mhurhangee/ep-ind-claims huggingface dataset:
Method for assigning connection information for an assembly of a charging apparatus designed for charging an electrical energy store, wherein connection information is determined by a computing apparatus for each charging apparatus (1, 10, 11) of a plurality of charging apparatuses (1, 10, 11), wherein each charging apparatus (1, 10, 11) comprises at least one phase connection (2, 3, 12-15) and the connection information for the at least one phase connection (2, 3, 12-15) specifies a permitted phase assignment from a set of a plurality of permitted phase assignments, wherein the phase assignments describe an assignment in each case of a phase of a multiphase power network to the at least one phase connection (2, 3, 12-15) during the assembly of the charging apparatus, and wherein the connection information is determined by the computing apparatus in such a way that different connection information is determined in each case for at least one pair of charging apparatuses (1, 10, 11), characterised in that after a charging apparatus (1, 10, 11) has been assembled, assembly information describing the phase assignment made during the assembly is transmitted to the computing apparatus, whereupon, if the assembly information matches the connection information assigned to the charging apparatus (1, 10, 11), the computing apparatus transmits enabling information to a communication apparatus of the charging apparatus (1, 10, 11) and/or to a mobile device, wherein a charging function of the charging apparatus (1, 10, 11) is enabled or can be enabled by the enabling information.
A method of receiving a warning message for a mobile communication system, wherein the warning message is an Earthquake and Tsunami Warning System, ETWS, message, the method comprising: monitoring a physical downlink control channel, PDCCH, periodically for a certain time period; receiving a single System Information-Radio Network Temporary Identifier, SI-RNTI, related to the warning message through the PDCCH; decoding the received single SI-RNTI on the PDCCH; receiving system information, SI, wherein the single SI-RNTI is used to address System Information Block, SIB, type 1, as well as all SI messages; and receiving the warning message based on the received system information; wherein a primary ETWS notification is contained in a SIB type 10 and a secondary ETWS notification is contained in a SIB type 11. monitoring a physical downlink control channel, PDCCH, periodically for a certain time period; receiving a single System Information-Radio Network Temporary Identifier, SI-RNTI, related to the warning message through the PDCCH; decoding the received single SI-RNTI on the PDCCH; receiving system information, SI, wherein the single SI-RNTI is used to address System Information Block, SIB, type 1, as well as all SI messages; and receiving the warning message based on the received system information; wherein a primary ETWS notification is contained in a SIB type 10 and a secondary ETWS notification is contained in a SIB type 11.
A retardation film comprising a composition or a cured product thereof, the composition comprising: an acrylate-based resin wherein the acrylate-based resin is poly(methyl methacrylate) (PMMA); a retardation adjusting agent; and a triazine-based birefringence adjusting agent, characterized in that the triazine-based birefringence adjusting agent is comprised in an amount of 6 parts by weight to 15 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation adjusting agent has a glass transition temperature of 130°C or more, is a styrene-maleic anhydride copolymer and is comprised in an amount of 30 parts by weight to 85 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation film satisfies the following Equations 2 and 3: 0.7 ≤ R in 450 / R in 550 ≤ 1.0 1.0 ≤ R in 650 / R in 550 ≤ 1.2 in Equations 2 and 3, R in (λ) is a retardation in the in-plane direction at a wavelength of λ nm and a value of (n x -n y) × d, n x is the refractive index of the retardation film surface in the slow axis direction, n y is the refractive index of the retardation film surface in the fast axis direction, and d is the thickness of the retardation film. an acrylate-based resin wherein the acrylate-based resin is poly(methyl methacrylate) (PMMA); a retardation adjusting agent; and a triazine-based birefringence adjusting agent, characterized in that the triazine-based birefringence adjusting agent is comprised in an amount of 6 parts by weight to 15 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation adjusting agent has a glass transition temperature of 130°C or more, is a styrene-maleic anhydride copolymer and is comprised in an amount of 30 parts by weight to 85 parts by weight based on 100 parts by weight of the acrylate-based resin, and the retardation film satisfies the following Equations 2 and 3: 0.7 ≤ R in 450 / R in 550 ≤ 1.0 1.0 ≤ R in 650 / R in 550 ≤ 1.2 in Equations 2 and 3, R in (λ) is a retardation in the in-plane direction at a wavelength of λ nm and a value of (n x -n y) × d, n x is the refractive index of the retardation film surface in the slow axis direction, n y is the refractive index of the retardation film surface in the fast axis direction, and d is the thickness of the retardation film. in Equations 2 and 3, R in (λ) is a retardation in the in-plane direction at a wavelength of λ nm and a value of (n x -n y) × d, n x is the refractive index of the retardation film surface in the slow axis direction, n y is the refractive index of the retardation film surface in the fast axis direction, and d is the thickness of the retardation film.
Steering device (I; II; III; IV; V) for mutually steering a first vehicle unit and a second vehicle unit of an articulated vehicle, which steering device (I; II; III; IV; V) comprises a substantially vertical link shaft about which said vehicle units (2, 3) are pivotable, first and second steering elements (60, 70; 260, 270; 460; 470; 560; 570) arranged to mutually turn said vehicle units (2, 3), characterized in that a substantially self-supporting housing configuration (52; 252; 352; 452; 552) is arranged to form a supply space between said vehicle units (2, 3), wherein said housing configuration (52; 252; 352; 452; 552) has ballistic protective properties protecting against effective fire.
A method for manufacturing a three-dimensional shaped object, the method comprising the repeated steps of: (i) forming a solidified layer by irradiating a predetermined portion of a powder layer with a light beam, thereby allowing a sintering of the powder in the predetermined portion or a melting and subsequent solidification thereof; and (ii) forming another solidified layer by newly forming a powder layer on the resulting solidified layer, followed by the irradiation of a predetermined portion of the powder layer with the light beam, wherein a part of a surface portion of the three-dimensional shaped object is formed as a low-density solidified portion whose solidified density ranges from 50% to 90% so that an application of pressure can be performed by a gas flowing through the low-density solidified portion, characterised in that a hollow portion communicating with the low-density solidified portion is formed in the three-dimensional shaped object, and in that a solidified portion which supports the low-density solidified portion is formed in the hollow portion. (i) forming a solidified layer by irradiating a predetermined portion of a powder layer with a light beam, thereby allowing a sintering of the powder in the predetermined portion or a melting and subsequent solidification thereof; and (ii) forming another solidified layer by newly forming a powder layer on the resulting solidified layer, followed by the irradiation of a predetermined portion of the powder layer with the light beam,
A floating device for treating gases emitted by wastewater contained in a wastewater container, said floating device comprising [a] a first surface which when the floating device is floating on the wastewater surface is oriented towards said wastewater surface, [b] a second surface, opposite to said first surface, and [c] a photocatalytic surface arranged on at least part of the surface of said floating device, such that when the floating device is floating on the wastewater surface, when said gases emitted by said wastewater flow by said photocatalytic surface, said gases are treated by photocatalysis, characterized in that said floating device further comprises [d] at least one first opening extending in the direction from said first surface to said second surface, said at least one first opening defining an inner surface, and [e] said photocatalytic surface is arranged at least on said inner surface of said one first opening. [a] a first surface which when the floating device is floating on the wastewater surface is oriented towards said wastewater surface, [b] a second surface, opposite to said first surface, and [c] a photocatalytic surface arranged on at least part of the surface of said floating device, such that when the floating device is floating on the wastewater surface, when said gases emitted by said wastewater flow by said photocatalytic surface, said gases are treated by photocatalysis, characterized in that said floating device further comprises [d] at least one first opening extending in the direction from said first surface to said second surface, said at least one first opening defining an inner surface, and [e] said photocatalytic surface is arranged at least on said inner surface of said one first opening.
A washing machine comprising a tub in which washing takes place, a tub drain outlet having an inner wall and draining water out of the tub after washing, and a circular flap disposed in the tub drain outlet, characterized in that the flap comprises one first wing and one second wing disposed at an obtuse angle (α) to each other, and that the flap is connected to the tub drain outlet so that the flap is partially rotatable about an assembly axis (a) defined by a folding line joining together the first wing and the second wing.
Heat exchange device with a first media channel for a first medium and a second media channel for a second medium, wherein in at least one section of the heat exchange device a third media channel for a transfer medium is formed between the first media channel and the second media channel, so that exchange of heat takes place from the first medium to the second medium via the transfer medium, characterised in that the third media channel for the transfer medium is arranged only in a section of the heat exchange device between the first media channel and the second media channel.
A method for producing a layered semi-finished product for further processing to a fiber-reinforced composite component in a tool for consolidating, wherein the semi-finished product has a layer sequence, which comprises at least one layer of an unconsolidated reinforcing-fiber structure and at least one layer comprising one or a plurality of metal inserts and which is arranged between an upper and a lower film (2, 1), wherein either the upper and the lower film (2, 1) are made of thermoplastic matrix material or the layer sequence, in addition to the reinforcing-fiber structure and to the at least one layer comprising one or a plurality of metal inserts, further has a matrix material, characterized in that a. the layer sequence is arranged between the upper and the lower film (2, 1), b. the protruding edges of the upper and the lower film (2, 1) are connected to one another, c. the volume between upper and lower film (2, 1) is evacuated and d. the semi-finished product is deformed such that a mold of the semi-finished product, which corresponds to the geometry of the tool for consolidating and which is curved once or several times, is created, wherein at least one of the curvatures runs through at least one of the metal inserts, e. wherein steps b. and c. are carried out in any desired sequence prior to step d., at the same time or so as to overlap. a. the layer sequence is arranged between the upper and the lower film (2, 1), b. the protruding edges of the upper and the lower film (2, 1) are connected to one another, c. the volume between upper and lower film (2, 1) is evacuated and d. the semi-finished product is deformed such that a mold of the semi-finished product, which corresponds to the geometry of the tool for consolidating and which is curved once or several times, is created, wherein at least one of the curvatures runs through at least one of the metal inserts, e. wherein steps b. and c. are carried out in any desired sequence prior to step d., at the same time or so as to overlap.
A method for controlling a belt force limiter for a vehicle safety belt in a vehicle provided with sensors (102, 302) for detecting objects in front of the vehicle, said method comprising the steps of: • using one or several closing velocity sensor(-s) (102, 302) capable of sensing the relative velocity and direction of an object in at least two different spatial areas and being able to distinguish the sensed signals from each other; • generating sensor signals corresponding to the sensed condition in the at least two spatial areas such that area specific signals are generated dependent on the relative velocity and direction of said object; • transmitting the sensor signals from the closing velocity sensor(s) (102, 302) to a restraints control module; • using the sensor signals from the closing velocity sensor(s) (102, 302) in the restraints control module for generating a control signal, said control signal being generated in dependence on the spatial area wherefrom the signals originate; • transmitting said control signal to an adaptive belt load limiter; and • controlling the adaptive belt load limiter according to the control signal, wherein said restraints control module is provided with or connected to a look up table, said look up table comprising a crash type classification scheme, such that different crash types are classified based on the sensor signals from the closing velocity sensor(s) (102, 302) corresponding to the detection of the relative velocity and direction of an object in the at least two different spatial areas and a control signal is generated by the restraints control module by using said look up table. • using one or several closing velocity sensor(-s) (102, 302) capable of sensing the relative velocity and direction of an object in at least two different spatial areas and being able to distinguish the sensed signals from each other; • generating sensor signals corresponding to the sensed condition in the at least two spatial areas such that area specific signals are generated dependent on the relative velocity and direction of said object; • transmitting the sensor signals from the closing velocity sensor(s) (102, 302) to a restraints control module; • using the sensor signals from the closing velocity sensor(s) (102, 302) in the restraints control module for generating a control signal, said control signal being generated in dependence on the spatial area wherefrom the signals originate; • transmitting said control signal to an adaptive belt load limiter; and • controlling the adaptive belt load limiter according to the control signal, wherein said restraints control module is provided with or connected to a look up table, said look up table comprising a crash type classification scheme, such that different crash types are classified based on the sensor signals from the closing velocity sensor(s) (102, 302) corresponding to the detection of the relative velocity and direction of an object in the at least two different spatial areas and a control signal is generated by the restraints control module by using said look up table.
A device for treating a bone, comprising: a bone plate having a length extending along a longitudinal axis thereof and a width transverse thereto and including first and second portions (522, 524) joined to one another via a connecting portion; a first sensor mounted on the first portion measuring strain on the first portion; and a second sensor mounted on the second portion measuring strain on the second portion, characterized in that the connecting portion has a width smaller than widths of the first and second portions (522, 524) and a rigidity of the connecting portion is less than rigidities of each of the first and second portions (522, 524). a bone plate having a length extending along a longitudinal axis thereof and a width transverse thereto and including first and second portions (522, 524) joined to one another via a connecting portion; a first sensor mounted on the first portion measuring strain on the first portion; and a second sensor mounted on the second portion measuring strain on the second portion, characterized in that the connecting portion has a width smaller than widths of the first and second portions (522, 524) and a rigidity of the connecting portion is less than rigidities of each of the first and second portions (522, 524).
A component carrier comprising: a tray, having a bottom surface, the bottom surface of the tray having a groove formed therein; a slide cage, movably coupled with the tray and having a receiving space and an undercarriage; and a lever, pivotally coupled with the slide cage characterised in that: the lever comprises a lower portion for engaging the groove to transfer the slide cage between a first position and a second position; a tilting mechanism, coupled with the tray and configured for biasing the slide cage to the second position; wherein in the first position, the undercarriage of the slide cage is positioned proximally to the bottom surface of the tray; wherein in the second position, a first end portion of the undercarriage of the slide cage is displaced away from the bottom surface and a second end portion is positioned proximally to the bottom surface of the tray. a tray, having a bottom surface, the bottom surface of the tray having a groove formed therein; a slide cage, movably coupled with the tray and having a receiving space and an undercarriage; and a lever, pivotally coupled with the slide cage characterised in that: the lever comprises a lower portion for engaging the groove to transfer the slide cage between a first position and a second position; a tilting mechanism, coupled with the tray and configured for biasing the slide cage to the second position; wherein in the first position, the undercarriage of the slide cage is positioned proximally to the bottom surface of the tray; wherein in the second position, a first end portion of the undercarriage of the slide cage is displaced away from the bottom surface and a second end portion is positioned proximally to the bottom surface of the tray.
A divided conduit comprising: a thermoplastic conduit having an inner and outer surface, and at least one strip-shaped substrate having a first longitudinal edge and a second longitudinal edge, wherein the substrate is selected from the group consisting of a strip-shaped textile and a strip-shaped film, characterized in that at least one of the first longitudinal and second longitudinal edges (200a, b) of the strip-shaped substrate is embedded into the thermoplastic material of the thermoplastic conduit and resides within the inner surface of the conduit forming at least two flexible, longitudinal channels (310, 320, 330) for enveloping cables. a thermoplastic conduit having an inner and outer surface, and at least one strip-shaped substrate having a first longitudinal edge and a second longitudinal edge, wherein the substrate is selected from the group consisting of a strip-shaped textile and a strip-shaped film, characterized in that at least one of the first longitudinal and second longitudinal edges (200a, b) of the strip-shaped substrate is embedded into the thermoplastic material of the thermoplastic conduit and resides within the inner surface of the conduit forming at least two flexible, longitudinal channels (310, 320, 330) for enveloping cables.
A high zirconia fused cast refractory which has a chemical composition comprising from 86 to 96 mass% of ZrO 2, from 2.5 to 8.5 mass% of SiO 2, from 0.4 to 3 mass% of Al 2 O 3, from 0.5 to 1.5 mass% of K 2 O, at most 0.04 mass% of B 2 O 3, at most 0.04 mass% of P 2 O 5 and at most 3.8 mass% of Cs 2 O and containing at most 0.04 mass% Na 2 O, wherein the total content of Y 2 O 3 and CaO is at most 0.3 mass%.
An apparatus for producing a thermoplastic resin film, in which when a molten thermoplastic resin is cast from an extrusion die onto a cooling drum, to be cooled and solidified on the cooling drum, for producing a thermoplastic resin film, air is sprayed by spray nozzles toward the film on the side of the film surface not in contact with the cooling drum (hereinafter referred to as the anti-cooling drum-side surface), while the air near the film is sucked by an inter-nozzle exhaust mechanism simultaneously on the side of the anti-cooling drum-side surface, wherein the suction faces of the inter-nozzle exhaust mechanism are installed at positions recessed from the tip faces of the spray nozzles in the direction farther away from the film, and the inter-nozzle exhaust mechanism is installed behind the rear faces of the spray nozzles, and through openings are formed between the respective spray nozzles, characterized in than the inter-nozzle exhaust mechanism is perfectly separated from the spray nozzles, such that none of the spray nozzles is kept in contact with the suction face.
A 6xxx aluminum alloy consisting of: 1.00 - 1.45 wt. % Si; 0.32 - 0.51 wt. % Mg; wherein a ratio of wt. % Si to wt. % Mg is in the range of from 2.0: 1 (Si:Mg) to 4.5: 1 (Si:Mg); 0.12 - 0.44 wt. % Cu; 0.08 - 0.30 wt. % Fe; 0.02 - 0.09 wt. % Mn; 0.01 - 0.06 wt. % Cr; 0.01 -0.14 wt. % Ti; ≤ 0.25 wt. % Zn; the balance being aluminum and impurities, wherein the aluminum alloy includes ≤ 0.05 wt. % of any one impurity, and wherein the aluminum alloy includes ≤ 0.15 in total of all impurities. 1.00 - 1.45 wt. % Si; 0.32 - 0.51 wt. % Mg; wherein a ratio of wt. % Si to wt. % Mg is in the range of from 2.0: 1 (Si:Mg) to 4.5: 1 (Si:Mg); 0.12 - 0.44 wt. % Cu; 0.08 - 0.30 wt. % Fe; 0.02 - 0.09 wt. % Mn; 0.01 - 0.06 wt. % Cr; 0.01 -0.14 wt. % Ti; ≤ 0.25 wt. % Zn; the balance being aluminum and impurities, wherein the aluminum alloy includes ≤ 0.05 wt. % of any one impurity, and wherein the aluminum alloy includes ≤ 0.15 in total of all impurities.