mhurhangee/ep-ind-claims huggingface dataset:
A method for transporting a product from a counter mould to a production mould, comprising the steps of positioning at least one fiber mat in a counter mould, the method comprises: - a first step of providing a counter mould, - subsequently positioning against a shaping surface of said counter mould the at least one fiber mat for shaping a preform, - applying an at least partial vacuum, and - a final step of transporting said counter mould and said fiber mat to said production mould, characterized in that the method further comprises: - covering said fiber mat by means of a substantially gas tight cover layer for sealing said fiber mat substantially gas tight against said shaping surface, and - applying the at least partial vacuum on said space defined by the cover layer and the shaping surface.
Modified standard micro receptacle (2"), preferably a modified Universal Serial Bus Micro-USB receptacle, said modified standard micro receptacle comprising: - a housing, - at least two contact terminals (23a-23e) attached to a surface of a bar of said housing, - a shield attached to said housing and at least partially laterally enclosing said at least two contact terminals (23a-23e) and said bar of said housing, and - at least one projection configured to be received in a recess of a corresponding micro plug when said micro plug is inserted into said modified standard micro receptacle (2"), - wherein said at least one projection is further configured to hinder an insertion of a standard micro plug into said modified standard micro receptacle (2"), characterized in that said at least one projection is arranged at said bar. - a housing, - at least two contact terminals (23a-23e) attached to a surface of a bar of said housing, - a shield attached to said housing and at least partially laterally enclosing said at least two contact terminals (23a-23e) and said bar of said housing, and - at least one projection configured to be received in a recess of a corresponding micro plug when said micro plug is inserted into said modified standard micro receptacle (2"), - wherein said at least one projection is further configured to hinder an insertion of a standard micro plug into said modified standard micro receptacle (2"), characterized in that said at least one projection is arranged at said bar.
A method of generating islet cells or islet progenitor cells from human pluripotent stem cells, the method comprising: (a) culturing the pluripotent stem cells in a differentiation medium comprising activin A and Wnt 3 so as to differentiate the pluripotent stem cells into endoderm cells; (b) culturing said endoderm cells in a medium comprising at least one growth factor, a cAMP inducer and retinoic acid, said at least one growth factor being selected from the group consisting of FGF10, bFGF and FGF7 so as to generate further differentiated cells; (c) culturing said further differentiated cells in a medium comprising a maturation factor selected from the group consisting of nicotinamide, GLP-1 and exendin 4, thereby generating islet cells from pluripotent stem cells; wherein the generation of islet cells or islet progenitor cells is effected without the generation of embryoid bodies, and wherein the glucose concentration of each of said media is between 5 mM-100 mM; (d) dispersing said islet cells to generate dispersed islet cells or dispersed islet progenitor cells; (e) contacting said islet cells or islet progenitor cells with antibodies or polynucleotides specifically binding to EpCAM; (f) selecting cells which bind to said antibodies or polynucleotides, thereby generating islet cells or islet progenitor cells that produce insulin; and (g) re-aggregating said dispersed islet cells or dispersed islet progenitor cells that produce insulin. (a) culturing the pluripotent stem cells in a differentiation medium comprising activin A and Wnt 3 so as to differentiate the pluripotent stem cells into endoderm cells; (b) culturing said endoderm cells in a medium comprising at least one growth factor, a cAMP inducer and retinoic acid, said at least one growth factor being selected from the group consisting of FGF10, bFGF and FGF7 so as to generate further differentiated cells; (c) culturing said further differentiated cells in a medium comprising a maturation factor selected from the group consisting of nicotinamide, GLP-1 and exendin 4, thereby generating islet cells from pluripotent stem cells; wherein the generation of islet cells or islet progenitor cells is effected without the generation of embryoid bodies, and wherein the glucose concentration of each of said media is between 5 mM-100 mM; (d) dispersing said islet cells to generate dispersed islet cells or dispersed islet progenitor cells; (e) contacting said islet cells or islet progenitor cells with antibodies or polynucleotides specifically binding to EpCAM; (f) selecting cells which bind to said antibodies or polynucleotides, thereby generating islet cells or islet progenitor cells that produce insulin; and (g) re-aggregating said dispersed islet cells or dispersed islet progenitor cells that produce insulin.
A welding system comprising: at least two metal inert gas welders (35;50,52) configured to perform a cooperative pulsed MIG welding process; and at least one communications link (48;65) connecting the at least two MIG welders (35;50,52,54); characterized in that each MIG welder (35;50,52,54) is configured to deliver at least one of subordination commands and superiority commands to the other MIG welder or welders (35;50,52,54) to synchronize the cooperative pulsed MIG welding process. at least two metal inert gas welders (35;50,52) configured to perform a cooperative pulsed MIG welding process; and at least one communications link (48;65) connecting the at least two MIG welders (35;50,52,54); characterized in that each MIG welder (35;50,52,54) is configured to deliver at least one of subordination commands and superiority commands to the other MIG welder or welders (35;50,52,54) to synchronize the cooperative pulsed MIG welding process.
A three dimensional printing system comprising: a printhead for ejecting drops of phase change ink to define a three dimensional article of manufacture; an ink supply subsystem for providing the phase change ink to the printhead which includes a heated ink transport component able to flex back and forth as the printhead moves and comprising an ink tube having an inside surface for contacting and transporting the phase change ink and an outer tubular surface; characterised in that the heated ink transport component further comprises a resistor that is helically wound around the outer tubular surface of the ink tube and has an elongate rectangular cross section form factor whereby the major axis of the elongate rectangular cross section substantially conforms to the outer tubular surface, the resistor having a heater resistance; a return conductor that is helically wound around the resistor and having a resistance that is lower than the resistor; and an outer tube that surrounds and protects the resistor and the return conductor and provides insulation to the heated ink transport component. a printhead for ejecting drops of phase change ink to define a three dimensional article of manufacture; an ink supply subsystem for providing the phase change ink to the printhead which includes a heated ink transport component able to flex back and forth as the printhead moves and comprising an ink tube having an inside surface for contacting and transporting the phase change ink and an outer tubular surface; characterised in that the heated ink transport component further comprises a resistor that is helically wound around the outer tubular surface of the ink tube and has an elongate rectangular cross section form factor whereby the major axis of the elongate rectangular cross section substantially conforms to the outer tubular surface, the resistor having a heater resistance; a return conductor that is helically wound around the resistor and having a resistance that is lower than the resistor; and an outer tube that surrounds and protects the resistor and the return conductor and provides insulation to the heated ink transport component.
Holding part for fastening at least one visible profile (3, 4), more particularly a terrace profile, to a substructure, having a profile which is formed from a metal sheet, is open and hat-shaped in cross section and has two limbs (8.1, 8.2) connected to one another by a web, which are adjoined by two flanges (9.1, 9.2), having at least one tongue-shaped section (10, 11) formed from the web by cutting and shape-bending, which section (10, 11) projects from the web and is designed to engage in a groove (3.1, 4.1) on one side (3.2, 4.2) of the visible profile (3, 4), and having at least one mounting opening (13.1, 13.2) provided on a first flange (9.1, 9.2) for fastening means for mounting the holding part on the substructure, characterized in that the holding part has at least one mounting opening (13.1, 13.2) in each case on the first and second flange (9.1, 9.2), and in that the resiliently designed tongue-shaped section (10, 11) extends from its tongue base (10.1, 11.1) to its free tongue end (10.2, 11.2) in the longitudinal direction of the profile.
A media gap motor, in particular for a turbocharger, including a rotor and a stator, the stator comprising fins which extend by means of an inner portion radially towards the rotor in a flow chamber formed between the stator and the rotor, wherein the fins do not extend by means of their inner portions as far as the rotor, and therefore a gap is formed between an inner end of the fins and the rotor, characterized in that an internal diameter of the fins is at least 1.2 times and at most 3 times an external diameter of the rotor, wherein the flow chamber is delimited in an inner region by the rotor, whereby the inner ends of the fins are free-standing, wherein a maximum diameter of the flow chamber is at least twice the external diameter of the rotor andwherein the rotor comprises a rotor magnet, wherein the fins comprise an axial overlap with the rotor magnet. wherein the fins do not extend by means of their inner portions as far as the rotor, and therefore a gap is formed between an inner end of the fins and the rotor, characterized in that an internal diameter of the fins is at least 1.2 times and at most 3 times an external diameter of the rotor, wherein the flow chamber is delimited in an inner region by the rotor, whereby the inner ends of the fins are free-standing, wherein a maximum diameter of the flow chamber is at least twice the external diameter of the rotor andwherein the rotor comprises a rotor magnet, wherein the fins comprise an axial overlap with the rotor magnet.
A medical device comprising: a pulse generator configured to generate a stimulation signal and to provide the stimulation signal to tissue of a patient via an implantable lead assembly; a filter configured to couple to the implantable lead assembly; and characterized by a tuning circuit coupled to the filter, wherein the tuning circuit is configured to perform an adjustment to a combined impedance of the filter and the implantable lead assembly, wherein the combined impedance is adjusted to satisfy an impedance threshold; wherein: the combined impedance of the implantable lead assembly and the filter with respect to a current induced by an external electro-magnetic field satisfies the impedance threshold when the external electro-magnetic field has a first frequency, the combined impedance satisfies the impedance threshold when the external electro-magnetic field has a second frequency, and the combined impedance has a peak impedance value when the external electro-magnetic field has a third frequency that is between the first frequency and the second frequency. a pulse generator configured to generate a stimulation signal and to provide the stimulation signal to tissue of a patient via an implantable lead assembly; a filter configured to couple to the implantable lead assembly; and characterized by a tuning circuit coupled to the filter, wherein the tuning circuit is configured to perform an adjustment to a combined impedance of the filter and the implantable lead assembly, wherein the combined impedance is adjusted to satisfy an impedance threshold; wherein: the combined impedance of the implantable lead assembly and the filter with respect to a current induced by an external electro-magnetic field satisfies the impedance threshold when the external electro-magnetic field has a first frequency, the combined impedance satisfies the impedance threshold when the external electro-magnetic field has a second frequency, and the combined impedance has a peak impedance value when the external electro-magnetic field has a third frequency that is between the first frequency and the second frequency. the combined impedance of the implantable lead assembly and the filter with respect to a current induced by an external electro-magnetic field satisfies the impedance threshold when the external electro-magnetic field has a first frequency, the combined impedance satisfies the impedance threshold when the external electro-magnetic field has a second frequency, and the combined impedance has a peak impedance value when the external electro-magnetic field has a third frequency that is between the first frequency and the second frequency.
Device for the use and simultaneous support of more than one camera (F1, F2), comprising a frame provided with at least two fixing parts for respective cameras, respectively a lower part and an upper part substantially placed over it; on said parts there being provided respective apparatus for reversible fixing of the cameras to the same parts; said device comprising at least one device for adjusting the vertical inclination orientation, at least about a first axis, for at least one camera, so as to allow the cameras to have their optical axes substantially converging toward the same area.
Welding power source - having a housing, which surrounds a housing interior, and - having a fan unit comprising at least one or a plurality of electrically operated fans for ventilating the housing interior, - wherein in the housing is provided a receptacle for the fan unit accessible from the outside, wherein the fan unit is inserted into the receptacle from the outside and detachably fastened in the receptacle in such manner that the fastening of the fan unit in the receptacle can be detached from the outside and the fan unit can be removed from the receptacle from the outside, characterised - in that the fan unit comprises a frame, in which the one or the plurality of fans are arranged, wherein the frame is adapted to the receptacle in the housing, and - that the frame consists of a foamed material. - having a housing, which surrounds a housing interior, and - having a fan unit comprising at least one or a plurality of electrically operated fans for ventilating the housing interior, - wherein in the housing is provided a receptacle for the fan unit accessible from the outside, wherein the fan unit is inserted into the receptacle from the outside and detachably fastened in the receptacle in such manner that the fastening of the fan unit in the receptacle can be detached from the outside and the fan unit can be removed from the receptacle from the outside, characterised - in that the fan unit comprises a frame, in which the one or the plurality of fans are arranged, wherein the frame is adapted to the receptacle in the housing, and - that the frame consists of a foamed material.
A preparation comprising - at least one probiotic strain selected from Bacillus subtilis DSM 32315, Bacillus licheniformis DSM 32314 and Bacillus amyloliquefaciens CECT 5940 and - at least one dipeptide selected from Glycine-Glutamine, Glycine-Glutamic acid and Alanine-Glutamine, wherein the total amount of probiotic strain and dipeptide is at least 40 weight-% of the total weight of the preparation. - at least one probiotic strain selected from Bacillus subtilis DSM 32315, Bacillus licheniformis DSM 32314 and Bacillus amyloliquefaciens CECT 5940 and - at least one dipeptide selected from Glycine-Glutamine, Glycine-Glutamic acid and Alanine-Glutamine,
A spark plug (1, 101, 102) comprising: a center electrode and a ground electrode (6, 61, 62) having a gap between the center electrode and the ground electrode (6, 61, 62), wherein the ground electrode (6, 61, 62) includes an outer layer (13, 131, 132) which is formed from an Ni-based alloy and a core portion (12, 121, 122) which is covered by the outer layer (13, 131, 132) and formed from material having higher thermal conductivity than that of the outer layer (13, 131, 132), characterized in that the melting point of the Ni-based alloy forming the outer layer (13, 131, 132) is 1150°C or more and 1350°C or less, and a difference between a melting start temperature and a melting completion temperature of the outer layer is 100°C or more. a center electrode and a ground electrode (6, 61, 62) having a gap between the center electrode and the ground electrode (6, 61, 62), wherein the ground electrode (6, 61, 62) includes an outer layer (13, 131, 132) which is formed from an Ni-based alloy and a core portion (12, 121, 122) which is covered by the outer layer (13, 131, 132) and formed from material having higher thermal conductivity than that of the outer layer (13, 131, 132), characterized in that the melting point of the Ni-based alloy forming the outer layer (13, 131, 132) is 1150°C or more and 1350°C or less, and a difference between a melting start temperature and a melting completion temperature of the outer layer is 100°C or more.
Method for diluting an aerosol, - wherein the aerosol is supplied as input aerosol through a supply tube (2.1) surrounded by an annular space (2.2) to a mixing stage, and output aerosol exiting via an outlet (2.3) is purified to form a particle-free purified gas, and particle-free purified gas is supplied to the annular space (2.2) upstream of the outlet (2.3) and mixed with the aerosol, - wherein the output aerosol is conducted, before purification, through an optical sensor device for determining the particle number of the output aerosol that passes through a measurement volume of the sensor device per unit of time, and the particle size, and - wherein the ratio of volume flow of the input aerosol to that of the purified gas supplied thereto is determined by means of a mass flow controller (2.4, 4). - wherein the aerosol is supplied as input aerosol through a supply tube (2.1) surrounded by an annular space (2.2) to a mixing stage, and output aerosol exiting via an outlet (2.3) is purified to form a particle-free purified gas, and particle-free purified gas is supplied to the annular space (2.2) upstream of the outlet (2.3) and mixed with the aerosol, - wherein the output aerosol is conducted, before purification, through an optical sensor device for determining the particle number of the output aerosol that passes through a measurement volume of the sensor device per unit of time, and the particle size, and - wherein the ratio of volume flow of the input aerosol to that of the purified gas supplied thereto is determined by means of a mass flow controller (2.4, 4).
A method of feeding electric current into an electric three-phase network comprising a first, second and third phase with a first, second and third voltage at a network frequency, comprising the steps: - measuring the first, second and third voltage, - transforming the first, second and third voltage into a voltage positive sequence and a voltage negative sequence using the method of symmetrical components, - calculating a first, second and third target current for feeding into the first, second and third phase respectively of the network, - wherein calculation of the first, second and third target current is effected in dependence on at least one value of the voltage positive sequence and/or the voltage negative sequence, characterised in that a calculation phase angle (φ) forms the basis for calculation of the target currents and the calculation phase angle (φ) is determined in dependence on detection of a network fault, wherein - the calculation phase angle (φ) is determined from a detected phase angle of one of the network voltages if no network fault was detected and - the calculation phase angle is determined from a phase angle of the voltage positive sequence, in particular using a predetermined network frequency (f set) if a network fault was detected. - measuring the first, second and third voltage, - transforming the first, second and third voltage into a voltage positive sequence and a voltage negative sequence using the method of symmetrical components, - calculating a first, second and third target current for feeding into the first, second and third phase respectively of the network, - wherein calculation of the first, second and third target current is effected in dependence on at least one value of the voltage positive sequence and/or the voltage negative sequence, - the calculation phase angle (φ) is determined from a detected phase angle of one of the network voltages if no network fault was detected and - the calculation phase angle is determined from a phase angle of the voltage positive sequence, in particular using a predetermined network frequency (f set) if a network fault was detected.
A display substrate, comprising: a base substrate; a color filter arranged to be in contact to the base substrate; and an overcoat layer on a side of the color filter distal to the base substrate; wherein the overcoat layer comprises a first sublayer and a second sublayer, the second sublayer on a side of the first sublayer distal to the base substrate; the first sublayer comprises a first polymer material; and the second sublayer comprises a second polymer material different from the first polymer material; wherein the overcoat layer further comprises a third sublayer between the first sublayer and the second sublayer; and the third sublayer comprises a third polymer material different from the first polymer material and the second polymer material; the third polymer material comprises a co-polymer of the first polymer material and the second polymer material; or the third polymer material comprises a poly-(acrylic-imide) co-polymer. a base substrate; a color filter arranged to be in contact to the base substrate; and an overcoat layer on a side of the color filter distal to the base substrate; wherein the overcoat layer comprises a first sublayer and a second sublayer, the second sublayer on a side of the first sublayer distal to the base substrate; the first sublayer comprises a first polymer material; and the second sublayer comprises a second polymer material different from the first polymer material; wherein the overcoat layer further comprises a third sublayer between the first sublayer and the second sublayer; and the third sublayer comprises a third polymer material different from the first polymer material and the second polymer material; the third polymer material comprises a co-polymer of the first polymer material and the second polymer material; or the third polymer material comprises a poly-(acrylic-imide) co-polymer.