mhurhangee/ep-ind-claims huggingface dataset:
A lid assembly for a drinking container, the lid assembly comprising: an upper lid member comprising a drinking orifice and a gas vent formed therethrough; a closure member pivotally mounted on a top surface of the upper lid member for pivotal movement to close and open the gas vent; a lower lid member having a window to allow a flow of liquid and gas therethrough, said window in fluid communication with the drinking orifice and the gas vent; a lever pivotally mounted on the lower lid member; a baffle plate for closing the drinking orifice and mounted atop the lever to move pivotally along with the pivotal movement of the lever; and a piston movable within the upper lid member in a direction in order to force the lever to pivot downwardly so that the baffle plate moves away from the drinking orifice, said piston having a piston head exposed externally; wherein the piston is configured such that the piston is permitted to enable the pivotal movement of the lever only when the closure member is moved to open the gas vent. an upper lid member comprising a drinking orifice and a gas vent formed therethrough; a closure member pivotally mounted on a top surface of the upper lid member for pivotal movement to close and open the gas vent; a lower lid member having a window to allow a flow of liquid and gas therethrough, said window in fluid communication with the drinking orifice and the gas vent; a lever pivotally mounted on the lower lid member; a baffle plate for closing the drinking orifice and mounted atop the lever to move pivotally along with the pivotal movement of the lever; and a piston movable within the upper lid member in a direction in order to force the lever to pivot downwardly so that the baffle plate moves away from the drinking orifice, said piston having a piston head exposed externally; wherein the piston is configured such that the piston is permitted to enable the pivotal movement of the lever only when the closure member is moved to open the gas vent.
A method for detecting and/or classifying a wanted signal in an electromagnetic signal, comprising the following steps: - receiving the electromagnetic signal; - determining a spectrogram of the electromagnetic signal, wherein the spectrogram relates to a snapshot of a spectrum of the electromagnetic signal at a particular time or to a time evolution of the spectrum; - determining at least one correlation parameter, in particular a correlation multi-dimensional algebraic object comprising several correlation parameters, based on the determined spectrogram; - using said at least one correlation parameter as an input for a machine learning module; and - detecting and/or classifying the wanted signal in the electromagnetic signal via the machine learning module based at least partially on the at least one correlation parameter; wherein a time evolution of the spectrogram of the electromagnetic signal is determined, characterized in that a correlation multi-dimensional algebraic object of at least third order is determined, wherein an image processing technique is applied to the at least one correlation parameter in order to detect and/or classify the wanted signal in the electromagnetic signal, and/or wherein an image processing technique is applied to the determined spectrogram in order to detect and/or classify the wanted signal in the electromagnetic signal, wherein said at least one correlation parameter serves as metadata for the machine learning module. - receiving the electromagnetic signal; - determining a spectrogram of the electromagnetic signal, wherein the spectrogram relates to a snapshot of a spectrum of the electromagnetic signal at a particular time or to a time evolution of the spectrum; - determining at least one correlation parameter, in particular a correlation multi-dimensional algebraic object comprising several correlation parameters, based on the determined spectrogram; - using said at least one correlation parameter as an input for a machine learning module; and - detecting and/or classifying the wanted signal in the electromagnetic signal via the machine learning module based at least partially on the at least one correlation parameter; wherein a time evolution of the spectrogram of the electromagnetic signal is determined, characterized in that a correlation multi-dimensional algebraic object of at least third order is determined, wherein an image processing technique is applied to the at least one correlation parameter in order to detect and/or classify the wanted signal in the electromagnetic signal, and/or wherein an image processing technique is applied to the determined spectrogram in order to detect and/or classify the wanted signal in the electromagnetic signal, wherein said at least one correlation parameter serves as metadata for the machine learning module.
A method for optimizing processing of power-up messages received at a wireless mobile device that is communicatively coupled to a base station in a telecommunications network, the method comprising: Receiving (305, 355), at the mobile device, a series of power-up messages from the base station; Computing rates of received power-up messages based on timestamps of power-up messages in the series of power-up messages; identifying an action policy, wherein the action policy comprises a set of responsive actions to be taken in response to receiving the series of power-up messages; selecting a responsive action from the set of responsive actions based on the rates of received power-up messages; and implementing the selected responsive action by changing a behavior of the mobile device, wherein changing the behavior includes increasing power of data transmission by the wireless mobile device to a power level specified by the selected responsive action, and wherein the power level specified by the selected response action is greater than a power level specified by at least one message in the series of power-up messages. Receiving (305, 355), at the mobile device, a series of power-up messages from the base station; Computing rates of received power-up messages based on timestamps of power-up messages in the series of power-up messages; identifying an action policy, wherein the action policy comprises a set of responsive actions to be taken in response to receiving the series of power-up messages; selecting a responsive action from the set of responsive actions based on the rates of received power-up messages; and implementing the selected responsive action by changing a behavior of the mobile device, wherein changing the behavior includes increasing power of data transmission by the wireless mobile device to a power level specified by the selected responsive action, and wherein the power level specified by the selected response action is greater than a power level specified by at least one message in the series of power-up messages.
A medicine containing recombinant mistletoe lectin for use in treating skin cancer in humans, wherein the recombinant mistletoe lectin consists of the amino acid sequences of SEQ ID No. 1 and SEQ ID No. 4.
A configurable receiver comprising: an RF receiver section (140, 142) configured to generate at least one downconverted signal from a received RF signal; and a receiver processing module, coupled to the RF receiver section, configured to process at least one downconverted signal in a plurality of receiver stages (190, 191, 192, 193, 194) to produce a stream of inbound data, wherein the receiver processing module is configurable in response to a control signal to selectively bypass at least one of the plurality of receiver stages and power down the at least one of the plurality of receiver stages selectively bypassed, wherein the receiver processing module is configurable in response to the control signal to configure the receiver processing module to a selected one of a plurality of channel utilization modes, and wherein the plurality of channel utilization modes includes at least one of: orthogonal frequency division multiplexing mode, a coded orthogonal frequency division multiplexing mode, a time division multiplexing mode, a frequency division multiplexing mode and a code division multiplexing mode. an RF receiver section (140, 142) configured to generate at least one downconverted signal from a received RF signal; and a receiver processing module, coupled to the RF receiver section, configured to process at least one downconverted signal in a plurality of receiver stages (190, 191, 192, 193, 194) to produce a stream of inbound data, wherein the receiver processing module is configurable in response to a control signal to selectively bypass at least one of the plurality of receiver stages and power down the at least one of the plurality of receiver stages selectively bypassed, wherein the receiver processing module is configurable in response to the control signal to configure the receiver processing module to a selected one of a plurality of channel utilization modes, and wherein the plurality of channel utilization modes includes at least one of: orthogonal frequency division multiplexing mode, a coded orthogonal frequency division multiplexing mode, a time division multiplexing mode, a frequency division multiplexing mode and a code division multiplexing mode.
An automatic analyzer comprising: a first reagent vessel container (4,19,20) for storing a plurality of reagent vessels that each contain a reagent to be used for analysis; a second reagent vessel container for storing reagent vessels to be transferred to the first reagent vessel container (4,19,20); a reagent vessel transfer mechanism for transferring reagent vessels from the first reagent vessel container (4,19,20) to the second reagent vessel container and vice versa; at least one sample dispensing mechanism for suctioning and discharging samples; a sample rack storage mechanism for temporarily storing several sample racks until the sample racks which hold the samples for analysis are transferred from the sample rack storage mechanism; a sample rack transfer path for transferring the sample racks to the sample dispensing mechanism, characterised in that the automatic analyser further comprises, a buffer mechanism including the sample rack storage mechanism, the second reagent vessel container and a buffer mechanism rack having a multi-story structure and a temperature control mechanism for controlling the temperature of the second reagent vessel container and the sample rack storage mechanism; wherein the sample rack storage mechanism and the second reagent vessel container are installed on different levels of the buffer mechanism rack, with the second reagent vessel container being placed on a higher level than the sample rack storage mechanism, wherein the temperature control mechanism is installed between the two levels to control the temperatures of both levels. a first reagent vessel container (4,19,20) for storing a plurality of reagent vessels that each contain a reagent to be used for analysis; a second reagent vessel container for storing reagent vessels to be transferred to the first reagent vessel container (4,19,20); a reagent vessel transfer mechanism for transferring reagent vessels from the first reagent vessel container (4,19,20) to the second reagent vessel container and vice versa; at least one sample dispensing mechanism for suctioning and discharging samples; a sample rack storage mechanism for temporarily storing several sample racks until the sample racks which hold the samples for analysis are transferred from the sample rack storage mechanism; a sample rack transfer path for transferring the sample racks to the sample dispensing mechanism, characterised in that the automatic analyser further comprises, a buffer mechanism including the sample rack storage mechanism, the second reagent vessel container and a buffer mechanism rack having a multi-story structure and a temperature control mechanism for controlling the temperature of the second reagent vessel container and the sample rack storage mechanism; wherein the sample rack storage mechanism and the second reagent vessel container are installed on different levels of the buffer mechanism rack, with the second reagent vessel container being placed on a higher level than the sample rack storage mechanism, wherein the temperature control mechanism is installed between the two levels to control the temperatures of both levels.
A bandwidth information notification method, wherein the method comprises: obtaining (102, 203), by a network node, a current bandwidth value of a microwave link; sending (103, 204) periodically, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection which passes through the microwave link; wherein a bandwidth of the microwave link is different in different modulation modes, and the bandwidth of the microwave link in each modulation mode is determinate. obtaining (102, 203), by a network node, a current bandwidth value of a microwave link; sending (103, 204) periodically, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection which passes through the microwave link; wherein a bandwidth of the microwave link is different in different modulation modes, and the bandwidth of the microwave link in each modulation mode is determinate.
A multi-strand composite electrical conductor assembly, comprising: an elongate strand consisting essentially of carbon nanotubes having a length of at least 50 millimeters; and an elongate metallic strand having substantially the same length as the carbon nanotube strand, further comprising a plurality of metallic strands having substantially the same length as the carbon nanotube strand, characterized in that the carbon nanotube strand is a central strand and wherein the plurality of metallic strands surround the carbon nanotube strand. an elongate strand consisting essentially of carbon nanotubes having a length of at least 50 millimeters; and an elongate metallic strand having substantially the same length as the carbon nanotube strand, further comprising a plurality of metallic strands having substantially the same length as the carbon nanotube strand, characterized in that the carbon nanotube strand is a central strand and wherein the plurality of metallic strands surround the carbon nanotube strand.
Safety unit with double shutoff in series, intended for a hydraulic lifting cylinder capable of lifting, lowering and holding a load in the air, in order to guarantee, by locking the hydraulic flow, the holding in position of the rod of the hydraulic cylinder, safety unit intended to be mounted in the hydraulic circuit which supplies the cylinder with hydraulic fluid, safety unit comprising: - two inlets (12, 13, 46, 12', 46') intended to be connected to the hydraulic circuit and at least one outlet (10, 11) intended to be connected to the orifice (7, 8) of a chamber (5, 6, 6') of the cylinder; - an hydraulic passage between a first of these two inlets (12, 13, 12') and the at least one outlet (10, 11), provided so that said cylinder chamber can only be filled and emptied through this hydraulic passage, and - two shut-off devices placed in series in the hydraulic passage so that said chamber (5, 6, 6') of the cylinder can be locked in a sealed manner by two successive shut-off devices, the first of these shut-off devices being a mechanical non-return valve with a shutter which is with a through state under the direct thrust of the hydraulic fluid entering the hydraulic passage through the first of these two inlets (12, 13, 12') to allow the filling of said chamber of the cylinder and which is also with a through state under the thrust, direct or via the action of a control part, of the hydraulic fluid entering through the second of these two inlets (12, 13, 46, 46') to allow the emptying of said chamber of the cylinder, safety unit characterised in that the two shut-off devices are of different nature, and in that the second of these shut-off devices is a hydraulic pre-actuator, the opening and closing of which are independent of the presence or absence of hydraulic fluid at the two inlets (12, 13, 46, 12', 46') and in the hydraulic passage. - two inlets (12, 13, 46, 12', 46') intended to be connected to the hydraulic circuit and at least one outlet (10, 11) intended to be connected to the orifice (7, 8) of a chamber (5, 6, 6') of the cylinder; - an hydraulic passage between a first of these two inlets (12, 13, 12') and the at least one outlet (10, 11), provided so that said cylinder chamber can only be filled and emptied through this hydraulic passage, and - two shut-off devices placed in series in the hydraulic passage so that said chamber (5, 6, 6') of the cylinder can be locked in a sealed manner by two successive shut-off devices, the first of these shut-off devices being a mechanical non-return valve with a shutter which is with a through state under the direct thrust of the hydraulic fluid entering the hydraulic passage through the first of these two inlets (12, 13, 12') to allow the filling of said chamber of the cylinder and which is also with a through state under the thrust, direct or via the action of a control part, of the hydraulic fluid entering through the second of these two inlets (12, 13, 46, 46') to allow the emptying of said chamber of the cylinder,
A computer-implemented method for location correction of imagery data comprising: processing first higher-accuracy ground-level imagery and second top-down imagery to identify features that are visible in both, wherein the first higher-accuracy ground-level imagery has image-to-ground correspondences between the features and geographic locations; labeling the features in top-down imagery from a top-down source of the second top-down imagery to determine image-to-image correspondences; transferring the image-to-ground correspondences of the features from the first higher-accuracy ground-level imagery to the second top-down imagery; adjusting camera pose information for the second top-down imagery based on the image-to-image correspondences and the transferred image-to-ground correspondences; processing the second top-down imagery and third lower-accuracy ground-level imagery to identify further features that are visible in both; determining image-to-ground correspondences between the further features and further geographic locations using the adjusted camera pose information for the second top-down imagery; labeling the further features in ground-level imagery from a ground-level source of the third lower-accuracy ground-level imagery to determine image-to-image correspondences; transferring the image-to-ground correspondences of the further features from the second top-down imagery to the third lower-accuracy ground-level imagery; and adjusting camera pose information for the third lower-accuracy ground-level imagery based on the image-to-image correspondences and the transferred image-to-ground correspondences. processing first higher-accuracy ground-level imagery and second top-down imagery to identify features that are visible in both, wherein the first higher-accuracy ground-level imagery has image-to-ground correspondences between the features and geographic locations; labeling the features in top-down imagery from a top-down source of the second top-down imagery to determine image-to-image correspondences; transferring the image-to-ground correspondences of the features from the first higher-accuracy ground-level imagery to the second top-down imagery; adjusting camera pose information for the second top-down imagery based on the image-to-image correspondences and the transferred image-to-ground correspondences; processing the second top-down imagery and third lower-accuracy ground-level imagery to identify further features that are visible in both; determining image-to-ground correspondences between the further features and further geographic locations using the adjusted camera pose information for the second top-down imagery; labeling the further features in ground-level imagery from a ground-level source of the third lower-accuracy ground-level imagery to determine image-to-image correspondences; transferring the image-to-ground correspondences of the further features from the second top-down imagery to the third lower-accuracy ground-level imagery; and adjusting camera pose information for the third lower-accuracy ground-level imagery based on the image-to-image correspondences and the transferred image-to-ground correspondences.
A method for removing methylene-bridged polyphenyl polyamines from an aqueous stream comprising said methylene-bridged polyphenyl polyamines, the method comprising the steps of - providing a pertraction equipment comprising a membrane with a first side and a second side opposite to said first side; - bringing an aqueous stream comprising methylene-bridged polyphenyl polyamines into contact with said first side of said membrane and bringing an organic stream into contact with said second side of said membrane, thereby causing the methylene-bridged polyphenyl polyamines to transfer from said aqueous stream through said membrane to said organic stream; wherein, before bringing the aqueous stream and organic stream in contact with said membrane, the membrane is wetted with a liquid having a surface tension of less than 40mN/m, said liquid being toluene, cyclohexanol, ethanol or methanol. - providing a pertraction equipment comprising a membrane with a first side and a second side opposite to said first side; - bringing an aqueous stream comprising methylene-bridged polyphenyl polyamines into contact with said first side of said membrane and bringing an organic stream into contact with said second side of said membrane, thereby causing the methylene-bridged polyphenyl polyamines to transfer from said aqueous stream through said membrane to said organic stream;
A wind power plant having a plurality of wind turbine generators and a power plant controller arranged to communicate with the plurality of wind turbines generators, wherein each wind turbine generator in the plurality of wind turbine generators being related to a wind turbine controller, the wind turbine controller being arranged to control an active power output in its related wind turbine generator according to an active power set point received from the wind power plant controller; the wind power plant supplies power to a utility grid in accordance with an active power reference; such that upon a change in the active power reference the active power set point for each wind turbine generator is changed by a weighting factor; wherein the weighting factor for an increase of the active power reference depends on a relationship between an available active power of each wind turbine generator and an available active power of the wind power plant, and characterized in that the weighting factor for a decrease of the active power reference depends on a relationship between a produced active power of each wind turbine generator and an aggregated active power output of the wind power plant. each wind turbine generator in the plurality of wind turbine generators being related to a wind turbine controller, the wind turbine controller being arranged to control an active power output in its related wind turbine generator according to an active power set point received from the wind power plant controller; the wind power plant supplies power to a utility grid in accordance with an active power reference; such that upon a change in the active power reference the active power set point for each wind turbine generator is changed by a weighting factor; wherein the weighting factor for an increase of the active power reference depends on a relationship between an available active power of each wind turbine generator and an available active power of the wind power plant, and