mhurhangee/patent-ind-claim-en huggingface dataset:
A method for connecting a number of users with at least one signal bearing optical fiber ( 110 1÷ z ; 210 1÷5 ) contained in an optical cable (105; 205) comprising a plurality of optical fibers ( 110 1÷z ), the method comprising the steps of: a) interrupting said signal bearing optical fiber ( 110 1÷z ; 210 1 ÷ 5 ) at a first branch point ( 115 x|1 ; 215p 1÷5 ), obtaining a first optical fiber segment (110 x|1 ; 210i 1÷5 ) upstream of said branch point ( 115 x|1 ; 215p 1÷ 5 ) and a second optical fiber segment (110 x|2 ) downstream of said branch point ( 115 x|1 ; 215p 1÷5 ); b) providing an optical splitter (120 x|1 ; 220p 1÷5 ) at the branch point (115 x|1 ; 215p 1÷5 ), the optical splitter (120 x|1 ; 220p 1÷5 ) comprising an input and at least two outputs; c) coupling the first optical fiber segment (110 x|1 ; 210i 1÷5 ) with the input of the optical splitter (120 x|1 ; 220p 1÷5 ); d) coupling a first output of the optical splitter (120 x|1 ; 220p 1÷5 ) with at least one user; characterized by comprising e) coupling a second output of the optical splitter (120 x|1 ; 220p 1÷5 ) with a downstream optical fiber segment (110 x|1 ; 210 6÷8|1÷5 ) of an interrupted optical fiber ( 110 x ; 210 6 ÷ 8 ) contained in the same optical cable (105; 205) as the first optical fiber segment (110 x|1 ; 210i 1÷5 ), and f) coupling said downstream optical fiber segment (110 x|1 ; 210 6÷8|1÷5 ) with at least one further user at a further branch point ( 215s 1÷5|a÷ c ) downstream said first branch point ( 115 x|1 ; 215p 1÷5 ) , in which said downstream optical fiber segment (110 x|1 ; 210 6÷8|1÷5 ) of an interrupted optical fiber (110 x ; 210 6÷8 ) is said second optical fiber segment (110 x|2 ). a) interrupting said signal bearing optical fiber ( 110 1÷z ; 210 1 ÷ 5 ) at a first branch point ( 115 x|1 ; 215p 1÷5 ), obtaining a first optical fiber segment (110 x|1 ; 210i 1÷5 ) upstream of said branch point ( 115 x|1 ; 215p 1÷ 5 ) and a second optical fiber segment (110 x|2 ) downstream of said branch point ( 115 x|1 ; 215p 1÷5 ); b) providing an optical splitter (120 x|1 ; 220p 1÷5 ) at the branch point (115 x|1 ; 215p 1÷5 ), the optical splitter (120 x|1 ; 220p 1÷5 ) comprising an input and at least two outputs; c) coupling the first optical fiber segment (110 x|1 ; 210i 1÷5 ) with the input of the optical splitter (120 x|1 ; 220p 1÷5 ); d) coupling a first output of the optical splitter (120 x|1 ; 220p 1÷5 ) with at least one user; characterized by comprising e) coupling a second output of the optical splitter (120 x|1 ; 220p 1÷5 ) with a downstream optical fiber segment (110 x|1 ; 210 6÷8|1÷5 ) of an interrupted optical fiber ( 110 x ; 210 6 ÷ 8 ) contained in the same optical cable (105; 205) as the first optical fiber segment (110 x|1 ; 210i 1÷5 ), and f) coupling said downstream optical fiber segment (110 x|1 ; 210 6÷8|1÷5 ) with at least one further user at a further branch point ( 215s 1÷5|a÷ c ) downstream said first branch point ( 115 x|1 ; 215p 1÷5 ) ,
Boot having an outer upper inside which an internal comfort element is inserted, said outer upper comprising a top part and a bottom part and comprising at least two portions that are mobile with respect to one another; tightening means being provided so as to bring the two mobile portions closer to one another in order to adapt the volume of the boot to the foot of the user, said tightening means being placed on the bottom part of the outer upper, at the top part of the instep, near the line of the short heel perimeter and said tightening means having external traction means of which a first end is fastened to a first portion of the outer upper and of which a second end is in relation with actuation means that are fastened to a second portion of the outer upper, characterized in that it also has internal traction means mainly placed beneath the outer upper so as to act on the internal comfort element in order to tighten the internal comfort element against the foot of the user, said internal traction means being in relation with the same actuation means .
Fill level radar device, comprising: a signal source arrangement configured to generate an electromagnetic transmission signal with a frequency changing during a measurement cycle and which duration is longer than double a run time of the transmission signal from a signal source arrangement to a filling material, characterized in that the fill level radar device further comprises: a transmission-power adjustment circuitry configured to adjust a power of the transmission signal depending on a frequency of the transmission signal in accordance with a predefined correlation. a signal source arrangement configured to generate an electromagnetic transmission signal with a frequency changing during a measurement cycle and which duration is longer than double a run time of the transmission signal from a signal source arrangement to a filling material, characterized in that the fill level radar device further comprises: a transmission-power adjustment circuitry configured to adjust a power of the transmission signal depending on a frequency of the transmission signal in accordance with a predefined correlation.
A stranded conductor comprising a. a specific number of a first type of wire which, when looking at a cross-section of the stranded conductor , are arranged in a hexagonal pattern around a central wire by at least two layers; b. whereby the wires arranged at the vertices of the hexagonal pattern are of a second type of wire having in principle a smaller diameter than the first type of wires c. and wherein the interstitial spaces between the first and the second wires are filled by a sealing agent , and d. the first and the second type of wires are having in the stranded conductor a non-circular cross-section. a. a specific number of a first type of wire which, when looking at a cross-section of the stranded conductor , are arranged in a hexagonal pattern around a central wire by at least two layers; b. whereby the wires arranged at the vertices of the hexagonal pattern are of a second type of wire having in principle a smaller diameter than the first type of wires c. and wherein the interstitial spaces between the first and the second wires are filled by a sealing agent , and d. the first and the second type of wires are having in the stranded conductor a non-circular cross-section.
A multi-stage amplitude modulation-based method for coding a visible light signal, comprising the following steps: dividing to-be-transmitted information into multiple information units, each information unit comprises multiple bits ; converting the multiple information units into multiple electrical signal units indicated by at least three levels, an interval indicated by a first level in the at least three levels exists between adjacent electrical signal units, and each electrical signal unit uses a combination of other levels in the at least three levels to represent the multiple bits of a corresponding information unit ; combining the electrical signal units to obtain a coded electrical signal ; and transmitting the coded electrical signal in a visible light signal form , wherein the step of converting the multiple information units into multiple electrical signal units indicated by at least three levels comprises: determining level combinations of the electrical signal units corresponding to the information units according to a preset correspondence table, further comprising setting a signal end mark of the visible light signal to be that a duration of the first level reaches a first threshold, wherein the first level is an average value of the at least three levels; or the first level is not an average value of the at least three levels, and a beginning of the coded electrical signal is the first level. dividing to-be-transmitted information into multiple information units, each information unit comprises multiple bits ; converting the multiple information units into multiple electrical signal units indicated by at least three levels, an interval indicated by a first level in the at least three levels exists between adjacent electrical signal units, and each electrical signal unit uses a combination of other levels in the at least three levels to represent the multiple bits of a corresponding information unit ; combining the electrical signal units to obtain a coded electrical signal ; and transmitting the coded electrical signal in a visible light signal form , wherein the step of converting the multiple information units into multiple electrical signal units indicated by at least three levels comprises: determining level combinations of the electrical signal units corresponding to the information units according to a preset correspondence table, further comprising setting a signal end mark of the visible light signal to be that a duration of the first level reaches a first threshold, wherein the first level is an average value of the at least three levels; or the first level is not an average value of the at least three levels, and a beginning of the coded electrical signal is the first level.
Method for identifying time windows and areas of an agriculturally used field with favorable conditions for an effective and environmentally acceptable use and/or driveability of agricultural machines, in which meteorological measured values, measured values relating to the nature of crops and/or of the soil are recorded in a spatially resolved manner within the area of a field or of a field region using at least one unmanned aerial vehicle equipped with sensors, and spatially resolved values for a meteorologically based application index are calculated using the measured values recorded, and a respective agricultural machine is controlled and/or operated based on the values determined in a spatially resolved manner for the meteorologically based application index; wherein the values for the meteorologically based application index taking into account at least two measured values selected from air temperature, the temperature of plants; relative air humidity, wind speed and direction, thermal, plant stock, vegetation density, soil moisture, soil density, soil type, surface quality usable field capacity and surface water present taking into account respective weighting factors, characterized in that depending on the work to be performed, certain parameters are drawn upon and used in the calculation accordingly, and the respective time of use and place of use of the respective agricultural machine is determined as a function of the values detected in a spatially resolved manner for the meteorologically based application index. meteorological measured values, measured values relating to the nature of crops and/or of the soil are recorded in a spatially resolved manner within the area of a field or of a field region using at least one unmanned aerial vehicle equipped with sensors, and spatially resolved values for a meteorologically based application index are calculated using the measured values recorded, and a respective agricultural machine is controlled and/or operated based on the values determined in a spatially resolved manner for the meteorologically based application index; wherein the values for the meteorologically based application index taking into account at least two measured values selected from air temperature, the temperature of plants; relative air humidity, wind speed and direction, thermal, plant stock, vegetation density, soil moisture, soil density, soil type, surface quality usable field capacity and surface water present taking into account respective weighting factors, characterized in that depending on the work to be performed, certain parameters are drawn upon and used in the calculation accordingly, and the respective time of use and place of use of the respective agricultural machine is determined as a function of the values detected in a spatially resolved manner for the meteorologically based application index.
A method for production of a recombinant glycoprotein under fermentation culture conditions in a eukaryotic cell, the method comprising adjusting the concentrations of each of iron, copper, zinc and manganese in the culture medium during the culture to affect biomass generation and/or N-glycan maturity in the expressed glycoprotein wherein the adjustment is: - increasing the concentration of each of iron, copper, zinc and manganese in order to increase biomass, wherein the concentrations are adjusted to: (a) iron - from 15 μM to more than 80 μM; (b) copper - from 0.3 μM to more than 2.5 μM; (c) zinc - from 20 μM to more than 50 μM; and (d) manganese - from 0.01 μM to more than 3 μM; and/or - increasing the concentration of each of zinc and manganese and, optionally, decreasing the concentration of each of iron and copper to increase N-glycan maturity in the expressed glycoprotein, wherein the carbohydrate portion of the expressed glycoprotein has a G0, G1 or G2 structure; or - (i) decreasing the concentration of each of iron, copper, zinc and manganese to increase production of immature non-fucosylated glycoproteins or (ii) increasing the concentration of each of copper and iron and decreasing the concentration of each of zinc and manganese to increase production of immature non-fucosylated glycoproteins; wherein a decrease in the concentration of any or all of iron, copper, zinc and manganese in the culture medium is achieved by complexing the iron, copper, zinc and manganese with a chelator and/or by seeding the cells into a fresh medium containing a reduced concentration of any or all of iron, copper, zinc and manganese compared to the medium of the immediately preceding culture phase. - increasing the concentration of each of iron, copper, zinc and manganese in order to increase biomass, wherein the concentrations are adjusted to: (a) iron - from 15 μM to more than 80 μM; (b) copper - from 0.3 μM to more than 2.5 μM; (c) zinc - from 20 μM to more than 50 μM; and (d) manganese - from 0.01 μM to more than 3 μM; and/or (a) iron - from 15 μM to more than 80 μM; (b) copper - from 0.3 μM to more than 2.5 μM; (c) zinc - from 20 μM to more than 50 μM; and (d) manganese - from 0.01 μM to more than 3 μM; and/or - increasing the concentration of each of zinc and manganese and, optionally, decreasing the concentration of each of iron and copper to increase N-glycan maturity in the expressed glycoprotein, wherein the carbohydrate portion of the expressed glycoprotein has a G0, G1 or G2 structure; or - (i) decreasing the concentration of each of iron, copper, zinc and manganese to increase production of immature non-fucosylated glycoproteins or (ii) increasing the concentration of each of copper and iron and decreasing the concentration of each of zinc and manganese to increase production of immature non-fucosylated glycoproteins;
Cleaning unit for a device for cleaning a surface, comprising at least one motor and at least one first working body , wherein the first working body can be connected to the motor in such a way that the first working body can be directly rotated by the motor , wherein the motor is designed as an electric motor, characterized in that at least one second working body is present, and in that the second working body can be connected to the motor in such a way that the second working body can be directly rotated by the motor .
Polyetherpolyol obtained by co-polymerization of a compound A containing at least one epoxide moiety and a compound B capable of undergoing a ring opening reaction wherein compound A and compound B are different from each other and wherein the co-polymerization is carried out in the presence of a Bronsted acid with a weakly coordinating and non-nucleophilic anion, wherein compound B is selected from five-membered heterocyclic rings and six-membered heterocyclic rings and in that compound A has a molecular weight of 40 to 200 g/mol, characterized in that the difference between the number average molecular weight M n of the polyetherpolyol as determined by GPC and the number average molecular weight M n of the polyetherpolyol as determined by end group titration is less than 50%, based in the number average molecular weight Mn of the polyetherpolyol as determined by GPC.
Method for processing, in particular cutting, a graphic , in particular a graphic area, applied to a workpiece , said method comprising the following steps: - Creating and/or loading of a processing job with a graphic or a graphic area, respectively, and identifying features on a display element , in particular a computer; - Application of the identifying features and the graphic or the graphic area, respectively, on the workpiece ; - Placing of the workpiece in a processing area of a processing device , in particular a laser plotter with an optical unit for detecting the identifying features ; - Detection of the workpiece , in particular the identifying features , in order to determine the position and orientation of the workpiece , in particular of the applied graphics or the graphics area, respectively, in the processing area; - Execution of the machining process after successful detection of the workpiece , in particular of the graphic or the graphic area, respectively, characterized in that after the machining process, the actual detected position of the identifying features and/or the associated graphic or the graphic area, respectively, in the working area is displayed on the computer at the corresponding position. - Creating and/or loading of a processing job with a graphic or a graphic area, respectively, and identifying features on a display element , in particular a computer; - Application of the identifying features and the graphic or the graphic area, respectively, on the workpiece ; - Placing of the workpiece in a processing area of a processing device , in particular a laser plotter with an optical unit for detecting the identifying features ; - Detection of the workpiece , in particular the identifying features , in order to determine the position and orientation of the workpiece , in particular of the applied graphics or the graphics area, respectively, in the processing area; - Execution of the machining process after successful detection of the workpiece , in particular of the graphic or the graphic area, respectively, characterized in that
A method for making a high molecular weight, monoesterified polyimide polymer comprising: (a) preparing a polyimide polymer comprising carboxylic acid functional groups from a reaction solution comprising monomers and at least one solvent; and (b) treating the polyimide polymer with a diol at esterification conditions in the presence of dehydrating conditions to form a monoesterified polyimide polymer, wherein the dehydrating conditions at least partially remove water produced during step (b) such that the concentration of water in a solution comprising the polyimide polymer and the diol in step (b) is maintained at between 0 weight percent and 0.08 weight percent, and the monoesterified, polyimide polymer has a weight average molecular weight between 80,000 and 220,000. (a) preparing a polyimide polymer comprising carboxylic acid functional groups from a reaction solution comprising monomers and at least one solvent; and (b) treating the polyimide polymer with a diol at esterification conditions in the presence of dehydrating conditions to form a monoesterified polyimide polymer,
An isolated, soluble, human epidermal growth factor receptor-2 (HER2) protein consisting of the sequence set forth in SEQ ID No: 6 or amino acids 23-584 of SEQ ID No: 6.
A method for isolating a multi-layer passivation system for a medical implant, wherein the passivation system comprises a passivation with at least one electrically active intermediate layer ; at least one round-shaped, rectangular-shaped, elliptic or cone-shaped opening created in a predetermined way in the passivation , the method comprising arranging an isolating wall along the circumference of the opening , wherein the isolating wall is coated covering the entire side wall face of the opening in the passivation , and wherein the isolating wall isolates in an electrical and/or fluid-tight and/or gas-tight manner the at least one electrically active intermediate layer of at least one electrode of a flexible or rigid medical implant which is bio-stable, bio-compatible and encapsulated in an electrically isolating manner as a bottom face of the opening . a passivation with at least one electrically active intermediate layer ; at least one round-shaped, rectangular-shaped, elliptic or cone-shaped opening created in a predetermined way in the passivation , the method comprising arranging an isolating wall along the circumference of the opening , wherein the isolating wall is coated covering the entire side wall face of the opening in the passivation , and wherein the isolating wall isolates in an electrical and/or fluid-tight and/or gas-tight manner the at least one electrically active intermediate layer of at least one electrode of a flexible or rigid medical implant which is bio-stable, bio-compatible and encapsulated in an electrically isolating manner as a bottom face of the opening .
Device comprising a grid-side voltage source , comprising a rectifier , comprising an energy storage unit formed of capacitors, comprising at least one inverter, and comprising a DC-to-DC converter , the energy storage unit and the inverter being connected in parallel with the DC-to-DC converter , and the DC-to-DC converter being connected to the grid-side voltage source by means of the rectifier , the rectifier being connected to a secondary winding which is inductively coupled to a primary conductor, which is provided in a stationary manner and is connected to the voltage source, the DC-to-DC converter comprising an actuation unit , the actuation unit comprising a power regulator , which determines a first target effective value I_targ_eff, characterised in that the actuation unit comprises a current regulator, a second target value i_targ(t) being able to be fed to the current regulator and being determined by multiplying a signal u_A_f(t) by the first target effective value I_targ_eff, the signal u_A_f(t) being determined, by means of band-pass filtering and normalisation, from the voltage u_A(t) present at the side of the DC-to-DC converter facing the rectifier .
A build material management system for a 3D printing system, the build material management system configured to recover at least a portion of non-fused build material from a collection source of the build material management system and comprising: a waste port to output recovered non-fused build material; a recoverable build material container to store recyclable non-fused build material; a non-fused build material transportation system to transport at least a portion of the non-fused build material within the build material management system ; and a processing circuitry to determine a recyclability indicator indicative of the presence of recyclable material in the collected non-fused build material based on the type of build material used, wherein the type refers to the material of the build material, and to control the non-fused build material transportation system to transport the collected non-fused build material from the collection source to at least one of the waste port and the recoverable build material container based on the recyclability indicator. a waste port to output recovered non-fused build material; a recoverable build material container to store recyclable non-fused build material; a non-fused build material transportation system to transport at least a portion of the non-fused build material within the build material management system ; and a processing circuitry to determine a recyclability indicator indicative of the presence of recyclable material in the collected non-fused build material based on the type of build material used, wherein the type refers to the material of the build material, and to control the non-fused build material transportation system to transport the collected non-fused build material from the collection source to at least one of the waste port and the recoverable build material container based on the recyclability indicator.