mhurhangee/ep-ind-claims huggingface dataset:
An air cooler for working spaces with an air cooler housing which includes at least one inlet for the room air to be cooled and at least one outlet for the cooled room air and is equipped with at least one ventilator as suction blower in the region of the room air inlet, which conveys the room air to be cooled through a heat exchanger present in the air cooler housing and out of the housing, wherein the at least one room air outlet is located on a side face of the housing, wherein the upper side of the air cooler housing is closed for the room air entry into the housing and the room air to be cooled can be sucked in through at least one inlet present in the side wall of the air cooler housing, wherein the inlet air stream and the outlet air stream are arranged horizontally or almost horizontally and offset to each other by about 90°, characterized in that at least two ventilators are arranged in walls positioned obliquely to the housing middle axis, which taper the suction cross-section of the housing behind the room air inlet, that the walls are arranged on both sides of a middle partition wall dividing the housing in two, and that the division of the housing effects a symmetrical arrangement of at least two ventilators with respect to the middle axis such that on both sides of the middle partition wall at least one ventilator is arranged.
A decorative sheet comprising: a releasing layer, a pressure-sensitive adhesive layer disposed on a surface of the releasing layer, and a skin layer, having a resin, disposed on a surface of the pressure-sensitive adhesive layer, wherein the releasing layer includes a shape-holding layer, having a resin, characterized in that both the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the shape-holding layer and the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the skin layer are 0/1000 to 9/1000, and both the softening start temperature, measured in conformity with JIS K 7196, of the resin of the shape-holding layer and the softening start temperature, measured in conformity with JIS K 7196, of the resin of the skin layer are 60 °C or more and 120 °C or less, wherein the shape-holding layer includes an acrylonitrile butadiene styrene copolymer, wherein the skin layer includes polyvinyl chloride. a releasing layer, a pressure-sensitive adhesive layer disposed on a surface of the releasing layer, and a skin layer, having a resin, disposed on a surface of the pressure-sensitive adhesive layer, wherein the releasing layer includes a shape-holding layer, having a resin, characterized in that both the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the shape-holding layer and the shrinkage ratio, measured in conformity with JIS K 7152, of the resin of the skin layer are 0/1000 to 9/1000, and both the softening start temperature, measured in conformity with JIS K 7196, of the resin of the shape-holding layer and the softening start temperature, measured in conformity with JIS K 7196, of the resin of the skin layer are 60 °C or more and 120 °C or less, wherein the shape-holding layer includes an acrylonitrile butadiene styrene copolymer, wherein the skin layer includes polyvinyl chloride.
A process for preparing a composition comprising a compound of formula I and a compound of formula II, comprising steps of: (a) dissolving the crude compound of formula I in an aqueous solution of an organic solvent (i); (b) precipitating solids from the solution by cooling and / or adding an organic solvent (ii) to obtain a suspension containing the compound of formula I; obtaining composition A containing the compound of formula I and the compound of formula II by centrifugation or filtration; wherein in step (a), the organic solvent (i) is selected from one or more of methanol, ethanol, n-propanol, isopropanol, isobutanol, n-butanol, and acetone; in step (b), the organic solvent (ii) is selected from one or more of C 3-7 ester, hexane, n-heptane, n-pentane, and dichloromethane; (a) dissolving the crude compound of formula I in an aqueous solution of an organic solvent (i); (b) precipitating solids from the solution by cooling and / or adding an organic solvent (ii) to obtain a suspension containing the compound of formula I; obtaining composition A containing the compound of formula I and the compound of formula II by centrifugation or filtration;
A method for generating heat to heat an object comprising: providing a heatable food processing article comprising composite material that increases in temperature upon exposure to electromagnetic radiation, the composite material consisting of single crystal silicon carbide whiskers, fibrils, or a blend thereof, in a matrix material that is microwave-transparent; exposing the composite material to electromagnetic radiation to heat it wherein the electromagnetic radiation is microwave energy; and irradiating heat from the heated composite material; wherein an object to be heated, which is food, is not exposed to the electromagnetic radiation and is heated by heat transferred from the composite material after the composite material is heated by electromagnetic radiation, and wherein the heat is transferred from the heated composite material by conduction, convection, or re-radiation of infrared radiation. providing a heatable food processing article comprising composite material that increases in temperature upon exposure to electromagnetic radiation, the composite material consisting of single crystal silicon carbide whiskers, fibrils, or a blend thereof, in a matrix material that is microwave-transparent; exposing the composite material to electromagnetic radiation to heat it wherein the electromagnetic radiation is microwave energy; and irradiating heat from the heated composite material; wherein an object to be heated, which is food, is not exposed to the electromagnetic radiation and is heated by heat transferred from the composite material after the composite material is heated by electromagnetic radiation, and wherein the heat is transferred from the heated composite material by conduction, convection, or re-radiation of infrared radiation.
A method for controlling a clutch, in situations where the driver requests enough propulsive force to keep the vehicle stationary, which clutch pertains to a vehicle and is operated by a vehicle control system, where said vehicle is provided with an engine and said driver of said vehicle requests said propulsive force from said engine, characterised by the steps of, when said first propulsive force requested by said driver is transmitted via said clutch - determining whether said clutch slips when transmitting said first propulsive force, and - when said clutch slips during said transmission of said first propulsive force, increasing the propulsive force transmitted by said clutch, said increase in the propulsive force transmitted by means of said clutch being controlled so that the increase per unit time changes on the basis of a representation of the propulsive force transmitted by said clutch. - determining whether said clutch slips when transmitting said first propulsive force, and - when said clutch slips during said transmission of said first propulsive force, increasing the propulsive force transmitted by said clutch, said increase in the propulsive force transmitted by means of said clutch being controlled so that the increase per unit time changes on the basis of a representation of the propulsive force transmitted by said clutch.
A downhole system, comprising: one or more tools configured to accomplish a respective activity; two or more controllers configured to issue corresponding two or more commands to the one or more tools to control each of the tools, the downhole system characterized in that: each of the one or more tools has a conflict manager, implemented by a processor (9, 12), and the respective conflict manager is configured to resolve a conflict between the two or more commands based on a priority control strategy that includes processing a priority command among the two or more commands based on the priority command indicating a higher priority relative to other commands among the two or more commands. one or more tools configured to accomplish a respective activity; two or more controllers configured to issue corresponding two or more commands to the one or more tools to control each of the tools, the downhole system characterized in that: each of the one or more tools has a conflict manager, implemented by a processor (9, 12), and the respective conflict manager is configured to resolve a conflict between the two or more commands based on a priority control strategy that includes processing a priority command among the two or more commands based on the priority command indicating a higher priority relative to other commands among the two or more commands. each of the one or more tools has a conflict manager, implemented by a processor (9, 12), and the respective conflict manager is configured to resolve a conflict between the two or more commands based on a priority control strategy that includes processing a priority command among the two or more commands based on the priority command indicating a higher priority relative to other commands among the two or more commands.
A turbine engine shaft, comprising: a first sub-shaft comprising a radial inner first threaded shaft surface that extends along an axis, and a first bearing surface that extends radially inward towards the first threaded shaft surface; a second sub-shaft comprising a radial inner second threaded shaft surface that extends along the axis, and a second bearing surface that extends radially inward towards the second threaded shaft surface, the second bearing surface axially engaging the first bearing surface; and a tie shaft comprising an intermediate tie shaft segment connected axially between a first tie shaft segment and a second tie shaft segment, the first tie shaft segment comprising a radial outer first threaded tie shaft surface mated with the first threaded shaft surface, and the second tie shaft segment comprising a radial outer threaded second tie shaft surface mated with the second threaded shaft surface; characterised in that: the turbine engine shaft further comprises a sub-shaft bumper stop extending radially from the intermediate tie shaft segment to a bumper stop distal end that comprises a radius that is greater than a radius (54, 74) of at least one of the first threaded shaft surface and the second threaded shaft surface. a first sub-shaft comprising a radial inner first threaded shaft surface that extends along an axis, and a first bearing surface that extends radially inward towards the first threaded shaft surface; a second sub-shaft comprising a radial inner second threaded shaft surface that extends along the axis, and a second bearing surface that extends radially inward towards the second threaded shaft surface, the second bearing surface axially engaging the first bearing surface; and a tie shaft comprising an intermediate tie shaft segment connected axially between a first tie shaft segment and a second tie shaft segment, the first tie shaft segment comprising a radial outer first threaded tie shaft surface mated with the first threaded shaft surface, and the second tie shaft segment comprising a radial outer threaded second tie shaft surface mated with the second threaded shaft surface; characterised in that: the turbine engine shaft further comprises a sub-shaft bumper stop extending radially from the intermediate tie shaft segment to a bumper stop distal end that comprises a radius that is greater than a radius (54, 74) of at least one of the first threaded shaft surface and the second threaded shaft surface.
Apparatus for closing a blood vessel including: an elongate electrode element for being passed endoluminally to a treatment site and having at least one electrical terminal at a distal end thereof; a power supply for supplying energy to the electrode element; a detection unit for detecting at least one operational change at the at least one electrical terminal, wherein detecting the at least one operational change includes determining whether temperature and/or impedance has reached a first threshold; a control unit connected to the power supply and to the detection unit; wherein the control unit is operable to control the power supply to supply energy to the electrode element at a first power level to cause a primary blood coagulation, to detect the at least one operational change at the at least one electrical terminal and to control the power supply to supply energy to the electrode element at a second power level lower than the first power level to cause a secondary blood coagulation once the operational change has been detected; wherein the control unit is operable to command a partial retraction of the electrode element in a proximal direction on detection of the operational change. an elongate electrode element for being passed endoluminally to a treatment site and having at least one electrical terminal at a distal end thereof; a power supply for supplying energy to the electrode element; a detection unit for detecting at least one operational change at the at least one electrical terminal, wherein detecting the at least one operational change includes determining whether temperature and/or impedance has reached a first threshold; a control unit connected to the power supply and to the detection unit; wherein the control unit is operable to control the power supply to supply energy to the electrode element at a first power level to cause a primary blood coagulation, to detect the at least one operational change at the at least one electrical terminal and to control the power supply to supply energy to the electrode element at a second power level lower than the first power level to cause a secondary blood coagulation once the operational change has been detected; wherein the control unit is operable to command a partial retraction of the electrode element in a proximal direction on detection of the operational change.
A method of modifying the surface shape of a wind turbine rotor blade, in which a shape modifying element is cast on the surface of the wind turbine rotor blade, characterised in that the shape modifying element is cast by use of a mould (3, 19) set on the surface of the wind turbine rotor blade, where the mould (3, 19) comprises an inner mould surface the shape of which is defined according to the result of subtracting the unmodified surface shape from the desired modified surface shape.
A pharmaceutical composition which comprises (a) a compound represented by the following formula,,, or (VIII) or a pharmaceutically acceptable salt thereof and (b) an opioid: wherein R 7 represents methyl, ethyl, propyl, butyl, or 3-methylbutyl, or any of these groups substituted with hydroxy; R 8 represents phenyl, pyridyl, pyrimidinyl, or 5,6-dihydro-2H-pyridylmethyl, or any of these groups substituted with 1 to 3 substituents selected from a chlorine atom, methyl, ethyl, methoxy, and ethoxy; R 9 represents pyridyl or tetrahydropyranyl; and R 12 represents methyl, ethyl, propyl, or butyl.
A fabric conditioning composition comprising; a. 0.5 to 20 wt. % of a fabric softening active, which is a quaternary ammonium compound; b. 0.01 to 2 wt % Cationic polysaccharide; c. 0.01 to 2 wt % Non-ionic polysaccharide; d. A plurality of anionic microcapsules encapsulating a benefit agent; e. 0.001 to 0.5 wt % Cross linked, water swellable cationic co-polymer of at least one cationic monomer and optionally other non-ionic and/or anionic monomers; and f. Water. a. 0.5 to 20 wt. % of a fabric softening active, which is a quaternary ammonium compound; b. 0.01 to 2 wt % Cationic polysaccharide; c. 0.01 to 2 wt % Non-ionic polysaccharide; d. A plurality of anionic microcapsules encapsulating a benefit agent; e. 0.001 to 0.5 wt % Cross linked, water swellable cationic co-polymer of at least one cationic monomer and optionally other non-ionic and/or anionic monomers; and f. Water.
A catheter drainage assembly comprising: a first tube connected to an inlet port of a fluid flow control valve; and, a second tube connected to an outlet port of said fluid flow control valve; wherein the fluid flow control valve comprises a housing having the inlet and outlet ports; and a displaceable obstructer located in the fluid passage between the inlet and outlet ports of the housing, wherein the obstructer comprises an opening, and the obstructer is displaceable in the housing between a first position wherein the opening is not placed in the fluid passage between the inlet and outlet ports, to a second position wherein the opening is placed in the fluid passage between the inlet and outlet ports and wherein the opening comprises a single flow path through the obstructer between opposing sides of the obstructer, wherein the housing comprises a base and wherein there is a single inlet port only and a single outlet port only, wherein the inlet and outlet ports are located on opposing sides of the fluid flow control valve; characterised in that the inlet and outlet ports are located at a staggered distance from the base of the housing, with the inlet port being located further from the base of the housing than the outlet port. a first tube connected to an inlet port of a fluid flow control valve; and, a second tube connected to an outlet port of said fluid flow control valve; wherein the fluid flow control valve comprises a housing having the inlet and outlet ports; and a displaceable obstructer located in the fluid passage between the inlet and outlet ports of the housing, wherein the obstructer comprises an opening, and the obstructer is displaceable in the housing between a first position wherein the opening is not placed in the fluid passage between the inlet and outlet ports, to a second position wherein the opening is placed in the fluid passage between the inlet and outlet ports and wherein the opening comprises a single flow path through the obstructer between opposing sides of the obstructer, wherein the housing comprises a base and wherein there is a single inlet port only and a single outlet port only, wherein the inlet and outlet ports are located on opposing sides of the fluid flow control valve; characterised in that the inlet and outlet ports are located at a staggered distance from the base of the housing, with the inlet port being located further from the base of the housing than the outlet port.
A sheetlike composite comprising a layer configuration with at least the following layers: i. a first layer of thermoplastic KSu; ii. a carrier layer, wherein the carrier layer is paper or cardboard; iii. a barrier layer, wherein the barrier layer is chosen from a. a barrier layer of plastic, wherein the plastic is selected from the group consisting of polyamide, polyethylene/vinyl alcohol (EVOH) and a mixture thereof; b. a metal layer, c. a metal oxide layer, or d. a combination of at least two of a. to c.; iv. a second layer of thermoplastic KSw; wherein the layers i. to iv. occur in the sequence shown; wherein the sheetlike composite has at least one further layer of thermoplastic KSv; wherein the melting temperature of the first layer of thermoplastic KSu is in a range from 100 to 150 °C; wherein the first layer of thermoplastic KSu has a weight per unit area of at least 8 g/m 2; wherein the second layer of thermoplastic KSw is an outermost layer of thermoplastic of the sheetlike composite; wherein the Vicat softening temperature of the layer of thermoplastic KSu is higher than the Vicat softening temperature of the layer of thermoplastic KSw; wherein each Vicat softening temperature is measured according to ISO 306:2004, method VST-A50 (load = 10 N, increase in temperature = 50 K/h) using an oil heating bath; wherein the melting temperature is determined with the aid of the DSC method: ISO 11357-1, -5 and wherein, if the sample is based on a mixture of several plastics and the determination of the melting temperature by the abovementioned method gives several peak temperatures T p, the highest of the peak temperatures T p,m which is to be assigned to a plastic of the plastics mixture is defined as the melting temperature. i. a first layer of thermoplastic KSu; ii. a carrier layer, wherein the carrier layer is paper or cardboard; iii. a barrier layer, wherein the barrier layer is chosen from a. a barrier layer of plastic, wherein the plastic is selected from the group consisting of polyamide, polyethylene/vinyl alcohol (EVOH) and a mixture thereof; b. a metal layer, c. a metal oxide layer, or d. a combination of at least two of a. to c.; a. a barrier layer of plastic, wherein the plastic is selected from the group consisting of polyamide, polyethylene/vinyl alcohol (EVOH) and a mixture thereof; b. a metal layer, c. a metal oxide layer, or d. a combination of at least two of a. to c.; iv. a second layer of thermoplastic KSw;
A method for packet retransmission between a first terminal and a second terminal in a TCP network having a plurality of wireless links, each of said terminals supporting TCP retransmission using a variable size window, said method comprising: establishing, at the first terminal, a window size increment value to increment a window size of said variable size window; transmitting, by the first terminal, one or more packets to the second terminal over one of the plurality of wireless links; increasing said window size by said window size increment value in response to receiving one or more acknowledgements indicating successful reception of one or more of the transmitted packets; characterised by changing said window size increment value in response to one or more notifications of congestion and said one or more received acknowledgements, wherein said changing step comprises increasing said window size increment value by multiplying said window size increment value by a multiplication factor in response to said one or more received acknowledgements. establishing, at the first terminal, a window size increment value to increment a window size of said variable size window; transmitting, by the first terminal, one or more packets to the second terminal over one of the plurality of wireless links; increasing said window size by said window size increment value in response to receiving one or more acknowledgements indicating successful reception of one or more of the transmitted packets; characterised by changing said window size increment value in response to one or more notifications of congestion and said one or more received acknowledgements, wherein said changing step comprises increasing said window size increment value by multiplying said window size increment value by a multiplication factor in response to said one or more received acknowledgements.
An electric ducted fan for an aircraft; comprising: a nacelle defining a duct; a propulsive fan in the duct having a fan diameter D F an electric machine configured to drive the fan, the electric machine having an electromagnetically active length L A comprising the length of the torque-generating magnetic circuit of the machine, and an electromagnetically active diameter D A comprising the diameter of the torque-generating magnetic circuit of the machine defining an aspect ratio (L A /D A) of from 0.8 to 2; and wherein a ratio of the electromagnetically active diameter D A to the fan diameter D F (D A /D F) is from 0.45 to 0.60. a nacelle defining a duct; a propulsive fan in the duct having a fan diameter D F an electric machine configured to drive the fan, the electric machine having an electromagnetically active length L A comprising the length of the torque-generating magnetic circuit of the machine, and an electromagnetically active diameter D A comprising the diameter of the torque-generating magnetic circuit of the machine defining an aspect ratio (L A /D A) of from 0.8 to 2; and wherein a ratio of the electromagnetically active diameter D A to the fan diameter D F (D A /D F) is from 0.45 to 0.60.
A compound of the formula I: wherein R is linear C 4 -C 16 alkyl; R 1, R 2, and R 3 are each H; R 4 is CH 2 SO 3 - M + or CH 2 OH; R 5 is SO 3 - M +; R 6 is H; and M + is H + or a monovalent or divalent cation.