mhurhangee/ep-ind-claims huggingface dataset:
An ultraviolet fluid treatment system for treating a fluid containing a contaminant, the system comprising: a fluid inlet (110; 210; 310; 410), a fluid outlet (120; 220; 320; 420), and an ultraviolet radiation zone (130; 230; 330; 430) between the fluid inlet and the fluid outlet; an upstream measurement point (U1; U2; U3; U4) configured to measure a first set of fluid properties upstream of the radiation zone; a downstream measurement point (D1; D2; D3; D4) configured to measure a second set of fluid properties downstream of the radiation zone; a control center (175; 275; 375; 475) comprising a controller configured to cause one or more system parameters to be adjusted; and characterized by: a programmable logic device (176; 276; 376; 476) programmed with a kinetic calculation model that outputs a conversion value of the contaminant based on the first and second sets of fluid properties, said programmable logic device also programmed with a reactor calculation model that calculates an adjustment to the one or more system parameters based on the output conversion value, the programmable logic device outputting the calculated adjustment parameters to the controller, which in response thereto adjusts the one or more fluid treatment system parameters. a fluid inlet (110; 210; 310; 410), a fluid outlet (120; 220; 320; 420), and an ultraviolet radiation zone (130; 230; 330; 430) between the fluid inlet and the fluid outlet; an upstream measurement point (U1; U2; U3; U4) configured to measure a first set of fluid properties upstream of the radiation zone; a downstream measurement point (D1; D2; D3; D4) configured to measure a second set of fluid properties downstream of the radiation zone; a control center (175; 275; 375; 475) comprising a controller configured to cause one or more system parameters to be adjusted; and characterized by: a programmable logic device (176; 276; 376; 476) programmed with a kinetic calculation model that outputs a conversion value of the contaminant based on the first and second sets of fluid properties, said programmable logic device also programmed with a reactor calculation model that calculates an adjustment to the one or more system parameters based on the output conversion value, the programmable logic device outputting the calculated adjustment parameters to the controller, which in response thereto adjusts the one or more fluid treatment system parameters. a programmable logic device (176; 276; 376; 476) programmed with a kinetic calculation model that outputs a conversion value of the contaminant based on the first and second sets of fluid properties, said programmable logic device also programmed with a reactor calculation model that calculates an adjustment to the one or more system parameters based on the output conversion value, the programmable logic device outputting the calculated adjustment parameters to the controller, which in response thereto adjusts the one or more fluid treatment system parameters.
A method for performing scanning over multiple bands by a station, STA, in a wireless LAN communication system, the method comprising: transmitting a first frame to a first access point, AP; and receiving a second frame from the first AP in response to the first frame, wherein the second frame includes information about neighbor APs when the first frame includes information about one or more operating classes supported by the STA and a service set identifier, SSID, and wherein a SSID of the neighbor APs is matched with the SSID included in the first frame and an operating class of the neighbor APs is matched with an operating class included in the one or more operating classes supported by the STA. transmitting a first frame to a first access point, AP; and receiving a second frame from the first AP in response to the first frame, wherein the second frame includes information about neighbor APs when the first frame includes information about one or more operating classes supported by the STA and a service set identifier, SSID, and wherein a SSID of the neighbor APs is matched with the SSID included in the first frame and an operating class of the neighbor APs is matched with an operating class included in the one or more operating classes supported by the STA.
A method for controlling an automatic breezeless mode, wherein breezeless mode refers to that an indoor temperature has dropped, reaching or approaching a set temperature of an air conditioner, a fan speed and a compressor frequency of the air conditioner are controlled to decrease, so as to maintain the current indoor temperature and minimize user's feeling of cold wind, characterized in that, the method comprises: in response to the air conditioner entering the automatic breezeless mode, obtaining a first indoor operating parameter being a room temperature and a second indoor operating parameter being an evaporator coil temperature according to a preset frequency, and obtaining an outlet air temperature based on the first indoor operating parameter and the second indoor operating parameter; determining a current temperature change trend based on the first indoor operating parameter; and obtaining a set temperature of the air conditioner, and performing a corresponding control action for the automatic breezeless mode based on a relationship among the set temperature, the temperature change trend, and the outlet air temperature. in response to the air conditioner entering the automatic breezeless mode, obtaining a first indoor operating parameter being a room temperature and a second indoor operating parameter being an evaporator coil temperature according to a preset frequency, and obtaining an outlet air temperature based on the first indoor operating parameter and the second indoor operating parameter; determining a current temperature change trend based on the first indoor operating parameter; and obtaining a set temperature of the air conditioner, and performing a corresponding control action for the automatic breezeless mode based on a relationship among the set temperature, the temperature change trend, and the outlet air temperature.
Method by a network management device for channel allocation to nodes (100-n) over a coaxial cable in a data communication network, said method comprising the steps of: detecting a connection attempt from a first node on one available channel out of a list of channels, wherein the list of channels is a scan sequence of channels; selectively allowing connection to said one channel based on a likelihood parameter which is dependent on position of said one channel in said scan sequence, the method characterized in that the likelihood for allowing connection is increasingly higher from a first to a last position in the scan sequence. detecting a connection attempt from a first node on one available channel out of a list of channels, wherein the list of channels is a scan sequence of channels; selectively allowing connection to said one channel based on a likelihood parameter which is dependent on position of said one channel in said scan sequence, the method characterized in that the likelihood for allowing connection is increasingly higher from a first to a last position in the scan sequence.
A vertical planting device, comprising: plural plant troughs for filling in a plant substrate, wherein each plant trough includes an upper hinge element arranged at an outrigger at a top side of the plant trough and a lower hinge element arranged at an outside of the plant trough in a base portion of the plant trough, characterized in that the plant troughs are joinable through the respective upper and/or lower hinge element to form a plant trough chain that is pivotably linked by hinges, wherein the plant trough chain forms an arrangement that is suspendable at a frame and that self stabilizes through a weight of the plant troughs without additional fastening devices wherein the plant troughs are laterally tilted from the plane of the plant trough chain. plural plant troughs for filling in a plant substrate, wherein each plant trough includes an upper hinge element arranged at an outrigger at a top side of the plant trough and a lower hinge element arranged at an outside of the plant trough in a base portion of the plant trough, characterized in that the plant troughs are joinable through the respective upper and/or lower hinge element to form a plant trough chain that is pivotably linked by hinges, wherein the plant trough chain forms an arrangement that is suspendable at a frame and that self stabilizes through a weight of the plant troughs without additional fastening devices wherein the plant troughs are laterally tilted from the plane of the plant trough chain.
A production method for a porous carbon material comprising: a preparation step of preparing a resin compact containing a resin material that becomes a carbon source, a first template and a second template; and a firing step of firing the resin compact to obtain the porous carbon material having a first peak positioned in a pore diameter range of 4 nm or larger and 7 nm or smaller and a second peak positioned in a pore diameter range of 10 nm or larger and 1 μm or smaller in a pore size distribution measured by a mercury intrusion method, wherein the first template contains an amphipathic molecule, the second template contains polystyrene latex particles, and the preparation step comprises: a resin material-forming step of forming a resin material that becomes a carbon source in a dispersion liquid containing a micelle formed of an amphipathic molecule, latex particles and an aqueous solvent to obtain a deposit containing the micelle, the latex particles and the resin material; and a drying step of drying the deposit to obtain a resin compact containing the resin material, the amphipathic molecule and the latex particles. a preparation step of preparing a resin compact containing a resin material that becomes a carbon source, a first template and a second template; and a firing step of firing the resin compact to obtain the porous carbon material having a first peak positioned in a pore diameter range of 4 nm or larger and 7 nm or smaller and a second peak positioned in a pore diameter range of 10 nm or larger and 1 μm or smaller in a pore size distribution measured by a mercury intrusion method, wherein the first template contains an amphipathic molecule, the second template contains polystyrene latex particles, and the preparation step comprises: a resin material-forming step of forming a resin material that becomes a carbon source in a dispersion liquid containing a micelle formed of an amphipathic molecule, latex particles and an aqueous solvent to obtain a deposit containing the micelle, the latex particles and the resin material; and a drying step of drying the deposit to obtain a resin compact containing the resin material, the amphipathic molecule and the latex particles. a resin material-forming step of forming a resin material that becomes a carbon source in a dispersion liquid containing a micelle formed of an amphipathic molecule, latex particles and an aqueous solvent to obtain a deposit containing the micelle, the latex particles and the resin material; and a drying step of drying the deposit to obtain a resin compact containing the resin material, the amphipathic molecule and the latex particles.
Plug-in connector for connecting at least one fluid line to another fluid line or to an apparatus connector, comprising a housing having a passage duct, wherein one end of the housing is configured as a ferrule portion for plugging in a mating plug-in connector and has latching means (10, 12) for releasably fixing the mating plug-in connector, wherein the latching means (10, 12) are a component part of an adapter sleeve which is able to be plugged into the ferrule portion and is held in the ferrule portion by means of radially elastic form-fit elements, and has a passage opening for a plug shank of the mating plug-in connector; and also the latching means (10, 12) being formed by at least two latching arms that are radially elastic in terms of a longitudinal central axis (X-X) of the plug-in connector and being configured on the circumference of the adapter sleeve by slotshaped reliefs in the sleeve wall of said adapter sleeve, and these latching arms on the free end thereof having latching cams that run radially in the direction towards the longitudinal central axis (X-X); wherein the form-fit elements are composed of radially elastic latching appendages which are configured on the external circumference of the adapter sleeve so as to be between the latching arms and in the plugged-in state engage in a form-fitting and latching manner in first clearances in the circumferential wall of the ferrule portion, characterized in that the latching cams of the latching arms from the longitudinal central axis (X-X) have a radial spacing that is smaller than an internal radius of the passage opening, and also a radial spacing of the latching arms in relation to the longitudinal central axis (X-X), at least in a region adjacent to the latching cams of said latching arms, is equal to the internal diameter of the passage opening or smaller than the internal diameter of the passage opening, so that the latching cams of the latching arms in the plugged-in state of the mating plug-in connector can engage in a latching groove of the plug shank of the mating plug-in connector.
A tensioning system (120, 320), comprising: an adjustable tensioning cable (122, 222); and a knitted component (104, 204) that comprises at least one knit anchor (123, 223) having a channel (124, 224) for receiving the tensioning cable, wherein the tensioning cable extends through the channel, and wherein the channel of the at least one anchor extends along an arc, wherein the upper further comprises at least one inlaid strand inlaid within the knitted component, the inlaid strand extending around an outer perimeter of the channel, and wherein the inlaid strand is formed of a substantially inelastic material. an adjustable tensioning cable (122, 222); and a knitted component (104, 204) that comprises at least one knit anchor (123, 223) having a channel (124, 224) for receiving the tensioning cable, wherein the tensioning cable extends through the channel, and wherein the channel of the at least one anchor extends along an arc, wherein the upper further comprises at least one inlaid strand inlaid within the knitted component, the inlaid strand extending around an outer perimeter of the channel, and wherein the inlaid strand is formed of a substantially inelastic material.
A measuring device for measuring at least one property of an object to be measured, wherein the measuring device comprises a signal processing unit, a first optical sensor row and a second optical sensor row between which a planar object to be measured is arranged to be placed; the direction of the first sensor row and the direction of the second sensor row differ from one another for measuring the object two-dimensionally on the basis of the differing directions of the first sensor row and the second sensor row; each sensor of the first sensor row is arranged to form data representing a distance between the object to be measured and the sensor; and each sensor of the second sensor row is arranged to form data representing a distance between the object to be measured and the sensor, characterized in that the signal processing unit is, on the basis of said data of the sensors (208, 210) of the first sensor row and the second sensor row, configured to determine an inclination angle of the surface of the first side of the object in one direction and an inclination angle of the surface of the opposite side in another direction for determining a total inclination of the object.
A method for forming a phosphoprotein conjugate, wherein the method comprises: a) contacting a phosphoprotein with a base solution that removes phosphates from threonine and serine residues of the phosphorylated protein to form a protein comprising dehydroalanine or dehydroamino-2-butyric acid; b) contacting the dehydroalanine or dehydroamino-2-butyric acid with a compound that comprises a thiol or amine group and an azide, or terminal alkyne to form an azido or alkyne modified protein; c) contacting the terminal alkyne or azido modified phosphoprotein with a reporter molecule, carrier molecule or solid support that comprises an azido moiety or an alkyne moiety to form a phosphoprotein reporter molecule, carrier molecule or solid support conjugate. a) contacting a phosphoprotein with a base solution that removes phosphates from threonine and serine residues of the phosphorylated protein to form a protein comprising dehydroalanine or dehydroamino-2-butyric acid; b) contacting the dehydroalanine or dehydroamino-2-butyric acid with a compound that comprises a thiol or amine group and an azide, or terminal alkyne to form an azido or alkyne modified protein; c) contacting the terminal alkyne or azido modified phosphoprotein with a reporter molecule, carrier molecule or solid support that comprises an azido moiety or an alkyne moiety to form a phosphoprotein reporter molecule, carrier molecule or solid support conjugate.
A. method comprising: receiving, by a wireless device from a base station, a radio resource control, RRC, release message indicating that a signaling radio bearer, SRB, is configured for a small data transmission, SDT, procedure; and in response to a signal message associated with the SRB being available, transmitting the signal message, while in an RRC idle state or an RRC inactive state, based on a type of the signal message being allowed to use the SDT procedure. receiving, by a wireless device from a base station, a radio resource control, RRC, release message indicating that a signaling radio bearer, SRB, is configured for a small data transmission, SDT, procedure; and in response to a signal message associated with the SRB being available, transmitting the signal message, while in an RRC idle state or an RRC inactive state, based on a type of the signal message being allowed to use the SDT procedure.
A method for repopulating a cache, the cache configured to store data and tags relating to the data, the method comprising: storing at least tags from-the cache in a location separate from the cache, including: creating restore tags, wherein each restore tag includes the respective cache entry's tag contents and it is based on the logical address of the cache entry within the cache, the creating including: using a history list of prior cache accesses to generate the restore tags; and removing duplicate entries of the history list of prior cache accesses; and storing the restore tags in the location separate from the cache; removing power from the cache; restoring power to the cache; reading the restore tags; and repopulating the cache using the restore tags to load data into the cache. storing at least tags from-the cache in a location separate from the cache, including: creating restore tags, wherein each restore tag includes the respective cache entry's tag contents and it is based on the logical address of the cache entry within the cache, the creating including: using a history list of prior cache accesses to generate the restore tags; and removing duplicate entries of the history list of prior cache accesses; and storing the restore tags in the location separate from the cache; removing power from the cache; restoring power to the cache; reading the restore tags; and repopulating the cache using the restore tags to load data into the cache. creating restore tags, wherein each restore tag includes the respective cache entry's tag contents and it is based on the logical address of the cache entry within the cache, the creating including: using a history list of prior cache accesses to generate the restore tags; and removing duplicate entries of the history list of prior cache accesses; and storing the restore tags in the location separate from the cache; removing power from the cache; restoring power to the cache; reading the restore tags; and repopulating the cache using the restore tags to load data into the cache. using a history list of prior cache accesses to generate the restore tags; and removing duplicate entries of the history list of prior cache accesses; and storing the restore tags in the location separate from the cache; removing power from the cache; restoring power to the cache; reading the restore tags; and repopulating the cache using the restore tags to load data into the cache.
A method comprising: receiving, by a wireless user device from a base station, one or more radio resource control, RRC, signals indicating one or more parameters associated with sidelink communication between wireless user devices; receiving, from the base station, sidelink downlink control information, SL DCI, comprising a first indicator field that indicates a sidelink hybrid automatic repeat request, HARQ, feedback timing; based on the SL DCI, transmitting, to one or more second wireless user devices, a plurality of sidelink signals via a first quantity of sidelink channel resources; during a first time interval, receiving, from the one or more second wireless user devices, first sidelink HARQ feedback information responsive to the plurality of sidelink signals; determining, based on the sidelink HARQ feedback timing and based on the first time interval, a second time interval; determining, based on a ratio between a sidelink subcarrier spacing, SCS, configuration and an uplink SCS configuration and based on the first quantity, a sidelink HARQ codebook; and during the second time interval and based on the sidelink HARQ codebook, transmitting, to the base station, an uplink signal indicating the first sidelink HARQ feedback information. receiving, by a wireless user device from a base station, one or more radio resource control, RRC, signals indicating one or more parameters associated with sidelink communication between wireless user devices; receiving, from the base station, sidelink downlink control information, SL DCI, comprising a first indicator field that indicates a sidelink hybrid automatic repeat request, HARQ, feedback timing; based on the SL DCI, transmitting, to one or more second wireless user devices, a plurality of sidelink signals via a first quantity of sidelink channel resources; during a first time interval, receiving, from the one or more second wireless user devices, first sidelink HARQ feedback information responsive to the plurality of sidelink signals; determining, based on the sidelink HARQ feedback timing and based on the first time interval, a second time interval; determining, based on a ratio between a sidelink subcarrier spacing, SCS, configuration and an uplink SCS configuration and based on the first quantity, a sidelink HARQ codebook; and during the second time interval and based on the sidelink HARQ codebook, transmitting, to the base station, an uplink signal indicating the first sidelink HARQ feedback information.
A compound of formula VIII: wherein n = 0 or 1, and when n = 0, then X = S, and ---- is a single bond; or when n = 1, then X = CH, and ---- is a double bond; R 1 = H, F, or OH; R 2 = H, methyl, ethyl, propyl, butyl, benzyl, hydroxyethyl, or an ester of hydroxyethyl; R 3 and R 4 are independently H, methyl, ethyl, propyl, allyl, imidazolinylmethyl, or R 3 and R 4 together with the nitrogen atom to which they are attached form a piperidino, pyrrolidino, azetidino, or aziridino ring; R 5 and R 6 are independently H or methyl; R 7 is H or methyl; R 8 is H, methyl, hydroxyl, or acetyl; and R 9 is H or methyl. n = 0 or 1, and when n = 0, then X = S, and ---- is a single bond; or when n = 1, then X = CH, and ---- is a double bond; R 1 = H, F, or OH; R 2 = H, methyl, ethyl, propyl, butyl, benzyl, hydroxyethyl, or an ester of hydroxyethyl; R 3 and R 4 are independently H, methyl, ethyl, propyl, allyl, imidazolinylmethyl, or R 3 and R 4 together with the nitrogen atom to which they are attached form a piperidino, pyrrolidino, azetidino, or aziridino ring; R 5 and R 6 are independently H or methyl; R 7 is H or methyl; R 8 is H, methyl, hydroxyl, or acetyl; and R 9 is H or methyl.