mhurhangee/ep-ind-claims huggingface dataset:
Method for processing an organic oil in steps, said method comprising the steps: A providing a raw oil; B degumming the raw oil by adding water and/or acid to the raw oil and forming at least two phases, an aqueous phase and an oil phase, and separating the phospholipid-enriched aqueous phase from the oil phase; the acid addition being the addition of a dilute acid or the addition of a concentrated acid in conjunction with a subsequent addition of water; C adding sodium hydrogen carbonate as a solution, as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and/or adding sodium acetate as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and removing alkaline earth metal compounds and/or phospholipids and/or steryl glycosides, in solution or suspension in an aqueous phase, from the oil phase, wherein following step C, in a step D, D a saponification of free fatty acids is carried out with the addition of an alkaline agent to the oil phase from step C, and said saponified fatty acids are removed from the oil phase, the saponified fatty acid comprising less than 3 wt% organic impurities, the alkaline agent being an inorganic alkali metal hydroxide solution. A providing a raw oil; B degumming the raw oil by adding water and/or acid to the raw oil and forming at least two phases, an aqueous phase and an oil phase, and separating the phospholipid-enriched aqueous phase from the oil phase; the acid addition being the addition of a dilute acid or the addition of a concentrated acid in conjunction with a subsequent addition of water; C adding sodium hydrogen carbonate as a solution, as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and/or adding sodium acetate as a powder, in which case water is added prior to or following the addition of the powder, or as a suspension to the oil phase from step B, and removing alkaline earth metal compounds and/or phospholipids and/or steryl glycosides, in solution or suspension in an aqueous phase, from the oil phase, wherein following step C, in a step D, D a saponification of free fatty acids is carried out with the addition of an alkaline agent to the oil phase from step C, and said saponified fatty acids are removed from the oil phase, the saponified fatty acid comprising less than 3 wt% organic impurities, the alkaline agent being an inorganic alkali metal hydroxide solution.
A household system for managing an Internet access connection wherein at least one computer can access the Internet via a main household connection, characterized in that the system comprises means able to detect a failed connection to the Internet on said main household connection and to control an automatic switch-over to an auxiliary connection comprising a driver package of a system for real-time measurement and modulation of the electricity consumption of a plurality of electrical apparatuses, said driver package being suitable for accessing the Internet via a wireless telephone packet-type connection.
A method for removing soil from a surface using a clean in place process comprising applying to the surface a composition comprising: (i) an activator complex; (ii) a source of alkalinity; and (iii) an active oxygen source; wherein the composition is applied to the surface at a temperature of between 5°C and 50°C, wherein the activator complex comprises a transition metal complex, wherein the transition metal complex comprises a source of manganese ions, wherein the source of manganese ions is complexed with a gluconate composition. (i) an activator complex; (ii) a source of alkalinity; and (iii) an active oxygen source;
A molded article of a fiber-reinforced resin containing at least a bundled aggregate of discontinuous reinforcing fibers and a matrix resin, wherein the average layer thickness h in said molded article of the fiber-reinforced resin is 100 μm or less, and a CV value of said average layer thickness h is 40% or less, wherein the bundled aggregates are obtained by cutting a partially-separated fiber bundle, prepared by forming separation treatment sections separated into a plurality of bundles and non-separation treatment sections alternately along a lengthwise direction of a fiber bundle comprising a plurality of single fibers, at an angle θ (0°<θ<90°) with respect to the lengthwise direction of the fiber bundle so that a cutting plane extends over the separation treatment section and the non-separation treatment section, and wherein the average layer thickness h in the molded article of the fiber-reinforced resin is determined by burning off the matrix resin of the molded article of the fiber-reinforced resin, selecting 20 points in the in-plane direction of the burnt off fiber-reinforced resin, measuring the number of layers n1 of bundled aggregate of discontinuous reinforcing fibers remaining in the thickness direction of each point, and determining as an average value of the values obtained by dividing the original fiber-reinforced resin thickness by n1.
An antiviral composition comprising oleandrin for use in the treatment of a viral infection caused by a virus of the Filoviridae family selected from Ebolavirus (EBOV) and Marburgvirus (MARV), in a subject in need thereof by administering one or more doses of said antiviral composition on a daily, weekly or monthly basis a) prophylactically before viral infection; b) after viral infection; or c) a combination of a) and b). a) prophylactically before viral infection; b) after viral infection; or c) a combination of a) and b).
A Siegbahn vacuum exhaust mechanism, comprising: a housing (2, 3) in which an inlet port and an outlet port are formed; a rotating shaft contained in the housing (2, 3) and supported rotatably; a rotating body part that has a rotating disc-shaped portion disposed on the rotating shaft or an outer peripheral surface of a cylindrical body disposed around the rotating shaft; a stator disc-shaped portion that is disposed concentrically with the rotating disc-shaped portion and is opposite to the rotating disc-shaped portion in an axial direction with a space therebetween; and a spacer portion that is formed separately from the stator disc-shaped portion, or integrally with the stator disc-shaped portion in order to fix the stator disc-shaped portion, the Siegbahn vacuum exhaust mechanism transferring a gas suctioned from a side of the inlet port to a side of the outlet port by an interaction between the rotating disc-shaped portion and the stator disc-shaped portion, wherein a spiral-shaped groove with a ridge portion and a root portion is provided in the stator disc-shaped portion, the spiral-shaped groove being engraved between an inner side and an outer side of the stator disc-shaped portion, and characterised in that the rotating disc-shaped portion has, in at least a part of an outer peripheral portion thereof, a groove portion for connecting a surface of the rotating disc-shaped portion on the side of the inlet port with a surface of the same on the side of the outlet port. a housing (2, 3) in which an inlet port and an outlet port are formed; a rotating shaft contained in the housing (2, 3) and supported rotatably; a rotating body part that has a rotating disc-shaped portion disposed on the rotating shaft or an outer peripheral surface of a cylindrical body disposed around the rotating shaft; the rotating shaft or an outer peripheral surface of a cylindrical body disposed around the rotating shaft; a stator disc-shaped portion that is disposed concentrically with the rotating disc-shaped portion and is opposite to the rotating disc-shaped portion in an axial direction with a space therebetween; and a spacer portion that is formed separately from the stator disc-shaped portion, or integrally with the stator disc-shaped portion in order to fix the stator disc-shaped portion, the Siegbahn vacuum exhaust mechanism transferring a gas suctioned from a side of the inlet port to a side of the outlet port by an interaction between the rotating disc-shaped portion and the stator disc-shaped portion, wherein a spiral-shaped groove with a ridge portion and a root portion is provided in the stator disc-shaped portion, the spiral-shaped groove being engraved between an inner side and an outer side of the stator disc-shaped portion, and characterised in that the rotating disc-shaped portion has, in at least a part of an outer peripheral portion thereof, a groove portion for connecting a surface of the rotating disc-shaped portion on the side of the inlet port with a surface of the same on the side of the outlet port.
A parallel-plate non-uniform electric field ion mobility spectrometer including a pair of parallel plate electrodes (11, 12) and a main voltage generator configured for applying an asymmetric pulse voltage to the plate electrodes (11, 12) so as to create a non-uniform electric field within an ion separation space between the plate electrodes (11, 12), for separating ions according to mobility by introducing ions derived from a sample component into the ion separation space while a flow of buffer gas is passed through the ion separation space at a constant flow velocity in a same direction as a direction in which the ions are introduced, and by controlling a movement of the ions by an effect of the non-uniform electric field while the ions are carried by the flow of buffer gas, the ion mobility spectrometer comprising: a) at least two electric-field correction electrodes (16, 17) located within the ion separation space sandwiched between the plate electrodes (11, 12), the electric-field correction electrodes (16, 17) shaped like rods extending in a same direction as a passing direction of the ions and facing each other across an area where the ions pass through; and b) an electric-field correction voltage generator configured for applying, to the electric-field correction electrodes (16, 17), a voltage obtained by adding a predetermined DC voltage and a pulse voltage synchronized with the asymmetric pulse voltage. a) at least two electric-field correction electrodes (16, 17) located within the ion separation space sandwiched between the plate electrodes (11, 12), the electric-field correction electrodes (16, 17) shaped like rods extending in a same direction as a passing direction of the ions and facing each other across an area where the ions pass through; and b) an electric-field correction voltage generator configured for applying, to the electric-field correction electrodes (16, 17), a voltage obtained by adding a predetermined DC voltage and a pulse voltage synchronized with the asymmetric pulse voltage.
A downhole jarring apparatus for use in jarring an object in a bore, comprising: a first jarring portion including a first impact surface; a second jarring portion including a second impact surface; characterised by: a rotatable jarring arrangement comprising a pressurising apparatus operable by a rotational drive movement to cause relative axial movement of the first and second impact surfaces (258, 260) to establish axial impact therebetween; wherein the pressurising apparatus provides fluid communication of an actuating fluid between first and second fluid reservoirs (274, 276), for use in facilitating impact between the first and second impact surfaces (258, 260). a first jarring portion including a first impact surface; a second jarring portion including a second impact surface; a rotatable jarring arrangement comprising a pressurising apparatus operable by a rotational drive movement to cause relative axial movement of the first and second impact surfaces (258, 260) to establish axial impact therebetween; wherein the pressurising apparatus provides fluid communication of an actuating fluid between first and second fluid reservoirs (274, 276), for use in facilitating impact between the first and second impact surfaces (258, 260).
A repeater (115, 125, 610) comprising: a rare-Earth doped fiber amplifier (211, 611) that amplifies an optical signal and operates at least partially in the gain saturation regime; a doped fiber amplifier optical pump (221, 621) configured to supply optical pump power to the rare-Earth doped fiber amplifier (211, 611); a Raman pump (222, 622) configured to provide Raman amplification to the optical signal in which the Raman gain of the optical signal has a tilt of at least 1 dB, wherein the tilt of the Raman gain of the optical signal is the maximum Raman gain experienced by any optical channels of the optical signal minus the minimum Raman gain experienced by any of the optical channels of the optical signal; a gain flattening filter (616, 716A) at some point or multiple points in the optical signal path and configured to flatten gain of the optical signal; a tilt sensor (223, 718A) configured to detect tilt of the optical signal downstream of the rare-Earth doped fiber amplifier (211, 611) in the optical path, wherein the tilt of the optical signal detected by the tilt sensor (223, 718A) is the maximum signal gain of any of the optical channels minus the minimum gain of any of the optical channels; and a tilt adjustment mechanism configured to permit adjusting of the tilt detected at the tilt sensor to within 1 dB gain by controlling a power of at least one of the optical pump powers supplied by the doped fiber amplifier optical pump (221, 621) and the Raman pump (222, 622) that influences tilt measured by the tilt sensor (223, 718A) a rare-Earth doped fiber amplifier (211, 611) that amplifies an optical signal and operates at least partially in the gain saturation regime; a doped fiber amplifier optical pump (221, 621) configured to supply optical pump power to the rare-Earth doped fiber amplifier (211, 611); a Raman pump (222, 622) configured to provide Raman amplification to the optical signal in which the Raman gain of the optical signal has a tilt of at least 1 dB, wherein the tilt of the Raman gain of the optical signal is the maximum Raman gain experienced by any optical channels of the optical signal minus the minimum Raman gain experienced by any of the optical channels of the optical signal; a gain flattening filter (616, 716A) at some point or multiple points in the optical signal path and configured to flatten gain of the optical signal; a tilt sensor (223, 718A) configured to detect tilt of the optical signal downstream of the rare-Earth doped fiber amplifier (211, 611) in the optical path, wherein the tilt of the optical signal detected by the tilt sensor (223, 718A) is the maximum signal gain of any of the optical channels minus the minimum gain of any of the optical channels; and a tilt adjustment mechanism configured to permit adjusting of the tilt detected at the tilt sensor to within 1 dB gain by controlling a power of at least one of the optical pump powers supplied by the doped fiber amplifier optical pump (221, 621) and the Raman pump (222, 622) that influences tilt measured by the tilt sensor (223, 718A)
A method for scheduling uplink, UL, transmission in a wireless communication system, the method comprising: receiving (S100, S200), by a User Equipment, UE, a backoff configuration in a random access response from a network, wherein the backoff configuration includes a backoff parameter for delaying a transmission of a scheduling request, SR; determining (S110, S220), by the UE, whether or not to apply the received backoff parameter before transmitting the SR to the network via a dedicated channel; if it is determined (S110, S220) that the received backoff parameter is applied, transmitting, by the UE, the SR to the network via the dedicated channel after delaying the transmission of the SR according to the received backoff parameter; and receiving, by the UE, an uplink grant from the network, wherein the backoff parameter is configured for a logical channel in order to delay the transmission of the SR for the logical channel, wherein the received backoff parameter relates to a value for a SR prohibit timer, and wherein the value for the SR prohibit timer is used to indicate a time for delaying the transmission of the SR in a unit of subframe, and wherein, if the backoff parameter has a larger value than a threshold value, the UE applies a backoff with the threshold value, and if the backoff parameter has a smaller value than the threshold value, the UE applies the backoff with the value of the backoff parameter. receiving (S100, S200), by a User Equipment, UE, a backoff configuration in a random access response from a network, wherein the backoff configuration includes a backoff parameter for delaying a transmission of a scheduling request, SR; determining (S110, S220), by the UE, whether or not to apply the received backoff parameter before transmitting the SR to the network via a dedicated channel; if it is determined (S110, S220) that the received backoff parameter is applied, transmitting, by the UE, the SR to the network via the dedicated channel after delaying the transmission of the SR according to the received backoff parameter; and receiving, by the UE, an uplink grant from the network, wherein the backoff parameter is configured for a logical channel in order to delay the transmission of the SR for the logical channel, wherein the received backoff parameter relates to a value for a SR prohibit timer, and wherein the value for the SR prohibit timer is used to indicate a time for delaying the transmission of the SR in a unit of subframe, and wherein, if the backoff parameter has a larger value than a threshold value, the UE applies a backoff with the threshold value, and if the backoff parameter has a smaller value than the threshold value, the UE applies the backoff with the value of the backoff parameter.
A self-charging assembly for a hydro-mechanical device, the self-charging assembly including a first gas chamber configured to hold a compressible gas; a second gas chamber disposed within the first gas chamber, the second gas chamber configured to hold a compressible gas; a first flow passage connecting an interior portion of the second gas chamber with an atmosphere outside of the self-charging assembly, the first flow passage having a first valve assembly configured for selectively blocking flow through the first flow passage; and a second flow passage (62, 64) connecting an interior portion of the first gas chamber with the interior portion of the second gas chamber, the second flow passage (62, 64) having a second valve assembly configured for selectively blocking flow through the second flow passage (62, 64); wherein the first valve assembly is configured to allow flow through the first flow passage when an air pressure within the second gas chamber is below an air pressure of the atmosphere outside of the self-charging assembly; and wherein the first valve assembly is configured to block flow through the first flow passage when the air pressure within the second gas chamber is equal or greater than the air pressure in the atmosphere outside of the self-charging assembly; and wherein the second valve assembly comprises an inflow valve configured to allow flow through the second flow passage when an air pressure within the first gas chamber is below an air pressure of the second gas chamber; and wherein the inflow valve is configured to block flow through the second flow passage when the air pressure within the first gas chamber is greater than the air pressure in the second gas chamber; characterised in that the second valve assembly further comprises an outflow valve to allow flow through the second flow passage when an air pressure within the first gas chamber is greater than or equal to a threshold pressure; and in that the outflow valve is configured to block flow through the second flow passage when the air pressure within the first gas chamber is less than the threshold pressure.
Tabletop kitchen appliance comprising a base, the kitchen appliance comprising a housing which comprises an extension or housing portion which projects downwards when installed in the usual manner and rests by means of a (first) soft part on a base part which forms a base surface, characterised in that the base part is made of a rubber-like soft material, in that the soft part, which is directly connected to the base part, is made of a foam, for example PUR foam, and in that a thickness of the soft part measured in the direction of a gravitational force absorbed by the base corresponds to two or more, up to twenty, times the thickness (m) of the base part.
A lighting apparatus with illuminated sign-board, comprising a bracket, a lighting unit and an illuminated identification unit, said lighting apparatus further comprising a power distribution unit comprising at least one input end and at least two output ends, wherein the input end is configured to be electrically connected to a power supply module, a first output end of the at least two output ends is electrically connected to the lighting unit, and a second output end of the at least two output ends is electrically connected to the illuminated identification unit, wherein the illuminated identification unit comprises: a positive conductive track provided on the bracket; a negative conductive track provided on the bracket; and an illuminated sign-board provided on the positive conductive track and the negative conductive track and electrically connected thereto; characterized in that the power distribution unit comprises: a mounting base disposed on the bracket and located on one side of the positive conductive track and the negative conductive track; and a power distribution main board disposed on the mounting base and provided with the input end, the first output end and the second output end. a power distribution unit comprising at least one input end and at least two output ends, wherein the input end is configured to be electrically connected to a power supply module, a first output end of the at least two output ends is electrically connected to the lighting unit, and a second output end of the at least two output ends is electrically connected to the illuminated identification unit, wherein the illuminated identification unit comprises: a positive conductive track provided on the bracket; a negative conductive track provided on the bracket; and an illuminated sign-board provided on the positive conductive track and the negative conductive track and electrically connected thereto; a positive conductive track provided on the bracket; a negative conductive track provided on the bracket; and an illuminated sign-board provided on the positive conductive track and the negative conductive track and electrically connected thereto; a mounting base disposed on the bracket and located on one side of the positive conductive track and the negative conductive track; and a power distribution main board disposed on the mounting base and provided with the input end, the first output end and the second output end.