mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a water-absorbent resin, comprising: a cleaning step of cleaning an inside of a heat exchanger that is connected to a vessel holding an aqueous gel-like polymer as a precursor of the water-absorbent resin and is configured to cool a gas containing the polymer produced in the vessel, wherein the heat exchanger includes: a plurality of pipes that have elongated paths through which the gas passes, and in which the gas is cooled due to heat dissipation during passage through the paths; a chamber that is arranged above the plurality of pipes and is in communication with openings at upper ends of the plurality of pipes; and a cleaner that sprays a cleaning liquid in the chamber, and the cleaning step includes at least cleaning an inside of the chamber by spraying the cleaning liquid from the cleaner in the chamber. a cleaning step of cleaning an inside of a heat exchanger that is connected to a vessel holding an aqueous gel-like polymer as a precursor of the water-absorbent resin and is configured to cool a gas containing the polymer produced in the vessel, wherein the heat exchanger includes: a plurality of pipes that have elongated paths through which the gas passes, and in which the gas is cooled due to heat dissipation during passage through the paths; a chamber that is arranged above the plurality of pipes and is in communication with openings at upper ends of the plurality of pipes; and a cleaner that sprays a cleaning liquid in the chamber, and a plurality of pipes that have elongated paths through which the gas passes, and in which the gas is cooled due to heat dissipation during passage through the paths; a chamber that is arranged above the plurality of pipes and is in communication with openings at upper ends of the plurality of pipes; and a cleaner that sprays a cleaning liquid in the chamber, and the cleaning step includes at least cleaning an inside of the chamber by spraying the cleaning liquid from the cleaner in the chamber.
An apparatus for cutting food product, the apparatus comprising a rotatable cutting wheel, wherein the food product advances towards the cutting wheel in a feed direction, the cutting wheel having a hub, a rim and at least a first knife assembly and an adjacent knife assembly, each knife assembly comprising a knife and means of securing the knife to the cutting wheel, each knife having a leading edge facing a direction of rotation of the cutting wheel and extending generally radially from the hub to the rim, each knife assembly having a trailing edge with respect to the direction of rotation, a cutting edge on the leading edge of the knife of the first knife assembly and a second edge on the trailing edge of the adjacent knife assembly forming a juncture, the juncture extending substantially parallel to and spaced in the food product feed direction from the cutting edge of the first knife assembly so as to form an opening between the cutting edge of the first knife assembly and the second edge of the adjacent knife assembly, the opening determining a thickness of the sliced food product engaging the knife while the cutting wheel is rotated about a central axis to advance the cutting edge in a cutting plane, the knife having a corrugated shape to produce a food product slice with generally parallel cuts, wherein the food product slice has a periodic shape, each leading edge of the knives corresponding to the second edge of the adjacent knife assembly to define a sufficiently low rake-off angle to reduce through-slice cracking of the food product, characterized in that in use the cross-section of the food product slice has a large amplitude of 2.5 to 9 millimeters and wherein the rake-off angle for the knife is less than 23 degrees.
A histone deacetylase inhibitor in combination with an oncolytic rhabdovirus that expresses a tumour antigen for use in a method of boosting an immune response to the tumour antigen in a mammal, wherein the histone deacetylase inhibitor is selected from the group consisting of hydroxamic acids, benzamides, cyclic tetrapeptides, depsipeptides, electrophilic ketones, and aliphatic acid compounds.
A backlight assembly comprising: a plurality of a light source generating and emitting light; and a diffusion plate (60; 160) comprising: an incident surface on which the light is incident, an exit surface which is opposite the incident surface and from which the light exits, and a first group of a first lens pattern and a second group of a second lens pattern, both of which are disposed on the exit surface, and each of the first lens patterns having a different shape from the second lens patterns, wherein at least one of the first lens pattern and the second lens pattern comprises a curved portion (165; 167) which forms a curve and a linear portion (166; 168) extending from each of opposing ends of the curved portion (165; 167), respectively characterized in that when a distance between the light sources and the diffusion plate (60; 160) is D, and when a pitch between every two neighboring ones of the light sources is P. 0.3 < D/(P/2) < 0.5, wherein the distance D is taken substantially perpendicular to the incident surface of the diffusion plate (60; 160) and the pitch P is taken substantially perpendicular to a longitudinal direction of the diffusion plate (60; 160). a plurality of a light source generating and emitting light; and a diffusion plate (60; 160) comprising: an incident surface on which the light is incident, an exit surface which is opposite the incident surface and from which the light exits, and a first group of a first lens pattern and a second group of a second lens pattern, both of which are disposed on the exit surface, and each of the first lens patterns having a different shape from the second lens patterns, an incident surface on which the light is incident, an exit surface which is opposite the incident surface and from which the light exits, and a first group of a first lens pattern and a second group of a second lens pattern, both of which are disposed on the exit surface, and each of the first lens patterns having a different shape from the second lens patterns, wherein at least one of the first lens pattern and the second lens pattern comprises a curved portion (165; 167) which forms a curve and a linear portion (166; 168) extending from each of opposing ends of the curved portion (165; 167), respectively characterized in that when a distance between the light sources and the diffusion plate (60; 160) is D, and when a pitch between every two neighboring ones of the light sources is P. 0.3 < D/(P/2) < 0.5, wherein the distance D is taken substantially perpendicular to the incident surface of the diffusion plate (60; 160) and the pitch P is taken substantially perpendicular to a longitudinal direction of the diffusion plate (60; 160).
A method for session management, wherein a terminal device has established a packet data network, PDN, connection in a 4 th generation, 4G, network, and characterized in that, after the terminal device moves from the 4G network to a 5 th generation, 5G, network, the method comprises: receiving, by the terminal device, first indication information from a first network device, wherein the first indication information is used for indicating whether a protocol data unit, PDU, session corresponding to the PDN connection supports multi-access, MA, and if the PDU session supports the MA, the terminal device is able to implement the PDU session with a 3rd generation partnership project, 3GPP, network and a non-3GPP network simultaneously.
A guide rail for a vertical awning to be mounted in a building opening of a building, having lateral forced guidance of an awning cloth along a longitudinal direction of the guide rail, a guide groove profile having a rear wall and a first and a second leg (310, 340) projecting from the rear wall, wherein a first projection protrudes from the first leg and a second projection protrudes from the second leg, so that between the rear wall, the first leg, the second leg, the first projection and the second projection a guide groove is defined which has an opening formed between the first projection and the second projection, so that the first projection and the second projection form respective abutments (325, 355) for a drop bar, and wherein a first undercut is provided on the first projection and a second undercut on the second projection, wherein the undercuts (330, 360) are formed to hold in a form-fitting manner a cloth guide insert, which can be accommodated in a guide groove, against a force acting in a pulling direction transversely to the opening and to the longitudinal direction to the outside, wherein the guide groove profile is integrally formed, and wherein the guide rail further comprises a support profile that can be attached to a wall reveal or on a window frame, with which support profile the guide groove profile is detachably connected in an assembled state, characterized in that the support profile has a first sliding surface and the guide groove profile has a second sliding surface, wherein the first sliding surface and the second sliding surface abut each other parallel to one another in the assembled state, and wherein the guide groove profile, with sliding of the second sliding surface on the first sliding surface, is displaceable between a loose state, in which the guide groove profile is removable from the support profile in the pulling direction, into the mounted state.
A liquid circulation device for a machine tool, comprising: a tank (21, 21A, 21B) which has an introduction portion (22a, 22aB) and a lead-out portion (25A, 25B) of a liquid, and in which a liquid circulated between the machine tool and the tank (21, 21A, 21B) is stored; and a heat exchanger disposed in the tank (21, 21A, 21B), wherein the tank (21, 21A, 21B) has a throttle portion, in which a cross-sectional area of a liquid passage between the introduction portion (22a, 22aB) and the lead-out portion (25A, 25B) is reduced, and a first storage portion (213A, 261, 263) on the introduction portion (22a, 22aB) side from the throttle portion, characterized in that at least a portion of the heat exchanger is disposed in the throttle portion. a tank (21, 21A, 21B) which has an introduction portion (22a, 22aB) and a lead-out portion (25A, 25B) of a liquid, and in which a liquid circulated between the machine tool and the tank (21, 21A, 21B) is stored; and a heat exchanger disposed in the tank (21, 21A, 21B), wherein the tank (21, 21A, 21B) has a throttle portion, in which a cross-sectional area of a liquid passage between the introduction portion (22a, 22aB) and the lead-out portion (25A, 25B) is reduced, and a first storage portion (213A, 261, 263) on the introduction portion (22a, 22aB) side from the throttle portion, characterized in that at least a portion of the heat exchanger is disposed in the throttle portion.
A method for uplink power control by a Node B for use in a Frequency Division Multiple Access communication system comprising: measuring, by the Node B, a system performance metric; receiving, by the Node B from each Node B of one or more other Node Bs, a system performance metric measurement; determining, by the Node B, an adaptive power control parameter based on the system performance metric measured by the Node B and the system performance metrics received from the other Node Bs of the one or more other Node Bs; wherein the adaptive power control parameter is used to determine an uplink transmit power level for one or more users equipment served by the Node B; and wherein receiving, by the Node B from each Node B of one or more other Node Bs, system performance metric measurement comprises receiving a broadcast of the system performance metric measurement from each Node B of one or more other Node Bs via a backhaul. measuring, by the Node B, a system performance metric; receiving, by the Node B from each Node B of one or more other Node Bs, a system performance metric measurement; determining, by the Node B, an adaptive power control parameter based on the system performance metric measured by the Node B and the system performance metrics received from the other Node Bs of the one or more other Node Bs; wherein the adaptive power control parameter is used to determine an uplink transmit power level for one or more users equipment served by the Node B; and wherein receiving, by the Node B from each Node B of one or more other Node Bs, system performance metric measurement comprises receiving a broadcast of the system performance metric measurement from each Node B of one or more other Node Bs via a backhaul.
A photovoltaic plant (1") including a plurality of photovoltaic modules arranged in arrays spaced with respect to each other, and wherein the photovoltaic modules of each array have a first assigned inclination (α 1) with respect to a reference direction, wherein: associated to each array of photovoltaic modules is an array of mobile reflection devices (RF") set adjacent thereto, and wherein at least one array of mobile reflection devices (RF";) is located in a space between successive arrays of photovoltaic modules; the mobile reflection devices (RF";) of each array have a second inclination (α 2,) with respect to a reference direction; the arrays of photovoltaic modules and the arrays (4; 4') of mobile reflection devices (RF";) associated to one another include respective front surfaces (12, 14; 14") set facing one another, the mobile reflection devices (RF") of each array are orientable by variation of said second inclination (α 2) in order to intercept the incident solar radiation and reflect the latter towards the photovoltaic modules of the associated array, each array of mobile reflection devices includes a plurality of mirrors (RF") installed on a frame articulated (22, XRF; 22', XRF') with respect to a supporting structure (20; 20') that anchors and fixes the array to the ground, and characterised in that said plurality of mirrors include convex mirrors (RF"). associated to each array of photovoltaic modules is an array of mobile reflection devices (RF") set adjacent thereto, and wherein at least one array of mobile reflection devices (RF";) is located in a space between successive arrays of photovoltaic modules; the mobile reflection devices (RF";) of each array have a second inclination (α 2,) with respect to a reference direction; the arrays of photovoltaic modules and the arrays (4; 4') of mobile reflection devices (RF";) associated to one another include respective front surfaces (12, 14; 14") set facing one another, the mobile reflection devices (RF") of each array are orientable by variation of said second inclination (α 2) in order to intercept the incident solar radiation and reflect the latter towards the photovoltaic modules of the associated array, each array of mobile reflection devices includes a plurality of mirrors (RF") installed on a frame articulated (22, XRF; 22', XRF') with respect to a supporting structure (20; 20') that anchors and fixes the array to the ground, and characterised in that said plurality of mirrors include convex mirrors (RF").
A combustion system comprising: a combustion device that burns fuel; an exhaust line through which exhaust gas flows, the exhaust gas being generated through combustion of the fuel in the combustion device; a dust collector that is disposed in the exhaust line and that collects dust in the exhaust gas; and a denitration device that is disposed in the exhaust line and that removes nitrogen oxide from the exhaust gas using a denitration catalyst, wherein the denitration device is disposed downstream from the dust collector in the exhaust line, characterized in that the denitration catalyst contains 43 wt% or more of vanadium pentoxide and has a BET specific surface area of 30 m 2 /g or more. a combustion device that burns fuel; an exhaust line through which exhaust gas flows, the exhaust gas being generated through combustion of the fuel in the combustion device; a dust collector that is disposed in the exhaust line and that collects dust in the exhaust gas; and a denitration device that is disposed in the exhaust line and that removes nitrogen oxide from the exhaust gas using a denitration catalyst, wherein the denitration device is disposed downstream from the dust collector in the exhaust line,
An image capturing system which includes a camera having a sampling frequency and being operable to capture a series of images to form a video of a cyclically moving object which cycles at a cycling frequency, the sampling and cycling frequencies (102a, 150a) not being related, wherein the sampling frequency is fixed and wherein the image capturing system includes: a sensor operable to detect the cycling frequency of the cyclically moving object and to generate a frequency reading indicative of the detected cycling frequency; a control module communicably coupled to the sensor and operable to receive from the sensor the frequency reading; reflective indicia provided on the cyclically moving object, the indicia being at least more reflective than a remainder of the cyclically moving object; and a light emitter operable to emit pulses of light at a controllable emission frequency, the light emitter being communicatively coupled to the control module which is operable to control the emission frequency of the light emitter based on the frequency reading, wherein the emission frequency is one of: i) matched to the detected cycling frequency, ii) a function of the detected cycling frequency, the function being a multiple, harmonic, or overtone, or iii) matched to the detected cycling frequency with user-defined offset, thereby to influence the temporal aliasing of the indicia provided on the cyclically moving object as captured in the video. a sensor operable to detect the cycling frequency of the cyclically moving object and to generate a frequency reading indicative of the detected cycling frequency; a control module communicably coupled to the sensor and operable to receive from the sensor the frequency reading; reflective indicia provided on the cyclically moving object, the indicia being at least more reflective than a remainder of the cyclically moving object; and a light emitter operable to emit pulses of light at a controllable emission frequency, the light emitter being communicatively coupled to the control module which is operable to control the emission frequency of the light emitter based on the frequency reading, wherein the emission frequency is one of: i) matched to the detected cycling frequency, ii) a function of the detected cycling frequency, the function being a multiple, harmonic, or overtone, or iii) matched to the detected cycling frequency with user-defined offset, thereby to influence the temporal aliasing of the indicia provided on the cyclically moving object as captured in the video.
A method of continuously harvesting, chopping and parameter measuring for silage plants from several plots (100-102, 200-202), comprising at least two successive plots designated A and B with plot A being harvested before plot B, comprising: (a) harvesting and chopping plants from a plot, collecting all or part of the crop of the plot in a waiting bin, (b) transferring this crop from the waiting bin to a measuring bin, (c) determining at least one silage parameter, during the stay of this crop in the measuring bin, and (d) withdrawing crop from measuring bin, wherein step (a) for plot B occurs during step (c) for plot A, and step (b) for plot B is performed after steps (c) and (d) for plot A, and wherein the operations of crop withdrawal from measuring bin (d) and crop transfer from waiting bin to measuring bin (b) are all automatically controlled by processing means at the end of measuring step (c). (a) harvesting and chopping plants from a plot, collecting all or part of the crop of the plot in a waiting bin, (b) transferring this crop from the waiting bin to a measuring bin, (c) determining at least one silage parameter, during the stay of this crop in the measuring bin, and (d) withdrawing crop from measuring bin,
A stable composition comprising: (a) nanoparticles of 1-(3,5-dimethoxyphenyl)-4-[(6-fluoro-2-methoxyquinoxalin-3-yl)aminocarbonyl]piperazine or pharmaceutically acceptable salts thereof; and (b) at least one surface stabilizer comprising a block copolymer of polyethylene oxide and polypropylene oxide, wherein the nanoparticles have an effective median particle size of less than about 1,000 nm. (a) nanoparticles of 1-(3,5-dimethoxyphenyl)-4-[(6-fluoro-2-methoxyquinoxalin-3-yl)aminocarbonyl]piperazine or pharmaceutically acceptable salts thereof; and (b) at least one surface stabilizer comprising a block copolymer of polyethylene oxide and polypropylene oxide, wherein the nanoparticles have an effective median particle size of less than about 1,000 nm.
A method for controlling fluid flow in a wellbore containing a plurality of flow devices (204a-n) at various depths within the wellbore, comprising: operating the plurality of flow devices (204a-n) at a first setting of each flow device in the plurality of flow devices; and the method characterised in: receiving an operator input indicating a desired flow rate at a well depth; using a model to determine a second setting for at least one of the plurality of devices (204a-n) to provide the desired flow rate at the well depth; generating a script corresponding to the second setting, wherein the script is configured to be implemented without modification; storing the script in a suitable storage medium; and transmitting the script to a controller for implementing the script. operating the plurality of flow devices (204a-n) at a first setting of each flow device in the plurality of flow devices; and the method characterised in: receiving an operator input indicating a desired flow rate at a well depth; using a model to determine a second setting for at least one of the plurality of devices (204a-n) to provide the desired flow rate at the well depth; generating a script corresponding to the second setting, wherein the script is configured to be implemented without modification; storing the script in a suitable storage medium; and transmitting the script to a controller for implementing the script. receiving an operator input indicating a desired flow rate at a well depth; using a model to determine a second setting for at least one of the plurality of devices (204a-n) to provide the desired flow rate at the well depth; generating a script corresponding to the second setting, wherein the script is configured to be implemented without modification; storing the script in a suitable storage medium; and transmitting the script to a controller for implementing the script.