston body.