mhurhangee/ep-ind-claims huggingface dataset:
A harvesting machine, in particular a self-propelled combine harvester for harvesting grain, comprising: - at least one cutting assembly for cutting plants to be harvested by means of the harvesting machine, - at least one conveyor means for conveying the cut plants, - at least one longitudinally extending threshing means which can be driven in rotation about a rotary axis, by means of which fruits can be removed from the cut plants such that the fruits provided are then detached from the plant residues of the cut plants, - at least one longitudinally extending impeller which can be driven in rotation about a rotary axis, as well as - at least one separating device for separating fruits detached from plant residues, wherein the cut plants can be conveyed to the threshing means by means of the conveyor means, wherein, by means of the impeller, a flow of crop emanating from the threshing means, containing both loose fruits as well as plant residues, can be transferred to the separating device which is connected downstream, wherein by means of the impeller, at least one main flow direction of the flow of crop can be varied, wherein the impeller has a plurality of longitudinally extending radial bars extending between opposite ends of the impeller and which respectively extend radially outwardly with respect to the rotary axis of the impeller, wherein the impeller is open in configuration, such that a volumetric air flow can pass radially through it, characterized in that at least a portion of the radial bars, preferably all of the radial bars, has or have at least two action sections with respect to the cross section, namely a radially outwardly located reflecting section as well as a radially inwardly located conveying section, wherein preferably, the reflecting section and the conveying section are inclined in opposite directions with respect to a radial extending outwards from the rotary axis of the impeller, and in that the conveying section - with respect to the cross section of the respective radial bar - is curved in configuration, at least in sections. - at least one cutting assembly for cutting plants to be harvested by means of the harvesting machine, - at least one conveyor means for conveying the cut plants, - at least one longitudinally extending threshing means which can be driven in rotation about a rotary axis, by means of which fruits can be removed from the cut plants such that the fruits provided are then detached from the plant residues of the cut plants, - at least one longitudinally extending impeller which can be driven in rotation about a rotary axis, as well as - at least one separating device for separating fruits detached from plant residues,
An application processing method for an embedded universal integrated circuit card, eUICC, comprising: activating, by a terminal device, the eUICC; characterized in that the method further comprises selecting, by a modem of the terminal device, an Issuer Security Domain Root, ISD-R, application of the eUICC during an initialization process of the eUICC; obtaining, by a local profile assistant, LPA, in the terminal device, eUICC information during the initialization process of the eUICC, wherein the eUICC information includes at least one of eUICC identity information, information about a profile on the eUICC, or eUICC capability information. selecting, by a modem of the terminal device, an Issuer Security Domain Root, ISD-R, application of the eUICC during an initialization process of the eUICC; obtaining, by a local profile assistant, LPA, in the terminal device, eUICC information during the initialization process of the eUICC, wherein the eUICC information includes at least one of eUICC identity information, information about a profile on the eUICC, or eUICC capability information.
Magnetic-inductive flow meter, with a plurality of functional units and with a housing which is common to all functional units, wherein each functional unit has at least one measuring tube for the flow of an electrically conductive medium, a magnetic field generating apparatus having a field coil for generating a magnetic field which runs at least also perpendicular to the longitudinal axis of the measuring tube, and at least two measuring electrodes (3, 4), and wherein the virtual connecting line of the two measuring electrodes (3, 4) runs at least essentially perpendicular to the direction of the magnetic field permeating the measuring tube perpendicular to the longitudinal axis of the measuring tube, and wherein in the housing for the measuring tubes of all functional units, a common medium inflow connection or a common medium outflow connection is implemented and/or for the magnetic field generating apparatus of all functional units, a common power supply is implemented and/or for the measuring electrodes (3, 4) of all functional units, a common evaluation unit is implemented, characterized in that the field coil is connected on either side to one magnetic field guidance part which runs perpendicular to the coil axis, that the magnetic field guidance parts on their ends away from the field coil each have one pole shoe, the two pole shoes are aligned to one another and the measuring tube runs between the two pole shoes, and that within one pole shoe, there is one channel for the penetration of a connecting line (21, 22) which leads to a measuring electrode (3, 4).
A pallet, comprising: an upper deck; a plurality of first joining members that project downwardly from the upper deck; a lower deck; and a plurality of second joining members that project upwardly from the lower deck, wherein the plurality of first joining members include a first sleeve having a male portion therein, wherein the male portion extends in a same direction as the first sleeve, wherein the plurality of second joining members include a second sleeve having a female portion therein and radial ribs that couple the second sleeve and the female portion, wherein the female portion extends in a same direction as the second sleeve, wherein the first sleeve is configured to slidingly receive the second sleeve to form a pallet block that joins the upper deck and the lower deck, wherein the pallet block includes a plurality of pallet block walls defined by the first sleeve and the second sleeve, and wherein, when fully inserted, a tip portion of the male portion extends beyond an end portion of the female portion, characterized in that the upper deck and the lower deck are separately molded from thermoplastic materials, and a perimeter of the tip portion of the male portion has been made by reforming using a heat staking assembly process that includes using sufficient heat and pressure to reform the tip portion to include a larger perimeter size than a perimeter of the end portion of the female portion to mechanically lock the upper deck and the lower deck. an upper deck; a plurality of first joining members that project downwardly from the upper deck; a lower deck; and a plurality of second joining members that project upwardly from the lower deck, wherein the plurality of first joining members include a first sleeve having a male portion therein, wherein the male portion extends in a same direction as the first sleeve, wherein the plurality of second joining members include a second sleeve having a female portion therein and radial ribs that couple the second sleeve and the female portion, wherein the female portion extends in a same direction as the second sleeve, wherein the first sleeve is configured to slidingly receive the second sleeve to form a pallet block that joins the upper deck and the lower deck, wherein the pallet block includes a plurality of pallet block walls defined by the first sleeve and the second sleeve, and wherein, when fully inserted, a tip portion of the male portion extends beyond an end portion of the female portion, characterized in that the upper deck and the lower deck are separately molded from thermoplastic materials, and a perimeter of the tip portion of the male portion has been made by reforming using a heat staking assembly process that includes using sufficient heat and pressure to reform the tip portion to include a larger perimeter size than a perimeter of the end portion of the female portion to mechanically lock the upper deck and the lower deck.
Tomato plant which is resistant to Phytophtora infestans, characterized in that the plant has a reduced level or complete absence of DMR6 protein as compared to the plant that is not resistant to the said pathogen wherein said plant has a mutation in its DMR6 gene resulting in a reduced DMR6 expression as compared to the wild-type DMR6 gene wherein no such mutation is present.
A display case for exhibiting objects, comprising a support base for at least a display plane and for at least a first shell comprising at least a crystal delimiting wall (5, 6, 7, 8), said at least a first shell being suitable for delimiting with said at least a display plane at least a portion of display space, characterised in that it comprises at least a first linear guide for supporting said at least a first shell slidably bi-directionally between a retracted position on the base and a position that projects from the base, said at least a first linear guide comprising a fixed guide portion solidly constrained to the base and a mobile guide portion solidly constrained to the first shell, said fixed guide portion comprising at least a first rail for one or more first support bearings solidly constrained to said mobile guide portion, said mobile guide portion comprising a rail, parallel to said at least a first rail of said fixed guide portion, for one or more second support bearings solidly constrained to said fixed guide portion, said display plane being associated to said fixed guide portion by means of one or more third bearings for the support of the display plane slidably independently and parallel to said first shell.
A microfluidic device comprising a multidimensional double spiral (MDDS), wherein the MDDS comprises: a. a first spiral microchannel comprising a first inlet; b. a second spiral microchannel in fluid communication with the first spiral microchannel and comprising an inner wall outlet and an outer wall outlet, wherein the inner wall outlet is located on the inner wall side of the microchannel and the outer wall outlet is located on the outer wall side of the microchannel; and c. a transition region, wherein the transition region is a microchannel that connects the first and second spiral microchannels, wherein the output from the first spiral microchannel is directed into the second spiral microchannel in the transition region; characterized in that the first spiral microchannel has a smaller cross-sectional area than the second spiral microchannel; wherein the cross-sectional area of the first spiral microchannel remains constant along its length and wherein the cross-sectional area of the second spiral microchannel remain constant along its length; and wherein the MDDS is configured to separate particles from a sample fluid comprising a mixture of particles. a. a first spiral microchannel comprising a first inlet; b. a second spiral microchannel in fluid communication with the first spiral microchannel and comprising an inner wall outlet and an outer wall outlet, wherein the inner wall outlet is located on the inner wall side of the microchannel and the outer wall outlet is located on the outer wall side of the microchannel; and c. a transition region, wherein the transition region is a microchannel that connects the first and second spiral microchannels, wherein the output from the first spiral microchannel is directed into the second spiral microchannel in the transition region; characterized in that the first spiral microchannel has a smaller cross-sectional area than the second spiral microchannel; wherein the cross-sectional area of the first spiral microchannel remains constant along its length and wherein the cross-sectional area of the second spiral microchannel remain constant along its length; and wherein the MDDS is configured to separate particles from a sample fluid comprising a mixture of particles.
Lane-change assistance system for a motor vehicle for the automated performance of lane changes with at least automated transverse guidance, which system is configured - to ascertain, on the basis of information from a navigation system for navigation, that a plurality of lane changes proceeding from the current lane to a target lane different from the current lane are required in order to follow active navigation, performed by means of the navigation system, to a navigation target; - to inform the driver of a need to change lanes, before the automated performance of the plurality of lane changes required, - to ascertain the presence of a triggering operation action by the driver for triggering the multiple lane changes required, wherein only a single operation action is required as triggering operation action to trigger the plurality of lane changes, and - in reaction to ascertaining the presence of the triggering operation action, to perform successively in an automated manner the plurality of lane changes required proceeding from the current lane to the target lane different from the current lane with at least automated transverse guidance. - to ascertain, on the basis of information from a navigation system for navigation, that a plurality of lane changes proceeding from the current lane to a target lane different from the current lane are required in order to follow active navigation, performed by means of the navigation system, to a navigation target; - to inform the driver of a need to change lanes, before the automated performance of the plurality of lane changes required, - to ascertain the presence of a triggering operation action by the driver for triggering the multiple lane changes required, wherein only a single operation action is required as triggering operation action to trigger the plurality of lane changes, and - in reaction to ascertaining the presence of the triggering operation action, to perform successively in an automated manner the plurality of lane changes required proceeding from the current lane to the target lane different from the current lane with at least automated transverse guidance.
A gaming chip (10, 16), wherein the gaming chip (10, 16) is formed of a plurality of plastic layers, a representation of a type of the gaming chip (10, 16) is printed on a surface of the gaming chip (10, 16), an authenticity recognition mark is printed more inwardly than the printing of the representation of the type of the gaming chip (10, 16), wherein the authenticity recognition mark is printed by an infrared absorbing material printed on a surface of a plastic layer other than the surface of the gaming chip, and the authenticity recognition mark is irradiated with infrared rays from a side printed with the representation of the type of the gaming chip (10, 16) printed on the surface of the gaming chip (10, 16) by an infrared camera to allow an infrared absorbing material printed more inwardly than the printing of the representation of the type of the gaming chip (10, 16) to record and discriminate the authenticity recognition mark. the gaming chip (10, 16) is formed of a plurality of plastic layers, a representation of a type of the gaming chip (10, 16) is printed on a surface of the gaming chip (10, 16), an authenticity recognition mark is printed more inwardly than the printing of the representation of the type of the gaming chip (10, 16), wherein the authenticity recognition mark is printed by an infrared absorbing material printed on a surface of a plastic layer other than the surface of the gaming chip, and the authenticity recognition mark is irradiated with infrared rays from a side printed with the representation of the type of the gaming chip (10, 16) printed on the surface of the gaming chip (10, 16) by an infrared camera to allow an infrared absorbing material printed more inwardly than the printing of the representation of the type of the gaming chip (10, 16) to record and discriminate the authenticity recognition mark.
A camera module for a motor vehicle, in particular for driver monitoring in the passenger compartment, comprising at least one printed circuit board and an electromagnetic shield for enclosing said printed circuit board, wherein said electromagnetic shield comprises at least a first shielding part and a second shielding part, wherein said first shielding part is a ring shaped part and said second shielding part is a hat shaped part put over, enclosing, and contacting said first shielding part, wherein said first shielding part comprises an essentially strip-shaped body part mountable along the circumference of the at least one printed circuit board to enclose at least 210° of the at least one printed circuit board, and said second shielding part comprises a top part and one or more side parts.
Secondary radar comprising at least a first sub-system and a second subsystem which each include transmission means for the interrogations, for receiving and processing signals in response carrying out a radar surveillance function SSR, the second sub-system being capable of operating during redundancy of the first sub-system, the two sub-systems simultaneously carrying out the radar surveillance function, the secondary radar comprising: - a first antenna (21, 43, 51, 53) which is capable of being moved in rotation and which is coupled to the first sub-system via a rotating joint and a second antenna (22, 44, 52, 54) which is coupled to the second sub-system via the rotating joint, the main planes of the antennae being fixedly joined mechanically and mounted back-to-back, - distribution means (7, 27, 28) for the data extracted from the two subsystems, the data extracted from each sub-system being refreshed with each revolution of the antenna, characterised in that a rear radiating element (43, 53) which constitutes the first antenna (21, 51) being placed in the plane of the second antenna (22, 52) and a radiating element (44, 54) which constitutes the second antenna (22, 52) being placed in the plane of the first antenna (21, 51), the two sub-systems (10A, 10B) exchanging with each revolution of the antenna the plots SSR/Mode S and the information obtained with the mode S targets and the track numbers created during this revolution in order to ensure complete similarity between the two sub-systems. - a first antenna (21, 43, 51, 53) which is capable of being moved in rotation and which is coupled to the first sub-system via a rotating joint and a second antenna (22, 44, 52, 54) which is coupled to the second sub-system via the rotating joint, the main planes of the antennae being fixedly joined mechanically and mounted back-to-back, - distribution means (7, 27, 28) for the data extracted from the two subsystems, the data extracted from each sub-system being refreshed with each revolution of the antenna,
A core-sheath composite cross-section fiber, comprising: a thermoplastic polymer as a core polymer; and a polyamide having a dicarboxylic acid unit having, as a main component, a sebacic acid unit as a sheath polymer, the core-sheath composite cross-section fiber having a ΔMR of 5.0% or more, a ΔMR retention rate after 20 times of washing of 90% or more and 100% or less, a boiling-water shrinkage ratio of 6.0 to 12.0%, and a stress per unit fineness during 3% elongation in a fiber tensile test of 0.60 cN/dtex or more, wherein the thermoplastic polymer is a polyether ester amide copolymer, wherein the ΔMR, the ΔMR retention rate after 20 times of washing, the boiling-water shrinkage ratio, and the stress per unit fineness during 3% elongation are measured as described in the description. a thermoplastic polymer as a core polymer; and a polyamide having a dicarboxylic acid unit having, as a main component, a sebacic acid unit as a sheath polymer, the core-sheath composite cross-section fiber having a ΔMR of 5.0% or more, a ΔMR retention rate after 20 times of washing of 90% or more and 100% or less, a boiling-water shrinkage ratio of 6.0 to 12.0%, and a stress per unit fineness during 3% elongation in a fiber tensile test of 0.60 cN/dtex or more, wherein the thermoplastic polymer is a polyether ester amide copolymer, wherein the ΔMR, the ΔMR retention rate after 20 times of washing, the boiling-water shrinkage ratio, and the stress per unit fineness during 3% elongation are measured as described in the description.
An organic light-emitting device comprising: a first electrode; a second electrode; and an organic layer between the first electrode and the second electrode; the organic layer comprises an emission layer; the emission layer comprises a host, a cooling dopant, and a sensitizer, wherein the cooling dopant and the sensitizer satisfy Conditions 1, 2 and 3, and the sensitizer comprises platinum (Pt): T decay CD < T decay S T decay CD < 1.5 μs T decay CD / T decay S < 0.5 wherein, in Conditions 1, 2 and 3, T decay is a decay time of the cooling dopant, and T decay is a decay time of the sensitizer; wherein the decay time of the cooling dopant is calculated from a time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the dopant comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr, and the decay time of the sensitizer is calculated from time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the sensitizer comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr. a first electrode; a second electrode; and an organic layer between the first electrode and the second electrode; the organic layer comprises an emission layer; the emission layer comprises a host, a cooling dopant, and a sensitizer, wherein the cooling dopant and the sensitizer satisfy Conditions 1, 2 and 3, and the sensitizer comprises platinum (Pt): T decay CD < T decay S T decay CD < 1.5 μs T decay CD / T decay S < 0.5 wherein, in Conditions 1, 2 and 3, T decay is a decay time of the cooling dopant, and T decay is a decay time of the sensitizer; wherein the decay time of the cooling dopant is calculated from a time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the dopant comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr, and the decay time of the sensitizer is calculated from time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the sensitizer comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr.