mhurhangee/ep-ind-claims huggingface dataset:
Method for transporting a commodity by means of a multidimensional drive which is configured with: - a stator with a first magnetic device for generating a first magnetic field and - a mover which comprises a second magnetic device for generating a second magnetic field for magnetic interaction with the first magnetic field to be generated by the stator and which comprises a carrier and/or a container for a commodity to be transported, and wherein by magnetic interaction the mover can be moved contactless and controllably in relation to the stator, wherein a controlled movement of the mover in an xy plane with a controllable distance to a reference surface is made possible, wherein in the method: - the carrier is used for receiving and carrying the commodity, - at least one parameter representing the state of motion of the carrier and thus the state of motion of the carrier with or without commodity is sensed, - before, during and/or after a transport process of the carrier the mass of the commodity is determined a) from a parameter representing a change of the state of motion of the carrier and/or b) from a parameter representative of a means for reaching and/or maintaining a state of motion of the carrier with or without commodity. - a stator with a first magnetic device for generating a first magnetic field and - a mover which comprises a second magnetic device for generating a second magnetic field for magnetic interaction with the first magnetic field to be generated by the stator and which comprises a carrier and/or a container for a commodity to be transported, - the carrier is used for receiving and carrying the commodity, - at least one parameter representing the state of motion of the carrier and thus the state of motion of the carrier with or without commodity is sensed, - before, during and/or after a transport process of the carrier the mass of the commodity is determined a) from a parameter representing a change of the state of motion of the carrier and/or b) from a parameter representative of a means for reaching and/or maintaining a state of motion of the carrier with or without commodity. a) from a parameter representing a change of the state of motion of the carrier and/or b) from a parameter representative of a means for reaching and/or maintaining a state of motion of the carrier with or without commodity.
Driver assistance system for a vehicle, wherein a road map is provided, wherein at least one item of additional information about location- and/or time-specific compliance with traffic regulations is provided, and wherein the driver assistance system accesses the road map and the additional information in order to support a driver when driving the vehicle, characterized in that the additional information is taken into account in the form of a movement model which makes a prediction of where another road user is moving to, and the movement model is dependent on a location and/or a time of day.
A method of manufacturing a wind turbine blade comprising a spar, the method comprising the steps of: - providing at least two caps, each cap forming an intermediate portion between two end portions and being configured for attachment to a blade shell (20, 21) so that the intermediate portion of one of the caps faces towards a blade shell or forms part of an aerodynamically active surface of the blade and the intermediate portion of the other one of the caps faces towards another blade shell or forms part of the aerodynamically active surface of the blade, where the end portions each forms a cap joint surface portion along a longitudinal extending edge of the end portion and the intermediate portion forms an outer surface portion of the spar, - providing at least two webs, each web being provided with web joint surface portions along opposite and longitudinally extending edges, and - connecting the joint surface portions of the caps with the joint surface portions of the webs to form a tubular configuration of the spar, wherein the caps are provided so that the end portions extend transverse to the intermediate portion, and wherein the caps are arranged relative to each other so that the end portions of one cap extend from the intermediate portion towards the end portions of another cap. - providing at least two caps, each cap forming an intermediate portion between two end portions and being configured for attachment to a blade shell (20, 21) so that the intermediate portion of one of the caps faces towards a blade shell or forms part of an aerodynamically active surface of the blade and the intermediate portion of the other one of the caps faces towards another blade shell or forms part of the aerodynamically active surface of the blade, where the end portions each forms a cap joint surface portion along a longitudinal extending edge of the end portion and the intermediate portion forms an outer surface portion of the spar, - providing at least two webs, each web being provided with web joint surface portions along opposite and longitudinally extending edges, and - connecting the joint surface portions of the caps with the joint surface portions of the webs to form a tubular configuration of the spar, wherein the caps are provided so that the end portions extend transverse to the intermediate portion, and wherein the caps are arranged relative to each other so that the end portions of one cap extend from the intermediate portion towards the end portions of another cap.
Use of fluorescent nanoparticles containing an inorganic core, a passivating layer comprising an imidazole component, and specific ligands comprising at least one adhesin for the production of a contrast agent for tissue marking in surgical, endoscopic or minimally invasive procedures, for local administration to humans, characterized in that the nanoparticles have a hydrodynamic diameter of the inorganic core with the passivating layer of not more than 15 nm, preferably of not more than 10 nm, particularly preferably of not more than 5 nm, and an emission of less than 700 nm, whereby the nanoparticles are administered or injected locally or topically.
A method for manufacturing an antistatic anisotropic conductive film comprising a mixture of a nonconductive matrix and conductive particles, said conductive particles having an aspect ratio from 1 -100, characterised by a. providing a first surface; b. applying a layer of the mixture over the first surface, the mixture having a first viscosity which allows the conductive particles to rearrange within the layer; c. applying an electric field between two alignment electrodes over the layer, so that a number of the conductive particles are aligned with the field, thus creating conductive pathways; d. changing the viscosity of the layer to a second viscosity, said second viscosity being higher than the first viscosity in order to mechanically stabilise the layer and preserve the conductive pathways. a. providing a first surface; b. applying a layer of the mixture over the first surface, the mixture having a first viscosity which allows the conductive particles to rearrange within the layer; c. applying an electric field between two alignment electrodes over the layer, so that a number of the conductive particles are aligned with the field, thus creating conductive pathways; d. changing the viscosity of the layer to a second viscosity, said second viscosity being higher than the first viscosity in order to mechanically stabilise the layer and preserve the conductive pathways.
An ORC system (Organic Rankine Cycle) for the conversion of thermal energy into electric energy, comprising: - a thermal heating source of a thermovector fluid, - a primary circuit in which flows a thermovector fluid coming from said thermal source, - a heat exchange group for the exchange of heat between the thermovector fluid and a working fluid circulating in a related second fluid circuit by means of at least a related pump, - a first expander fed in input by the working fluid exiting from said heat exchange group (11 - 13) and connected to a first electric generator, - a second expander fed in input by the working fluid discharged by the first expander and connected to a second electric generator, - a regenerator group of the sensible heat contained in the gaseous working fluid downloaded by said second expander, and - a condenser placed downstream of said regenerator group and connected to it, characterized by at least an heat exchanger unit to re-superheat the working fluid, on the part of the thermovector fluid from the hot source, between the discharge of the first expander and the input of the second expander, and in that the regenerator group comprises a first regenerator and at least a second regenerator for a regeneration of the working fluid carried out in at least two subsequent stages, respectively in said first regenerator and in at least said second regenerator, with an added regenerative heat exchange along a flow line connecting an output of liquid working fluid of the second regenerator with an input of liquid working fluid of the first regenerator. - a thermal heating source of a thermovector fluid, - a primary circuit in which flows a thermovector fluid coming from said thermal source, - a heat exchange group for the exchange of heat between the thermovector fluid and a working fluid circulating in a related second fluid circuit by means of at least a related pump, - a first expander fed in input by the working fluid exiting from said heat exchange group (11 - 13) and connected to a first electric generator, - a second expander fed in input by the working fluid discharged by the first expander and connected to a second electric generator, - a regenerator group of the sensible heat contained in the gaseous working fluid downloaded by said second expander, and - a condenser placed downstream of said regenerator group and connected to it,
A method for demodulating signals of an electromagnetic field that are induced in a main antenna of a reader by a contactless transponder, said method comprising a step of detecting the signals from the transponder at given instants, characterised in that the given instants of detection of the signals from the transponder are synchronised with a phase of the electromagnetic field, or with a value representing said phase.
A multi-component packaging unit (kit-of-parts) for oxidative dyeing of keratin fibers, in particular human hair, comprising, packaged separately from one another, - a container containing a cosmetic agent and - a container containing a cosmetic agent, wherein - the agent in container is an agent for dyeing keratin fibers, contained in an aqueous carrier (a) one or more highly ethoxylated C 16 -C 18 fatty alcohols having 30 to 100 ethoxy groups, (b) one or more low ethoxylated C 16 -C 18 fatty alcohols having 1 to 5 ethoxy groups, (c) one or more monoesters of glycerol and a C 14 -C 20 fatty acid, (d) one or more C 16 -C 18 fatty alcohols, (e) one or more alkalizing agents and (f) one or more oxidation dye precursors, wherein - the weight ratio of all highly ethoxylated C 16 -C 18 fatty alcohols (a) contained in the agent to all low ethoxylated C 16 -C 18 fatty alcohols (b) contained in the agent, i.e. the weight ratio (a)/(b), has a value from 10 to 20 and - the weight ratio of the sum of all components [(c)+(d)] contained in the agent to the sum of all ethoxylated fatty alcohols [(a)+(b)] contained in the agent, i.e. the weight ratio [(c)+(d)]/[(a)+(b)], has a value from 2 to 5 and - the agent in container is an oxidizing agent preparation containing hydrogen peroxide. - a container containing a cosmetic agent and - a container containing a cosmetic agent, - the agent in container is an agent for dyeing keratin fibers, contained in an aqueous carrier (a) one or more highly ethoxylated C 16 -C 18 fatty alcohols having 30 to 100 ethoxy groups, (b) one or more low ethoxylated C 16 -C 18 fatty alcohols having 1 to 5 ethoxy groups, (c) one or more monoesters of glycerol and a C 14 -C 20 fatty acid, (d) one or more C 16 -C 18 fatty alcohols, (e) one or more alkalizing agents and (f) one or more oxidation dye precursors, (a) one or more highly ethoxylated C 16 -C 18 fatty alcohols having 30 to 100 ethoxy groups, (b) one or more low ethoxylated C 16 -C 18 fatty alcohols having 1 to 5 ethoxy groups, (c) one or more monoesters of glycerol and a C 14 -C 20 fatty acid, (d) one or more C 16 -C 18 fatty alcohols, (e) one or more alkalizing agents and (f) one or more oxidation dye precursors, - the weight ratio of all highly ethoxylated C 16 -C 18 fatty alcohols (a) contained in the agent to all low ethoxylated C 16 -C 18 fatty alcohols (b) contained in the agent, i.e. the weight ratio (a)/(b), has a value from 10 to 20 and - the weight ratio of the sum of all components [(c)+(d)] contained in the agent to the sum of all ethoxylated fatty alcohols [(a)+(b)] contained in the agent, i.e. the weight ratio [(c)+(d)]/[(a)+(b)], has a value from 2 to 5 and - the agent in container is an oxidizing agent preparation containing hydrogen peroxide.
System for conveying carcasses or carcass parts of quadruped slaughter animals, which system comprises at least one carrier, which carrier comprises: - a first jaw element, which first jaw element has an engagement face for engaging the carcass or carcass part, - a second jaw element, which second jaw element has an engagement face for engaging the carcass or carcass part, the engagement face of the first jaw element and the engagement face of the second jaw element being spaced apart and together defining two opposite side walls of a retaining part of a holding slot for retaining the carcass or carcass part, the distance between the engagement face of the first jaw element and the engagement face of the second jaw element defining the width of the retaining part of the holding slot, the first jaw element and the second jaw element being moveable relative to each other such that the width of the retaining part of the holding slot is variable over a width range that extends between a minimum width and a maximum width, which carrier further comprises a tensioning structure, which tensioning structure has a first connection zone and a second connection zone, the first connection zone being connected to the first jaw element and the second connection zone being connected to the second jaw element, the connection between the first connection zone of the tensioning structure and the first jaw element and the connection between the second connection zone of the tensioning structure and the second jaw element being such that when the jaw elements move relative to each other when receiving a carcass or carcass part in the retaining part of the holding slot, the first connection zone moves along with the first jaw element and the second connection zone moves along with the second jaw element, which movement of the connection zones causes elastic deformation of the tensioning structure, said elastic deformation providing a clamping force to the engagement faces (22, 24) of the jaw elements such that the carcass or carcass part is retained in the holding slot by clamping a part of the carcass or carcass part between the engagement face of the first jaw element and the engagement face of the second jaw element, wherein the tensioning structure which comprises a bracket, which bracket has a first leg, a second leg and a connection piece that connects the first leg to the second leg, and wherein the connection piece is a cross bar, and wherein at least a part of the connection piece of the bracket is more flexible than the legs (142a, 142b) of the bracket. - a first jaw element, which first jaw element has an engagement face for engaging the carcass or carcass part, - a second jaw element, which second jaw element has an engagement face for engaging the carcass or carcass part,
A gravity-based foundation base on an underwater bed to support a wind turbine in the installation position; wherein said foundation base comprises a foundation caisson having a geometry in the form of a quasi-pyramidal caisson, the section of which decreases as the height of the foundation base increases; the gravity-based foundation base being characterised in that said foundation caisson includes internal buoyancy cells which are hollow and sealed and connectable together to be controlled ballasting; and a transition component of tapered frustoconical form on top of the foundation caisson.
A dressing (102, 415, 515) for applying a reduced pressure at a tissue site, the dressing (102, 415, 515) comprising: a laminar layer (200, 300, 400, 500) having a plurality of channel walls (206, 302, 304 405) that form a plurality of channels (208, 306, 410) through which liquid is drawn, the laminar layer (200, 300, 400, 500) operable to transfer reduced pressure to the tissue site through the plurality of channel walls (206, 302, 304 405); and a sealing member (108, 120, 425, 525) configured to cover at least a portion of the laminar layer (200, 300, 400, 500) to provide a seal over the tissue site characterized in that the plurality of channel walls (206, 302, 304 405) are a plurality of gas permeable and liquid impermeable channel walls. a laminar layer (200, 300, 400, 500) having a plurality of channel walls (206, 302, 304 405) that form a plurality of channels (208, 306, 410) through which liquid is drawn, the laminar layer (200, 300, 400, 500) operable to transfer reduced pressure to the tissue site through the plurality of channel walls (206, 302, 304 405); and a sealing member (108, 120, 425, 525) configured to cover at least a portion of the laminar layer (200, 300, 400, 500) to provide a seal over the tissue site characterized in that the plurality of channel walls (206, 302, 304 405) are a plurality of gas permeable and liquid impermeable channel walls.
An industrial process transmitter apparatus (20; 20'; 20") comprising: a housing chassis (50; 50'; 50") compromising a first metallic material, wherein the housing chassis comprises: a substantially cylindrical body portion; a first circumferentially extending support member located at or near a first end of the body portion of the housing chassis; and a second circumferentially extending support member located at or near a second end of the body portion of the housing chassis that is opposite the first end; and a housing skin (52; 52'; 52") compromising a second metallic material that is different from the first metallic material, the housing skin fitted over the housing chassis and in physical contact with both the first and second circumferentially extending support members of the housing chassis, characterized in that the first and second circumferentially extending support members extend each radially outward from the substantially cylindrical body portion, and further characterized in that the housing skin is spaced from the housing chassis in between the first and second circumferentially extending support members. a housing chassis (50; 50'; 50") compromising a first metallic material, wherein the housing chassis comprises: a substantially cylindrical body portion; a first circumferentially extending support member located at or near a first end of the body portion of the housing chassis; and a second circumferentially extending support member located at or near a second end of the body portion of the housing chassis that is opposite the first end; and a housing skin (52; 52'; 52") compromising a second metallic material that is different from the first metallic material, the housing skin fitted over the housing chassis and in physical contact with both the first and second circumferentially extending support members of the housing chassis, characterized in that the first and second circumferentially extending support members extend each radially outward from the substantially cylindrical body portion, and further characterized in that the housing skin is spaced from the housing chassis in between the first and second circumferentially extending support members. a substantially cylindrical body portion; a first circumferentially extending support member located at or near a first end of the body portion of the housing chassis; and a second circumferentially extending support member located at or near a second end of the body portion of the housing chassis that is opposite the first end; and a housing skin (52; 52'; 52") compromising a second metallic material that is different from the first metallic material, the housing skin fitted over the housing chassis and in physical contact with both the first and second circumferentially extending support members of the housing chassis, characterized in that the first and second circumferentially extending support members extend each radially outward from the substantially cylindrical body portion, and further characterized in that the housing skin is spaced from the housing chassis in between the first and second circumferentially extending support members.
A continuous process for production of protein hydrolysates, in which proteins are submitted to enzymatic hydrolysis in aqueous solution, comprising the following steps: (i) aerating a reaction vessel containing a reaction mixture of proteins and enzymes from the bottom, thereby producing convection, (ii) leading the reaction mixture, moving as a result of convection, through a seaweed ultrafiltration membrane present in the reaction vessel, (iii) withdrawing the resultant permeate containing the hydrolysis products immediately after passing through the membrane and is discharged from the reactor, whereas the retentate, containing unreacted proteins and enzymes, remains in the reaction vessel, and (iv) compensating the amount of permeate withdrawn by continuous feed of fresh starting proteins. (i) aerating a reaction vessel containing a reaction mixture of proteins and enzymes from the bottom, thereby producing convection, (ii) leading the reaction mixture, moving as a result of convection, through a seaweed ultrafiltration membrane present in the reaction vessel, (iii) withdrawing the resultant permeate containing the hydrolysis products immediately after passing through the membrane and is discharged from the reactor, whereas the retentate, containing unreacted proteins and enzymes, remains in the reaction vessel, and (iv) compensating the amount of permeate withdrawn by continuous feed of fresh starting proteins.
A method of manufacturing a solar cell, comprising: - forming a dopant layer to a first surface of a semiconductor substrate by ion implantation doping a dopant of a first conductivity type and a counter dopant of a second conductivity type opposite to the first conductivity type, - activating the dopant of the first conductivity type and the counter dopant of the second conductivity type by annealing the semiconductor substrate, - forming an antireflection layer on the entire surface of the dopant layer, - forming an electrode electrically connected to the dopant layer through the anti-reflection layer, - wherein a doping amount of the counter dopant is less than a doping amount of the dopant. - forming a dopant layer to a first surface of a semiconductor substrate by ion implantation doping a dopant of a first conductivity type and a counter dopant of a second conductivity type opposite to the first conductivity type, - activating the dopant of the first conductivity type and the counter dopant of the second conductivity type by annealing the semiconductor substrate, - forming an antireflection layer on the entire surface of the dopant layer, - forming an electrode electrically connected to the dopant layer through the anti-reflection layer, - wherein a doping amount of the counter dopant is less than a doping amount of the dopant.