mhurhangee/ep-ind-claims huggingface dataset:
An indoor unit comprising: a securing plate provided at an upper edge of a sidewall of a drain pan for collecting drain water generated from a heat exchanger; and an antimicrobial-agent-containing case that contains an antimicrobial agent and includes a container portion positioned in an area where the drain water is collected, a case-attaching portion conforming to the securing plate and being detachably attached to the securing plate, and an arm connecting the container portion and the case-attaching portion, characterized in that the antimicrobial-agent-containing case is attached to the securing plate from an opening of an air inlet from which air is taken into a body, wherein a recess-shaped attaching space is provided below the securing plate provided on the drain pan so that a state of attaching of the antimicrobial-agent-containing case is readily checked. a securing plate provided at an upper edge of a sidewall of a drain pan for collecting drain water generated from a heat exchanger; and an antimicrobial-agent-containing case that contains an antimicrobial agent and includes a container portion positioned in an area where the drain water is collected, a case-attaching portion conforming to the securing plate and being detachably attached to the securing plate, and an arm connecting the container portion and the case-attaching portion, a container portion positioned in an area where the drain water is collected, a case-attaching portion conforming to the securing plate and being detachably attached to the securing plate, and an arm connecting the container portion and the case-attaching portion, characterized in that the antimicrobial-agent-containing case is attached to the securing plate from an opening of an air inlet from which air is taken into a body, wherein a recess-shaped attaching space is provided below the securing plate provided on the drain pan so that a state of attaching of the antimicrobial-agent-containing case is readily checked.
A method comprising: generating, by a first processor using a workflow management layer on a first computer-readable medium, a process plan for a sample in a sample container, the process plan comprising information regarding processes that need to be run on the sample and information regarding a status of analyzers used to process the sample; providing the process plan to a process control layer on a second computer-readable medium; determining, by a second processor using the process control layer, an optimized route consistent with the process plan, wherein the optimized route contains a plurality of different sample processing subsystems; providing, by the process control layer, at least one route leg to a middle control layer on the second computer-readable medium, wherein the at least one route leg is a portion of the optimized route that includes a single sample processing subsystem or a path between two or more sample processing subsystems but not all the plurality of different sample processing subsystems; further optimizing, by the middle control layer, the at least one route leg; and processing the sample using the optimized route. generating, by a first processor using a workflow management layer on a first computer-readable medium, a process plan for a sample in a sample container, the process plan comprising information regarding processes that need to be run on the sample and information regarding a status of analyzers used to process the sample; providing the process plan to a process control layer on a second computer-readable medium; determining, by a second processor using the process control layer, an optimized route consistent with the process plan, wherein the optimized route contains a plurality of different sample processing subsystems; providing, by the process control layer, at least one route leg to a middle control layer on the second computer-readable medium, wherein the at least one route leg is a portion of the optimized route that includes a single sample processing subsystem or a path between two or more sample processing subsystems but not all the plurality of different sample processing subsystems; further optimizing, by the middle control layer, the at least one route leg; and processing the sample using the optimized route.
A process for the preparation of an alkylene glycol from an alkene comprising steps of: (a) reacting the alkene with oxygen in the presence of a catalyst in a reactor to produce a gas composition comprising alkylene oxide, alkene, oxygen, carbon dioxide and water vapour; (b) removing water from the gas composition; (c) supplying the gas composition from (b) to an alkylene oxide absorber, supplying lean absorbent to the alkylene oxide absorber, contacting the gas composition with lean absorbent in the alkylene oxide absorber in the presence of one or more catalysts that promote carboxylation, and withdrawing fat absorbent from the absorber, wherein the lean absorbent comprises at least 50wt% alkylene carbonate and comprises less than 10wt% water, wherein the lean absorbent is supplied at a temperature greater than 60°C and wherein the temperature in the alkylene oxide absorber is controlled such that it is greater than 90°C; (d) supplying a portion of the fat absorbent from step (c) to one or more hydrolysis reactors, supplying water to the one or more hydrolysis reactors, contacting the fat absorbent with water in the presence of one or more hydrolysis catalysts in the one or more hydrolysis reactors, and withdrawing a product stream from the one or more hydrolysis reactors; (e) supplying the product stream from step (d) to a dehydrator, removing water and providing a dehydrated product stream; and (f) purifying the dehydrated product stream from step (e) and providing a purified alkylene glycol product stream. (a) reacting the alkene with oxygen in the presence of a catalyst in a reactor to produce a gas composition comprising alkylene oxide, alkene, oxygen, carbon dioxide and water vapour; (b) removing water from the gas composition; (c) supplying the gas composition from (b) to an alkylene oxide absorber, supplying lean absorbent to the alkylene oxide absorber, contacting the gas composition with lean absorbent in the alkylene oxide absorber in the presence of one or more catalysts that promote carboxylation, and withdrawing fat absorbent from the absorber, wherein the lean absorbent comprises at least 50wt% alkylene carbonate and comprises less than 10wt% water, wherein the lean absorbent is supplied at a temperature greater than 60°C and wherein the temperature in the alkylene oxide absorber is controlled such that it is greater than 90°C; (d) supplying a portion of the fat absorbent from step (c) to one or more hydrolysis reactors, supplying water to the one or more hydrolysis reactors, contacting the fat absorbent with water in the presence of one or more hydrolysis catalysts in the one or more hydrolysis reactors, and withdrawing a product stream from the one or more hydrolysis reactors; (e) supplying the product stream from step (d) to a dehydrator, removing water and providing a dehydrated product stream; and (f) purifying the dehydrated product stream from step (e) and providing a purified alkylene glycol product stream.
An image display apparatus comprising: a laser light source configured to emit laser light in accordance with an image; an optical deflector configured to deflect the laser light emitted by the laser light source; a screen configured to make an intermediate image diverge at a predetermined angle of divergence, to cause the intermediate image to be reflected by a concave mirror and a curved transparent reflective member to form a virtual image, the intermediate image being drawn on the screen with the laser light deflected by the optical deflector; and characterized by a housing forming a curved housing space for housing the screen, wherein the housing houses the screen in the housing space to curve the screen with a predetermined curvature. a laser light source configured to emit laser light in accordance with an image; an optical deflector configured to deflect the laser light emitted by the laser light source; a screen configured to make an intermediate image diverge at a predetermined angle of divergence, to cause the intermediate image to be reflected by a concave mirror and a curved transparent reflective member to form a virtual image, the intermediate image being drawn on the screen with the laser light deflected by the optical deflector; and characterized by a housing forming a curved housing space for housing the screen, wherein the housing houses the screen in the housing space to curve the screen with a predetermined curvature.
An apparatus for applying negative pressure therapy to a wound, comprising: a housing comprising a source of negative pressure (150, 230) configured to be in fluidic communication with a wound dressing, the source of negative pressure configured to aspirate fluid from the wound, the source of negative pressure comprising a vacuum pump having a motor and a tachometer configured to measure speed of the motor; a pressure sensor configured to measure pressure in a fluid flow path configured to fluidically connect the wound dressing and the source of negative pressure; a controller configured to operate the source of negative pressure, the controller further configured to: receive a negative pressure setpoint selected by a user; receive a measurement of pressure in the fluid flow path from the pressure sensor; determine a rate of flow in the fluid flow path based on averaging a first plurality of tachometer readings during a first period of time; upon initiation of negative pressure wound therapy, detect presence of one or more leaks in the fluid flow path based at least in part on the pressure in the fluid flow path and the rate of flow in the fluid flow path, wherein the detection comprises determining if the rate of flow satisfies a leak threshold during a further period of time, the leak threshold determined based on the pressure setpoint; and provide indication of presence of one or more leaks. receive a negative pressure setpoint selected by a user; receive a measurement of pressure in the fluid flow path from the pressure sensor; determine a rate of flow in the fluid flow path based on averaging a first plurality of tachometer readings during a first period of time; upon initiation of negative pressure wound therapy, detect presence of one or more leaks in the fluid flow path based at least in part on the pressure in the fluid flow path and the rate of flow in the fluid flow path, wherein the detection comprises determining if the rate of flow satisfies a leak threshold during a further period of time, the leak threshold determined based on the pressure setpoint; and provide indication of presence of one or more leaks.
A fuel injector configured to inject fuel into a combustion chamber, the fuel injector comprising: a body having a base portion opposite a nozzle portion, wherein the base portion is configured to receive the fuel into the body and the nozzle portion is configured to be positioned adjacent to the combustion chamber; a valve carried by the nozzle portion, wherein the valve is movable between a closed position and an open position to inject the fuel into the combustion chamber; an actuator coupled to the valve and extending longitudinally through the body towards the base portion; and a driver carried by the body and movable between a first position and a second position, the driver including one or more non-centrally positioned longitudinally extending fuel cavities (126a-f) to allow fuel to flow through the driver, wherein in the first position the driver is spaced apart from the actuator and in the second position the driver moves the actuator to move the valve to the open position, characterised by the driver including a plurality of ridges on an exterior surface to allow fuel to flow around the driver. a body having a base portion opposite a nozzle portion, wherein the base portion is configured to receive the fuel into the body and the nozzle portion is configured to be positioned adjacent to the combustion chamber; a valve carried by the nozzle portion, wherein the valve is movable between a closed position and an open position to inject the fuel into the combustion chamber; an actuator coupled to the valve and extending longitudinally through the body towards the base portion; and a driver carried by the body and movable between a first position and a second position, the driver including one or more non-centrally positioned longitudinally extending fuel cavities (126a-f) to allow fuel to flow through the driver, wherein in the first position the driver is spaced apart from the actuator and in the second position the driver moves the actuator to move the valve to the open position, characterised by the driver including a plurality of ridges on an exterior surface to allow fuel to flow around the driver.
A security document having an at least semi-transparent or translucent window region of lower optical density than an adjacent non-window region of the security document, the window region being defined by at least one opacifying layer (6a, 6b, 6c)) of the security document which is present in the non-window region and not in the window region of the document, and an optically variable security device disposed at least partially in the window region, comprising a first ink layer and a second ink layer which at least partially overlap one another in the window region, wherein the first ink layer comprises a non-iridescent, semi-transparent ink composition with a visible colour which does not vary with viewing angle, the first ink layer having a different composition from the at least one opacifying layer of the security document, and the second ink layer comprises an iridescent, semi-transparent ink composition, the appearance of which varies according to the viewing angle; and wherein: the optically variable security device is located partially in the window region and partially in the non-window region; or the window region includes a half window portion comprising a region of transparent substrate with an opacifying layer on only one of its surfaces, and at least a region of the optically variable security device is located in the half window portion. the optically variable security device is located partially in the window region and partially in the non-window region; or the window region includes a half window portion comprising a region of transparent substrate with an opacifying layer on only one of its surfaces, and at least a region of the optically variable security device is located in the half window portion.
A method for wireless communications by a user equipment, UE, comprising: receiving a random access response message from a wireless node, wherein the random access response message comprises an inquiry on whether beam correspondence between the UE and the wireless node applies at the UE; determining whether beam correspondence between the UE and the wireless node applies at the UE, wherein determining whether beam correspondence applies comprises determining whether the LTE can determine at least one of: a beam to use for uplink transmission based on a downlink reception beam or a beam to use for downlink reception based on an uplink transmission beam; and transmitting a radio resource control, RRC, connection request message to the wireless node, wherein the RRC connection request message comprises both a payload and at least one of: a synchronization sequence or a demodulation reference signal, wherein the RRC connection request message is configured to further include an indication of whether the beam correspondence applies, based on the determining and in response to the inquiry. receiving a random access response message from a wireless node, wherein the random access response message comprises an inquiry on whether beam correspondence between the UE and the wireless node applies at the UE; determining whether beam correspondence between the UE and the wireless node applies at the UE, wherein determining whether beam correspondence applies comprises determining whether the LTE can determine at least one of: a beam to use for uplink transmission based on a downlink reception beam or a beam to use for downlink reception based on an uplink transmission beam; and transmitting a radio resource control, RRC, connection request message to the wireless node, wherein the RRC connection request message comprises both a payload and at least one of: a synchronization sequence or a demodulation reference signal, wherein the RRC connection request message is configured to further include an indication of whether the beam correspondence applies, based on the determining and in response to the inquiry.
An audio processing method comprising: for each given input digital audio signal of a set of two or more input digital audio signals, deriving a loudness signal for a sequence of windows of each input digital audio signal, the windows containing portions of that input digital audio signal and detecting a correlation between respective loudness signals derived from the given input digital audio signal and others of the input digital audio signals; generating a gain adjustment for application to the given input digital audio signal in dependence upon the detected correlation; applying the gain adjustment to the given input digital audio signal to generate a respective gain-adjusted input digital audio signal; and combining the set of gain-adjusted input digital audio signals to generate an output digital audio signal. for each given input digital audio signal of a set of two or more input digital audio signals, deriving a loudness signal for a sequence of windows of each input digital audio signal, the windows containing portions of that input digital audio signal and detecting a correlation between respective loudness signals derived from the given input digital audio signal and others of the input digital audio signals; generating a gain adjustment for application to the given input digital audio signal in dependence upon the detected correlation; applying the gain adjustment to the given input digital audio signal to generate a respective gain-adjusted input digital audio signal; and combining the set of gain-adjusted input digital audio signals to generate an output digital audio signal.
A compound, which is a compound of formula or a salt thereof: wherein Ring A is optionally substituted phenyl, Ring B is phenyl or thienyl, each optionally substituted, R 1 and R 2 are each independently H or C 1-6 -alkyl, X is O, S, S or S 2, and CH 2 in -(CH 2) n - is optionally replaced by O or S, and n is 4 or 5. Ring A is optionally substituted phenyl, Ring B is phenyl or thienyl, each optionally substituted, R 1 and R 2 are each independently H or C 1-6 -alkyl, X is O, S, S or S 2, and CH 2 in -(CH 2) n - is optionally replaced by O or S, and n is 4 or 5.
A wireless access point comprising: a radio transceiver; a first interface connected to the radio transceiver and configured to establish a connection to another wireless access point connected to a first network across a radio link established by the radio transceiver; a second interface configured to connect to one or more devices (110, 111) on a second network; wherein the wireless access point is configured to bridge the first and second networks by establishing a plurality of associations with the another wireless access point using the radio transceiver, each association uniquely corresponding to one of the wireless access point and one of the one or more devices (110, 111) on the second network and the plurality of associations existing simultaneously; characterized in that the wireless access point is further configured to establish an encryption tunnel for each of the plurality of associations. a radio transceiver; a first interface connected to the radio transceiver and configured to establish a connection to another wireless access point connected to a first network across a radio link established by the radio transceiver; a second interface configured to connect to one or more devices (110, 111) on a second network; wherein the wireless access point is configured to bridge the first and second networks by establishing a plurality of associations with the another wireless access point using the radio transceiver, each association uniquely corresponding to one of the wireless access point and one of the one or more devices (110, 111) on the second network and the plurality of associations existing simultaneously; characterized in that the wireless access point is further configured to establish an encryption tunnel for each of the plurality of associations.
A method of processing a received signal y for making a symbol estimate ŝ i of a symbol included in a transmitted signal which is transmitted in a Multiple-Input Multiple-Output, MIMO, system, the method comprising the steps of: providing at least a subset of precoding matrices W which are candidates for use in transmission of an interfering signal in the Multiple-Input Multiple-Output system; determining corresponding plural covariance matrices R, each of which being formed using a corresponding candidate precoding matrix W, a channel matrix which at least partially describes a channel over which the received signal is transmitted and using the received signal vector; the method being characterized by: determining from the subset of precoding matrices W a trace minimizing candidate being associated with one of the plural covariance matrices that has a minimum trace value; forming an interference rejection combining weighting matrix R v using the trace minimizing candidate, the channel matrix, and a covariance matrix of a noise term; using the interference rejection combining weighting matrix R v to make the symbol estimate ŝ i. providing at least a subset of precoding matrices W which are candidates for use in transmission of an interfering signal in the Multiple-Input Multiple-Output system; determining corresponding plural covariance matrices R, each of which being formed using a corresponding candidate precoding matrix W, a channel matrix which at least partially describes a channel over which the received signal is transmitted and using the received signal vector; the method being characterized by: determining from the subset of precoding matrices W a trace minimizing candidate being associated with one of the plural covariance matrices that has a minimum trace value; forming an interference rejection combining weighting matrix R v using the trace minimizing candidate, the channel matrix, and a covariance matrix of a noise term; using the interference rejection combining weighting matrix R v to make the symbol estimate ŝ i. determining from the subset of precoding matrices W a trace minimizing candidate being associated with one of the plural covariance matrices that has a minimum trace value; forming an interference rejection combining weighting matrix R v using the trace minimizing candidate, the channel matrix, and a covariance matrix of a noise term; using the interference rejection combining weighting matrix R v to make the symbol estimate ŝ i.