mhurhangee/ep-ind-claims huggingface dataset:
A process for purifying renewable feedstock comprising fatty acids, wherein said process comprises the steps, where the renewable feedstock comprising fatty acids comprises at least one acid oil and at least another renewable feedstock, and said renewable feedstock comprising fatty acids is treated with an aqueous medium, at the temperature from 140 to 195°C, under a pressure from 0.1 to 70 bar (abs), and where the ratio of the renewable feedstock comprising fatty acids to the aqueous medium is from 1:5 to 5:1, respectively, to obtain a mixture, and a first stream comprising water and a second stream comprising fatty acids are separated from said mixture, and the second stream is obtained as purified renewable feedstock, and wherein the renewable feedstock comprising fatty acids comprises 20-95 wt% of acid oil or mixtures of acid oils.
An outflow valve exhaust nozzle for an aircraft pressurization system, wherein the nozzle is configured to exhaust pressurized air that is discharged through an outflow valve into the nozzle to an ambient external pressure environment, the nozzle comprising: an upstream solid wall section configured to be attached to a discharge end of the outflow valve; and a downstream solid exhaust wall section fixed to the upstream solid wall section, the downstream solid exhaust wall section including a circumferential portion which includes a series of air intake perforations configured to allow unpressurized air from the ambient external pressure environment to be introduced into a boundary layer of discharged pressurized air in the interior of the downstream solid exhaust wall section. an upstream solid wall section configured to be attached to a discharge end of the outflow valve; and a downstream solid exhaust wall section fixed to the upstream solid wall section, the downstream solid exhaust wall section including a circumferential portion which includes a series of air intake perforations configured to allow unpressurized air from the ambient external pressure environment to be introduced into a boundary layer of discharged pressurized air in the interior of the downstream solid exhaust wall section.
A method of making a coated article including a multilayer thin film low-emissivity, low-E, coating supported by a glass substrate, the method comprising: forming (S304, S306, S308) the low-E coating on the substrate, the low-E coating including at least first and second infrared, IR, reflecting layers comprising silver (104a, 104b), each of the first and second IR reflecting layers (104a, 104b) being sandwiched between one or more dielectric layers (106,108, 110,112,114, 116, 118, 120), the first IR reflecting layer being farther from the substrate than the second IR reflecting layer; and activating (S310; S402; S602, S604) each of the IR reflecting layers (104a, 104b) using a two-stage treatment, the first stage in the treatment preconditioning the IR reflecting layers (104a, 104b) via flash light source exposure in at least first and second wavelength ranges, the first wavelength range preferentially transmitting energy to the first IR reflecting layer and the second wavelength range preferentially transmitting energy to the second IR reflecting layer, and the second stage in the treatment being a thermal treatment that is performed after all of the IR reflecting layers (104a, 104b) have been deposited, directly or indirectly, on the substrate, the second stage following the first stage. forming (S304, S306, S308) the low-E coating on the substrate, the low-E coating including at least first and second infrared, IR, reflecting layers comprising silver (104a, 104b), each of the first and second IR reflecting layers (104a, 104b) being sandwiched between one or more dielectric layers (106,108, 110,112,114, 116, 118, 120), the first IR reflecting layer being farther from the substrate than the second IR reflecting layer; and activating (S310; S402; S602, S604) each of the IR reflecting layers (104a, 104b) using a two-stage treatment, the first stage in the treatment preconditioning the IR reflecting layers (104a, 104b) via flash light source exposure in at least first and second wavelength ranges, the first wavelength range preferentially transmitting energy to the first IR reflecting layer and the second wavelength range preferentially transmitting energy to the second IR reflecting layer, and the second stage in the treatment being a thermal treatment that is performed after all of the IR reflecting layers (104a, 104b) have been deposited, directly or indirectly, on the substrate, the second stage following the first stage.
Separating composite for detachable holding of an adhesive web comprising a first cover layer and a second cover layer and a core layer made of a fibre material laminated between the two cover layers (1, 2), wherein at least the first cover layer has an outer coating made of separating material and wherein the core layer has a weight per unit area of at most 150 g/m2, characterized in that the cover layers (1, 2) each consist of an oriented polymer film.
An apparatus comprising: a video encoder including an adaptive filter with offset, using multiple histogram bin segmentation methods, said filter to separately adaptively filter pixel values in a first bin, the filter offset including a first offset adapted to said first bin, and said filter to set the first offset based on a sum of differences between filtered values output from the adaptive filter and original input pixel values input to the adaptive filter divided by the number of pixels in the first histogram bin, said filter to separately adaptively filter pixel values in a second bin, the filter offset including a second offset adapted to said second bin, and said filter to set the second offset based on a sum of differences between filtered values output from the adaptive filter and original input pixel values input to the adaptive filter divided by the number of pixels in the second histogram bin; and a video decoder. a video encoder including an adaptive filter with offset, using multiple histogram bin segmentation methods, said filter to separately adaptively filter pixel values in a first bin, the filter offset including a first offset adapted to said first bin, and said filter to set the first offset based on a sum of differences between filtered values output from the adaptive filter and original input pixel values input to the adaptive filter divided by the number of pixels in the first histogram bin, said filter to separately adaptively filter pixel values in a second bin, the filter offset including a second offset adapted to said second bin, and said filter to set the second offset based on a sum of differences between filtered values output from the adaptive filter and original input pixel values input to the adaptive filter divided by the number of pixels in the second histogram bin; and a video decoder.
An output stage for adapting an alternating voltage signal of an ultrasound generator to a converter which can be connected to the output stage, wherein the output stage has two input terminals (1, 2) for receiving the alternating voltage produced by the ultrasound generator and two output terminals (3, 4) for outputting an adapted alternating voltage, as well as an output transformer with a primary coil (Nr) with a number n 1 of turns and a secondary coil (Ns) with a number n 2 of turns, wherein the output transformer has a main inductance L H as well as a leakage inductance L σ, wherein the two input terminals (1, 2) are connected to one another via the primary coil (N P) and the two output terminals (3, 4) are connected to one another via the secondary coil (N S), wherein a filter capacitor C P is provided which either connects the two output terminals (3, 4) to the secondary coil (Ns) in parallel or connects one output terminal (3, 4) to a tap of the secondary coil (Ns) or is connected to a filter coil with n 3 turns which is inductively coupled to the primary and the secondary coil (N P, N S), characterized in that a device is provided for measuring the differential current I Δ of the current I E flowing via the input terminals (1, 2) and the current I C through the filter capacitor C P.
A method for generating traffic information for at least one vehicle, said information including at least one position, for a route on a geographical map, which route is determined by at least two positions, characterised in that the method comprises at least the following steps: - comparing a currently used position table with at least one further position table; - determining deviations in the entries of the position tables at positions along the route; and - when there is a deviation, using the position of the deviating entry in one of the position tables as a reference point for the traffic information which is to be generated. - comparing a currently used position table with at least one further position table; - determining deviations in the entries of the position tables at positions along the route; and - when there is a deviation, using the position of the deviating entry in one of the position tables as a reference point for the traffic information which is to be generated.
A sustained release composition comprising a material to be released embedded in a matrix, the matrix comprising an ionically crosslinked polymer and having at least a first and a second section with distinct mechanical strength; wherein the ionically crosslinked polymer is ionically crosslinked alginate, the alginate having more guluronic acid residues than mannuronic acid residues.
Locking device for a drive unit for actuating a switching device of a switchgear assembly, which drive unit has a spindle drive for actuating the switching device and a gear mechanism, which is coupled or can be coupled to said spindle drive, and can be driven by a drive motor or a manual operating device, and, after a defined number of partial revolutions of a drive shaft, connected to the gear mechanism, of the spindle arrangement, locks the switching device such that the switching device is brought into a of the predefined position or switch position and indicates this by means of provided position-indicating modules, wherein the number of partial revolutions for locking the switching device is either larger or smaller than a complete revolution of the drive shaft and, if the defined number of revolutions is not reached, the position or switch position is not indicated at the position-indicating module, characterized in that the gear mechanism has two toothed gears (130, 140), which are engaged with one another, according to a defined gear ratio and each of the toothed gears (130, 140) is connected to in each case two latching disks (131, 141; 133, 143), wherein the latching disks (131, 141, 133, 143) in each case have at least one engagement point (132, 142, 134, 144) for engaging with an engagement part (211, 212, 221, 222) of a locking element (210, 220).
Rotor for an electrical machine, comprising - a plurality of permanent magnets which are arranged on the outer surface of the rotor in axially disposed permanent magnet rows, - a first locking plate, which is arranged at one end face of the rotor, and a second locking plate, which is arranged at the other end face of the rotor, - wherein the permanent magnet rows can be fixed in an axial direction by means of the two locking plates (4, 5), and - wherein a bandage is wound around the rotor such that the permanent magnets can be fixed to the outer surface of the rotor by means of the bandage, characterised in that - at least two of the permanent magnet rows are so arranged as to be mutually offset in an axial direction, and - the first locking plate and the second locking plate each feature a surface which rests on the respective axial ends of the permanent magnet rows. - a plurality of permanent magnets which are arranged on the outer surface of the rotor in axially disposed permanent magnet rows, - a first locking plate, which is arranged at one end face of the rotor, and a second locking plate, which is arranged at the other end face of the rotor, - wherein the permanent magnet rows can be fixed in an axial direction by means of the two locking plates (4, 5), and - wherein a bandage is wound around the rotor such that the permanent magnets can be fixed to the outer surface of the rotor by means of the bandage, characterised in that - at least two of the permanent magnet rows are so arranged as to be mutually offset in an axial direction, and - the first locking plate and the second locking plate each feature a surface which rests on the respective axial ends of the permanent magnet rows.
Method for controlling vehicle functions, in particular of a motor vehicle, at least some vehicle functions being set in a first operating and display region, the first operating and display region being at least partly touch-sensitive, at least one second operating and display region being arranged in the edge region of the first operating and display region, the second operating and display region being at least partly touch-sensitive and at least some vehicle functions being set in the second operating and display region, characterized in that the second operating and display region is angled from the first operating and display region, the first operating and display region not being in the same plane as the second operating and display region.
A fluorine-containing alcohol composite comprising a condensate of a fluorine-containing alcohol represented by the general formula: HO-A-R F -A-OH, wherein R F is a group containing a perfluoroalkylene group or a polyfluoroalkylene group having 6 or less carbon atoms, and an ether bond, and A is an alkylene group having 1 to 3 carbon atoms, a hydroxyl group-containing polymer, and a zirconium compound.
A method of emitting a volatile material from a volatile material dispenser (50, 250, 350), the method comprising the steps of: providing a volatile material dispenser (50, 250, 350) having a housing and a heater disposed within the housing, wherein the heater includes a resistor having a particular power rating; programming the volatile material dispenser (50, 250, 350) to include at least two intensity levels, wherein upon initiation of each of the intensity levels for an operating cycle, the resistor is operated at a first percentage of its power rating for a first period of time and upon selection of a first of the at least two intensity levels and after the first period of time, operating the resistor at a second percentage of its power rating for a remainder of an operating cycle; and upon selection of a second of the at least two intensity levels and after the first period of time, operating the resistor at the second percentage of its power rating for a second period of time and, after the second period of time, operating the resistor at a third percentage of its power rating for a remainder of an operating cycle; wherein the first percentage is greater than the second percentage and the second percentage is greater than the third percentage. providing a volatile material dispenser (50, 250, 350) having a housing and a heater disposed within the housing, wherein the heater includes a resistor having a particular power rating; programming the volatile material dispenser (50, 250, 350) to include at least two intensity levels, wherein upon initiation of each of the intensity levels for an operating cycle, the resistor is operated at a first percentage of its power rating for a first period of time and upon selection of a first of the at least two intensity levels and after the first period of time, operating the resistor at a second percentage of its power rating for a remainder of an operating cycle; and upon selection of a second of the at least two intensity levels and after the first period of time, operating the resistor at the second percentage of its power rating for a second period of time and, after the second period of time, operating the resistor at a third percentage of its power rating for a remainder of an operating cycle; wherein the first percentage is greater than the second percentage and the second percentage is greater than the third percentage.
Process for the production of allyl alcohol comprising the steps: (a) feeding a starting material into a fixed-bed continuous flow reactor over a heterogeneous trimetallic aluminosilicate zeolite catalyst comprising varying amounts of Cs-Fe-Mo, Li-Fe-Mo, Na-Fe-Mo, K-Fe-Mo or Rb-Fe-Mo, wherein these metals can be present as mixed oxides, mixed nitrate salts, mixed fluoride, chloride, bromide or iodide salts, mixed sulfate salts, mixed phosphate salts, mixed carbonate salts or mixed oxalate salts, (b) heating said mixture at a temperature ranging from 250 to 450 °C to obtain allyl alcohol, (c) flowing N 2 as a carrier gas with total gas hourly space velocity 100-2000 h -1, (d) collecting the AAL product, wherein the starting material is glycerol solution. (a) feeding a starting material into a fixed-bed continuous flow reactor over a heterogeneous trimetallic aluminosilicate zeolite catalyst comprising varying amounts of Cs-Fe-Mo, Li-Fe-Mo, Na-Fe-Mo, K-Fe-Mo or Rb-Fe-Mo, wherein these metals can be present as mixed oxides, mixed nitrate salts, mixed fluoride, chloride, bromide or iodide salts, mixed sulfate salts, mixed phosphate salts, mixed carbonate salts or mixed oxalate salts, (b) heating said mixture at a temperature ranging from 250 to 450 °C to obtain allyl alcohol, (c) flowing N 2 as a carrier gas with total gas hourly space velocity 100-2000 h -1, (d) collecting the AAL product,
A token comprising: a low power receiver to receive, from a nearby short-range terminal, a ping comprising information indicating a timestamp; a wake-up logic to wake up the token in response to receiving the ping; a transceiver to transmit a connection request to the short-range terminal, wherein the connection request includes the received information indicating the timestamp such that the short-range terminal may identify whether the connection request has been sent within a preset time period; and an identity verifier to perform biometric authentication of a user based on biometric data received from the short-range terminal, by comparing the received biometric data to a biometric template of the user stored in a secure memory on the token, such that the authentication is performed without requiring a user to physically touch the token. a low power receiver to receive, from a nearby short-range terminal, a ping comprising information indicating a timestamp; a wake-up logic to wake up the token in response to receiving the ping; a transceiver to transmit a connection request to the short-range terminal, wherein the connection request includes the received information indicating the timestamp such that the short-range terminal may identify whether the connection request has been sent within a preset time period; and an identity verifier to perform biometric authentication of a user based on biometric data received from the short-range terminal, by comparing the received biometric data to a biometric template of the user stored in a secure memory on the token, such that the authentication is performed without requiring a user to physically touch the token.
A method for transfer of application data between a first node and a second node via a wireless communication network, the method performed by the first node and comprising: receiving from the second node application-layer control signaling that indicates an extent to which the second node will be available in terms of time duration for a prospective transfer of application data to or from the second node and an indication of an associated estimated average throughput of the prospective transfer, and determining, based on the extent of availability of the second node and the associated estimated average throughput indicated by the received application-layer control signaling, whether to proceed with the prospective transfer of application data, and when to proceed with the prospective transfer of application data, if it is determined to proceed with the prospective transfer. receiving from the second node application-layer control signaling that indicates an extent to which the second node will be available in terms of time duration for a prospective transfer of application data to or from the second node and an indication of an associated estimated average throughput of the prospective transfer, and determining, based on the extent of availability of the second node and the associated estimated average throughput indicated by the received application-layer control signaling, whether to proceed with the prospective transfer of application data, and when to proceed with the prospective transfer of application data, if it is determined to proceed with the prospective transfer.
A molding apparatus comprising: upper and lower mold halves, at least one of the upper and lower mold halves having a molding cavity, a seal cavity and at least one movable mold portion formed therein; and a dynamic seal comprising a base portion, an intermediate seal portion, a straight arm portion and a flexible arm portion, wherein the seal comprises an elbow connecting the flexible arm to the intermediate seal portion, the flexible arm portion being capable of moving in an arc of at least 10°, each arm portion extending from the intermediate seal portion, the base portion being positioned within at least a portion of the seal cavity; wherein when a sheet of a substrate material is placed between the upper and lower mold halves, at least a portion of the periphery of the sheet is within the molding cavity proximate the dynamic seal, such that the straight arm portion is in sealing contact with a major surface of the sheet, and the flexible arm is proximate at least a portion of the peripheral edge of the sheet of substrate material, said flexible arm being capable of movement due to the presence of the elbow allowing the flexible arm to move into and out of sealing contact with at least a portion of the peripheral edge of the sheet of substrate material, and whereby closing the upper and lower mold halves causes the at least one movable mold portion to contact the flexible arm and sealingly press the flexible arm against the peripheral edge of the sheet. upper and lower mold halves, at least one of the upper and lower mold halves having a molding cavity, a seal cavity and at least one movable mold portion formed therein; and a dynamic seal comprising a base portion, an intermediate seal portion, a straight arm portion and a flexible arm portion, wherein the seal comprises an elbow connecting the flexible arm to the intermediate seal portion, the flexible arm portion being capable of moving in an arc of at least 10°, each arm portion extending from the intermediate seal portion, the base portion being positioned within at least a portion of the seal cavity; wherein when a sheet of a substrate material is placed between the upper and lower mold halves, at least a portion of the periphery of the sheet is within the molding cavity proximate the dynamic seal, such that the straight arm portion is in sealing contact with a major surface of the sheet, and the flexible arm is proximate at least a portion of the peripheral edge of the sheet of substrate material, said flexible arm being capable of movement due to the presence of the elbow allowing the flexible arm to move into and out of sealing contact with at least a portion of the peripheral edge of the sheet of substrate material, and whereby closing the upper and lower mold halves causes the at least one movable mold portion to contact the flexible arm and sealingly press the flexible arm against the peripheral edge of the sheet.