mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a composite filtering medium comprising a base fabric, of the type with weft and warp of threads or monofilaments of polyether ether ketone (PEEK), characterized in that said method comprises a step of electrospinning for formation of nanofibres of polyimide and a subsequent step of deposition of said nanofibres on said base fabric; said method comprising injection of the material for formation of the nanofibres, dissolved in a mixture of dimethyl acetamide (DMAc) and N-methyl-2-pyrrolidone in excess of NMP solvents, through a nozzle in order to spread it on an electrode, said method comprising application of a difference of potential between said nozzle and an electrode; said nanofibres being formed as a result of evaporation of said solvent or mixture of solvents, due to the electrical field, and stretching of the polymer deposited on the electrode, by means of the nozzle; said nanofibres thus formed being subsequently stretched and deposited on said base fabric, in which, by depositing said nanofibers on said threads of the base fabric and moistening them with said mixture of solvents, said nanofibres form, on the surfaces of contact with said threads, swellings that favour adhesion of the nanofibres on the threads themselves, wherein said nanofibres firmly adhere to said base fabric, without the aid of glues and/or adhesive agents applied on the base fabric and/or on the nanofibre layer, at the said swellings of the threads of said base fabric.
A high-heeled shoe having a sole (6, 7, 8, 9) and a heel (2, 3) of at least 4 cm height provided thereto, wherein: - the heel (2, 3) is provided with a damping device; - the damping device comprises one or more damping elements; - at least a first one of the damping elements is freely deformable in at least one direction perpendicular to the heel's longitudinal axis; - the damping device comprises a transmitting and/or guiding element extending through the at least one first damping element; - the transmitting and/or guiding element is mounted in an upper heel part by means of a piston-cylinder connection so as to be movable in the heel's longitudinal direction; and - wherein the piston-cylinder connection comprises at least one means for noise reduction (147, 151, 151', 151", 152) which reduces the generation of noise generated when the piston moves inside the cylinder; characterized in that - the at least one first damping element has different effective damping cross sections (A 1, A 2) along the heel's longitudinal axis, wherein a ratio of the largest to the smallest cross-sectional surface of the at least one first damping element is at least 1.3; - the heel (2, 3) diameter is no larger than 4 cm in the region of the at least one first damping element; - the transmitting and/or guiding element extends over at least 60% of the heel's height; and - the total volume of the damping elements ranges between 0.5 and 15 cm 3. - the heel (2, 3) is provided with a damping device; - the damping device comprises one or more damping elements; - at least a first one of the damping elements is freely deformable in at least one direction perpendicular to the heel's longitudinal axis; - the damping device comprises a transmitting and/or guiding element extending through the at least one first damping element; - the transmitting and/or guiding element is mounted in an upper heel part by means of a piston-cylinder connection so as to be movable in the heel's longitudinal direction; and - wherein the piston-cylinder connection comprises at least one means for noise reduction (147, 151, 151', 151", 152) which reduces the generation of noise generated when the piston moves inside the cylinder; characterized in that - the at least one first damping element has different effective damping cross sections (A 1, A 2) along the heel's longitudinal axis, wherein a ratio of the largest to the smallest cross-sectional surface of the at least one first damping element is at least 1.3; - the heel (2, 3) diameter is no larger than 4 cm in the region of the at least one first damping element; - the transmitting and/or guiding element extends over at least 60% of the heel's height; and - the total volume of the damping elements ranges between 0.5 and 15 cm 3.
A device for obtaining a wort from a mash in beer brewing or beverage manufacturing; at least comprising: a receiving unit for receiving the mash; at least one separating device, each having a surface; the surface having a multiplicity of openings; the device being preferably configured to separate the mash into the wort and a residual mash by means of the surface of the separating device; wherein the surface or a part thereof can be brought into contact with the mash when the mash is present in the receiving unit for separation into the wort and the residual mash; and wherein the surface is arranged movably or rotatably in relation to the mash, the residual mash and/or the receiving unit during the operation of the device; wherein the device has a first separating device and a second separating device; wherein the first separating device has a first surface; wherein the second separating device has a second surface; characterized in that the first separating device and the second separating device are arranged in the device in such a manner that the largest distance between the first surface of the first separating device and the second surface of the second separating device, measured as a normal distance, is from 3 cm to 50 cm; and the shortest distance measured between the first surface of the first separating device and the second surface of the second separating device, measured as the normal distance, is from 3 cm to 50 cm. a receiving unit for receiving the mash; at least one separating device, each having a surface; the surface having a multiplicity of openings; the device being preferably configured to separate the mash into the wort and a residual mash by means of the surface of the separating device; wherein the surface or a part thereof can be brought into contact with the mash when the mash is present in the receiving unit for separation into the wort and the residual mash; and wherein the surface is arranged movably or rotatably in relation to the mash, the residual mash and/or the receiving unit during the operation of the device; wherein the device has a first separating device and a second separating device; wherein the first separating device has a first surface; wherein the second separating device has a second surface; characterized in that the first separating device and the second separating device are arranged in the device in such a manner that the largest distance between the first surface of the first separating device and the second surface of the second separating device, measured as a normal distance, is from 3 cm to 50 cm; and the shortest distance measured between the first surface of the first separating device and the second surface of the second separating device, measured as the normal distance, is from 3 cm to 50 cm.
A graft polyol comprising: A) a natural oil comprising at least 50% by weight of a natural oil polyol represented by formula; and B) particles dispersed in said natural oil A) and comprising the reaction product of; i) a reactor charge comprising a first macromer polyol and a portion of said natural oil, ii) a polymerizable monomer, iii) a chain transfer agent, and iv) a free radical initiator, and (v) an additional amount of macromer polyol wherein said macromer polyol with said additional amount of macromer polyol and said polymerizable monomer react in the presence of said natural oil. A) a natural oil comprising at least 50% by weight of a natural oil polyol represented by formula; and B) particles dispersed in said natural oil A) and comprising the reaction product of; i) a reactor charge comprising a first macromer polyol and a portion of said natural oil, ii) a polymerizable monomer, iii) a chain transfer agent, and iv) a free radical initiator, and (v) an additional amount of macromer polyol i) a reactor charge comprising a first macromer polyol and a portion of said natural oil, ii) a polymerizable monomer, iii) a chain transfer agent, and iv) a free radical initiator, and (v) an additional amount of macromer polyol
Assembly for growing plants in a closed interior, having - a plurality of growing spaces for receiving one or more plants to be grown and - at least one conditioning device for setting the environmental conditions necessary for the growth of the plants, wherein the conditioning device comprises at least one lighting device, - wherein a plurality of growing spaces is formed in the interior space, which growing spaces are each surrounded by a surrounding wall (13, 15) and are formed on a receiving unit, and - - wherein each growing space is assigned a conditioning device, which comprises a heating and/or cooling device with which a temperature in the growing space can be individually adjusted and regulated, wherein the receiving units are mounted on a transport device with which the receiving units can be transported continuously or in steps through the interior/process space, characterised in that the surrounding wall (13, 15) comprises a flexible membrane material, in particular a film, a textile material, a woven fabric, a knitted fabric or a mesh, wherein the membrane material is preferably gas permeable. - a plurality of growing spaces for receiving one or more plants to be grown and - at least one conditioning device for setting the environmental conditions necessary for the growth of the plants, wherein the conditioning device comprises at least one lighting device, - wherein a plurality of growing spaces is formed in the interior space, which growing spaces are each surrounded by a surrounding wall (13, 15) and are formed on a receiving unit, and - - wherein each growing space is assigned a conditioning device, which comprises a heating and/or cooling device with which a temperature in the growing space can be individually adjusted and regulated, wherein the receiving units are mounted on a transport device with which the receiving units can be transported continuously or in steps through the interior/process space, - - wherein each growing space is assigned a conditioning device, which comprises a heating and/or cooling device with which a temperature in the growing space can be individually adjusted and regulated, wherein the receiving units are mounted on a transport device with which the receiving units can be transported continuously or in steps through the interior/process space,
A symbol synchronizer of a power line OFDM receiver for detecting a preamble symbol of a preamble of a data frame structure and for identifying the beginning of the preamble symbol, the preamble comprising a sequence of a predetermined number of said preamble symbols, each preamble symbol consisting of a predetermined number M of samples, the symbol synchronizer comprising: a moving average filter for receiving samples of input symbols received via a power line and for generating averaged samples forming a sample vector by averaging the samples of a sequence of a predetermined number L of input symbols that are separated from each other by M input samples, the predetermined number L being less than M; a sign element coupled to the moving average filter to obtain signs of the averaged samples of the sample vector to generate a 1-bit sign representation of the sample vector; a correlation estimator coupled to the sign element to compute a correlation between the 1-bit sign representation of the sample vector and a corresponding set of reference samples; and a synchronization detector coupled to the correlation estimator to detect symbol synchronization. a moving average filter for receiving samples of input symbols received via a power line and for generating averaged samples forming a sample vector by averaging the samples of a sequence of a predetermined number L of input symbols that are separated from each other by M input samples, the predetermined number L being less than M; a sign element coupled to the moving average filter to obtain signs of the averaged samples of the sample vector to generate a 1-bit sign representation of the sample vector; a correlation estimator coupled to the sign element to compute a correlation between the 1-bit sign representation of the sample vector and a corresponding set of reference samples; and a synchronization detector coupled to the correlation estimator to detect symbol synchronization.
Method for irradiating a substrate in a process chamber, the method comprising: • transporting the substrate in a transport direction in an irradiation zone in the process chamber, the irradiation zone being limited to an irradiation zone length in the transport direction by a screen structure; the irradiation zone length being less than a substrate length of the substrate in the transport direction; and • a first irradiation of the substrate in the irradiation zone and subsequently a second irradiation of the substrate in the irradiation zone, while the substrate is transported at a transport speed, characterised in that the time interval between the first irradiation and the second irradiation is greater than the quotient of half the irradiation zone length and the transport speed, such that at least one first zone (220a, 220b) of the substrate is irradiated precisely once, and the time interval between the first irradiation and the second irradiation is less than the quotient of the irradiation zone length and the transport speed, such that at least one second zone of the substrate is irradiated precisely twice. • transporting the substrate in a transport direction in an irradiation zone in the process chamber, the irradiation zone being limited to an irradiation zone length in the transport direction by a screen structure; the irradiation zone length being less than a substrate length of the substrate in the transport direction; and • a first irradiation of the substrate in the irradiation zone and subsequently a second irradiation of the substrate in the irradiation zone, while the substrate is transported at a transport speed, characterised in that the time interval between the first irradiation and the second irradiation is greater than the quotient of half the irradiation zone length and the transport speed, such that at least one first zone (220a, 220b) of the substrate is irradiated precisely once, and the time interval between the first irradiation and the second irradiation is less than the quotient of the irradiation zone length and the transport speed, such that at least one second zone of the substrate is irradiated precisely twice.
A method of evaluating a feedstock and forming a lubricant base oil comprising: obtaining an isoparaffin content of a first distillate fraction from a first portion of a feedstock having a boiling range from 343 °C to 593 °C; determining that the isoparaffin content of the first distillate fraction is greater than a threshold level for isoparaffin content, the threshold level for isoparaffin content corresponding to an isoparaffin content of at least 12 wt%; determining that at least one of a naphthene content and an aromatics content of the first distillate fraction is within threshold levels; and solvent dewaxing at least a portion of a second distillate fraction from a second portion of the feedstock having said boiling range from 343 °C to 593 °C to form a lubricant base oil. obtaining an isoparaffin content of a first distillate fraction from a first portion of a feedstock having a boiling range from 343 °C to 593 °C; determining that the isoparaffin content of the first distillate fraction is greater than a threshold level for isoparaffin content, the threshold level for isoparaffin content corresponding to an isoparaffin content of at least 12 wt%; determining that at least one of a naphthene content and an aromatics content of the first distillate fraction is within threshold levels; and solvent dewaxing at least a portion of a second distillate fraction from a second portion of the feedstock having said boiling range from 343 °C to 593 °C to form a lubricant base oil.
A turbine blade for a flow engine with a suction side, a pressure side and a blade trailing edge, the turbine blade having a profile at least in sections that extends over the suction side and the pressure side of the blade trailing edge in the area of the blade trailing edge, the profile having recesses (1a, 1 b) each having two lateral margins which connect to a recess base, characterized in that the width at the recess base is wider than at the opening of the recess (1a, 1b).
Boom with adjustable length comprising at least one outer profile and at least one inner profile, the inner profile being suitable to unite two outer profiles by means of a mechanical fitting and being mechanically coupled to said at least one outer profile, characterized by the at least one outer profile comprising a lower support rail, suitable to fix accessories such as a metallic skirt thereto, and three socket cavities, the first socket cavity being positioned in the inner surface of the outer profile and in an opposite position with regard to the lower support rail, and the second and third socket cavity being positioned in an opposite manner to each other in the inner surface of the outer profile and positioned at a 90 degree angle with regard to the first socket cavity and the lower support rail, and the at least one inner profile, being compatible with the at least one outer profile and comprising a lower projection socket, and three socket rectangles, the first socket rectangle being positioned in the outer surface of the inner profile and in an opposite position with regard to the lower projection socket, and the second and third socket rectangle being positioned in an opposite manner to each other in the outer surface of the inner profile and positioned at a 90 degree angle with regard to the first socket rectangle and the lower projection socket, wherein the at least one outer profile and the at least one inner profile are coupled by means of the mechanical union between the three socket cavities and the three socket rectangles, and between the lower support rail and the lower projection socket. the at least one outer profile comprising a lower support rail, suitable to fix accessories such as a metallic skirt thereto, and three socket cavities, the first socket cavity being positioned in the inner surface of the outer profile and in an opposite position with regard to the lower support rail, and the second and third socket cavity being positioned in an opposite manner to each other in the inner surface of the outer profile and positioned at a 90 degree angle with regard to the first socket cavity and the lower support rail, and a lower support rail, suitable to fix accessories such as a metallic skirt thereto, and three socket cavities, the first socket cavity being positioned in the inner surface of the outer profile and in an opposite position with regard to the lower support rail, and the second and third socket cavity being positioned in an opposite manner to each other in the inner surface of the outer profile and positioned at a 90 degree angle with regard to the first socket cavity and the lower support rail, and the at least one inner profile, being compatible with the at least one outer profile and comprising a lower projection socket, and
A method for controlling the operation of a device, wherein the method comprising: receiving a control signal sent by a control device, wherein a data structure of the control signal comprises as components a preamble, a header, a payload length and a data packet in sequence, the preamble comprises an operating frequency, and the data packet comprises a control command; the data lengths of the components remain the same and the length of the data structure remains unchanged; reading information from the control signal according to an arrangement timing of the control signal; when the preamble is read, adjusting an operating frequency of the receiving device according to the operating frequency included the preamble; when the header is read, reading data encoded after the header to obtain the payload length, adjusting a sampling duration according to the payload length, and sampling the data packet according to the sampling duration; and executing the sampled control command according to the adjusted operating frequency; wherein the payload length is the length of the valid data in the data packet, and the length of the valid data being variable. receiving a control signal sent by a control device, wherein a data structure of the control signal comprises as components a preamble, a header, a payload length and a data packet in sequence, the preamble comprises an operating frequency, and the data packet comprises a control command; the data lengths of the components remain the same and the length of the data structure remains unchanged; reading information from the control signal according to an arrangement timing of the control signal; when the preamble is read, adjusting an operating frequency of the receiving device according to the operating frequency included the preamble; when the header is read, reading data encoded after the header to obtain the payload length, adjusting a sampling duration according to the payload length, and sampling the data packet according to the sampling duration; and executing the sampled control command according to the adjusted operating frequency; wherein the payload length is the length of the valid data in the data packet, and the length of the valid data being variable.