mhurhangee/ep-ind-claims huggingface dataset:
Method for determining an eye position of a person, said person being outside a vehicle, said method comprising the steps of: a) capturing a first set of data of said person by means of a first camera of said vehicle, said captured first set of data being representative of a first body posture of said person, b) capturing a second set of data of said person by means of a second camera of said vehicle, said captured second set of data being representative of a second body posture of said person, said second body posture being different from said first body posture, c) using said first and second sets of data as input for estimation of body parameters of said person, said body parameters comprising a leg length, a body height, a half head height and a torso length, said estimation comprising estimation of the position of a movement node (10L, 10R, 12L, 12R, 14, 16, 18L, 18R, 20L, 20R) corresponding to a body joint of said person, c2) using said first and second sets of data as input for estimation of said eye position of said person, the eye position being measured from the upper end of the torso, wherein said estimation of said eye position in step c2) comprises assumption of at least one of the following rules: - half head height < eye position, - body height < (leg length + torso length + 2 x eye position), - body height > (leg length + torso length + eye position). a) capturing a first set of data of said person by means of a first camera of said vehicle, said captured first set of data being representative of a first body posture of said person, b) capturing a second set of data of said person by means of a second camera of said vehicle, said captured second set of data being representative of a second body posture of said person, said second body posture being different from said first body posture, c) using said first and second sets of data as input for estimation of body parameters of said person, said body parameters comprising a leg length, a body height, a half head height and a torso length, said estimation comprising estimation of the position of a movement node (10L, 10R, 12L, 12R, 14, 16, 18L, 18R, 20L, 20R) corresponding to a body joint of said person, c2) using said first and second sets of data as input for estimation of said eye position of said person, the eye position being measured from the upper end of the torso, wherein said estimation of said eye position in step c2) comprises assumption of at least one of the following rules: - half head height < eye position, - body height < (leg length + torso length + 2 x eye position), - body height > (leg length + torso length + eye position). - half head height < eye position, - body height < (leg length + torso length + 2 x eye position), - body height > (leg length + torso length + eye position).
A method for controlling the output power from a renewable energy installation, comprising: controlling an output power of a plurality of electricity generators (12, 14, 16) using monitored power signals, wherein the controlling comprises: (a) processing the monitored power signals to produce an output signal (P out); (b) constraining the output signal (P out) to an upper limit (P t-n + ΔP) via a limiter, wherein the upper limit comprises a predetermined upper bound for a variation in output power per unit of time; (c) applying the constrained output signal (P out) to the plurality of electricity generators (12, 14, 16) to limit the variation in output power per unit of time according to the predetermined bound, characterized in that processing the monitored power signals comprises: determining a schedule power (P t-n + ΔP) based on a predetermined bound for a variation in output power per unit of time with respect to an output power (P t-n) measured at an earlier unit of time; computing an error signal (e) from a difference between the schedule power and a measured power (P meas); and processing the error signal (e) via a control algorithm of a controller to produce the output signal. (a) processing the monitored power signals to produce an output signal (P out); (b) constraining the output signal (P out) to an upper limit (P t-n + ΔP) via a limiter, wherein the upper limit comprises a predetermined upper bound for a variation in output power per unit of time; (c) applying the constrained output signal (P out) to the plurality of electricity generators (12, 14, 16) to limit the variation in output power per unit of time according to the predetermined bound, determining a schedule power (P t-n + ΔP) based on a predetermined bound for a variation in output power per unit of time with respect to an output power (P t-n) measured at an earlier unit of time; computing an error signal (e) from a difference between the schedule power and a measured power (P meas); and processing the error signal (e) via a control algorithm of a controller to produce the output signal.
A system for repositioning teeth, said system comprising one or more position adjustment appliance, each appliance comprising a shell having cavities shaped to receive and reposition teeth, wherein the system comprises a plurality of said position adjustment appliances to be worn successively by a patient to move teeth from one arrangement to a successive arrangement, at least one of the appliances being a multi-layer shell appliance shaped to receive only upper arch teeth or lower arch teeth of the patient, the multi-layer shell appliance comprising: a first layer, and a second layer, wherein the first layer, and the second layer are continuous layers in a laminar structure, wherein the first layer comprises a first polymeric material having a molecular structure which provides a first elastic modulus and the same appliance further comprising a second layer comprising a second polymeric material of a different type having a molecular structure which provides a second elastic modulus, wherein the first material is stiffer than the second material, and the first layer is configured to engage the patient's teeth, and wherein at least one of the appliances comprises a shell having a different geometry than that of at least one other appliance. a first layer, and a second layer, wherein the first layer, and the second layer are continuous layers in a laminar structure, wherein the first layer comprises a first polymeric material having a molecular structure which provides a first elastic modulus and the same appliance further comprising a second layer comprising a second polymeric material of a different type having a molecular structure which provides a second elastic modulus, wherein the first material is stiffer than the second material, and the first layer is configured to engage the patient's teeth, and wherein at least one of the appliances comprises a shell having a different geometry than that of at least one other appliance.
Drive comprising an electric motor and a gearing, the casing of the gearing having a casing part and a lid part, which are interconnected, a bayonet guide region being formed on the casing part, the electric motor having a rotor shaft and a motor casing, the rotor shaft being rotatably mounted in the motor casing by means of at least one bearing, an adapter flange being non-rotatably connected to the motor casing, characterised in that the adapter flange has a lug region in the form of a bayonet lug for engaging behind the bayonet guide region, the bayonet guide region protruding into an opening of the casing part, the opening being defined in the circumferential direction by a retaining rib, which is shaped on the casing part and extends in the radial direction from a bearing receptacle (4, 5, 6) of the bearing of the input shaft of the gearing, based on the axial direction of the input shaft, the opening being defined in the opposite direction to the circumferential direction by a further retaining rib, which is shaped on the casing part and extends in the radial direction from a bearing receptacle (4, 5, 6) of the bearing of the input shaft.
Method for operating a transmitting device of a motor vehicle, in which the transmitting device is operated in a private mode or in a transmitting mode, wherein the transmitting device in the transmitting mode transmits vehicle data to a computing device external to the vehicle and in the private mode transmission of the vehicle data is stopped, characterised in that a switchover from the transmitting mode into the private mode takes place as soon as a successful authentication of a specified user action has been captured, wherein the transmitting device switches over from the private mode into the transmitting mode in dependence on a time and/or the transmitting device switches over from the private mode into the transmitting mode when receiving status information of a vehicle parameter, wherein the vehicle parameter is one of the following: - a location parameter, - a country parameter or - an elapsed number of terminal 15 changes. - a location parameter, - a country parameter or - an elapsed number of terminal 15 changes.
A catalyst composition comprising: (a) a support portion comprising an acidic mixed metal oxide comprising a transitional alumina, wherein the transitional alumina comprises delta or theta phase alumina, and a second metal oxide comprising silicon, wherein the second metal oxide has a weight percentage that is less than the weight percentage of alumina, and (b) a catalyst portion loaded on the support portion, the catalyst portion comprising (i) from 3 to 13 wt.% cobalt, (ii) from 1 to 2.5 wt.% nickel and from 4.2 to 6.0 wt.% cobalt, (iii) from 2.5 to 4.5 wt.% nickel and from 2.5 to 4.5 wt.% cobalt, or (iv) from 6.0 to 9.0 wt.% nickel, from 6.0 to 9.0 wt.% cobalt and from 2.0 to 5.0 wt.% copper, each wt.% based on the total weight of the catalyst composition. wherein the expression "catalyst portion" refers to the total amount of catalytic metal in the catalyst composition, there is no, or less than 0.01 wt. % rhenium in the catalyst composition, and the catalyst portion is 25 wt. % or less of the catalyst composition. (a) a support portion comprising an acidic mixed metal oxide comprising a transitional alumina, wherein the transitional alumina comprises delta or theta phase alumina, and a second metal oxide comprising silicon, wherein the second metal oxide has a weight percentage that is less than the weight percentage of alumina, and (b) a catalyst portion loaded on the support portion, the catalyst portion comprising (i) from 3 to 13 wt.% cobalt, (ii) from 1 to 2.5 wt.% nickel and from 4.2 to 6.0 wt.% cobalt, (iii) from 2.5 to 4.5 wt.% nickel and from 2.5 to 4.5 wt.% cobalt, or (iv) from 6.0 to 9.0 wt.% nickel, from 6.0 to 9.0 wt.% cobalt and from 2.0 to 5.0 wt.% copper, each wt.% based on the total weight of the catalyst composition. wherein the expression "catalyst portion" refers to the total amount of catalytic metal in the catalyst composition, there is no, or less than 0.01 wt. % rhenium in the catalyst composition, and the catalyst portion is 25 wt. % or less of the catalyst composition. (i) from 3 to 13 wt.% cobalt, (ii) from 1 to 2.5 wt.% nickel and from 4.2 to 6.0 wt.% cobalt, (iii) from 2.5 to 4.5 wt.% nickel and from 2.5 to 4.5 wt.% cobalt, or (iv) from 6.0 to 9.0 wt.% nickel, from 6.0 to 9.0 wt.% cobalt and from 2.0 to 5.0 wt.% copper, each wt.% based on the total weight of the catalyst composition.
A method of scheduling high-priority packets in a metro Ethernet switch, the method comprising the steps of: determining a maximum per-hop queuing delay allowed for at least two high-priority packets in a queue in the switch, wherein the maximum per-hop queuing delay for a particular one of said high-priority packets is a respective maximum per-hop queuing delay calculated dependent upon a number of hops in a label switched path ("LSP") between the switch and a designated destination of the particular one of said high-priority packets and wherein said respective maximum per-hop queuing delay is calculated only during set-up of the LSP and dependent upon a specified maximum end-to-end delay; determining which one of the at least two high-priority packets has a smallest node exit delay requirement, wherein a node exit delay requirement for a designated high-priority packet is the sum of the maximum per-hop queuing delay allowed for the designated high-priority packet and a time of entry at the switch for the designated high-priority packet; and scheduling the one of the at least two high-priority packets determined to have the smallest node exit delay requirement before the remaining ones of the at least two high-priority packets. determining a maximum per-hop queuing delay allowed for at least two high-priority packets in a queue in the switch, wherein the maximum per-hop queuing delay for a particular one of said high-priority packets is a respective maximum per-hop queuing delay calculated dependent upon a number of hops in a label switched path ("LSP") between the switch and a designated destination of the particular one of said high-priority packets and wherein said respective maximum per-hop queuing delay is calculated only during set-up of the LSP and dependent upon a specified maximum end-to-end delay; determining which one of the at least two high-priority packets has a smallest node exit delay requirement, wherein a node exit delay requirement for a designated high-priority packet is the sum of the maximum per-hop queuing delay allowed for the designated high-priority packet and a time of entry at the switch for the designated high-priority packet; and scheduling the one of the at least two high-priority packets determined to have the smallest node exit delay requirement before the remaining ones of the at least two high-priority packets.
A high strength galvanized steel sheet having excellent surface qualities, plating adhesion, and formability, wherein a galvanized layer is formed on a cold-rolled steel sheet comprising 0.1-0.3 wt% of C, 1-2.5 wt% of Si, 2.5-8 wt% of Mn, 0.001-0.5 wt% of sol. Al, 0.04 wt% or less of P, 0.015 wt% or less of S, 0.02 wt% or less, and excluding 0 wt% of N, 0.1-0.7 wt% of Cr, 0.1 wt% or less of Mo, (48/14) ∗ to 0.1 wt% of Ti, 0.005-0.5 wt% of Ni, 0.01-0.07 wt% of Sb, 0.1 wt% or less of Nb, and 0.005 wt% or less of B, with the remainder being Fe and other inevitable impurities, and the average content of Sb measured by 3-D atom probe topography in the galvanized layer from the surface of the cold-rolled steel sheet to a depth of 0.1 μm is at least 1.5 times that at a depth of 0.5 μm or more from the surface of the cold-rolled steel sheet, and wherein a microstructure of the cold-rolled steel sheet includes ferrite, bainite, martensite and residual austenite, wherein the residual austenite has an area fraction of 5-25%, and wherein the cold-rolled steel sheet has a tensile strength of 1,000 MPa or higher, and a value of tensile strength (MPa) × elongation (%) is 15,000 or higher.
A gas turbine rotor assembly with a torque pin, comprising: a plurality of rotor disks (100, 100'), each having protruding plate portions (112, 114, 112', 114') circumferentially protruding from both disk-shaped plate surfaces (102, 104), and a plurality of slots (112a, 114a, 112a', 114a') recessed in each of the protruding plate portions (112, 114, 112', 114'); and at least one torque pin inserted into one of the slots (112a, 114a, 112a', 114a'), characterized in that the torque pin is spherical. a plurality of rotor disks (100, 100'), each having protruding plate portions (112, 114, 112', 114') circumferentially protruding from both disk-shaped plate surfaces (102, 104), and a plurality of slots (112a, 114a, 112a', 114a') recessed in each of the protruding plate portions (112, 114, 112', 114'); and at least one torque pin inserted into one of the slots (112a, 114a, 112a', 114a'), characterized in that the torque pin is spherical.
A composition for use in a method of treating a disorder in a subject in need thereof, wherein the method comprises administering to said subject an effective amount of Ac-Arg-c(Cys-D-Ala-His-D-Phe-Arg-Trp-Cys)-NH 2 (SEQ ID NO: 140) or a pharmaceutically acceptable salt thereof; wherein the subject is a heterozygous carrier of an MC4R mutation.
A wireless charging device for charging an electronic cigarette, comprising an electronic switch, a transmitting coil electrically connected with a power source in series, a transmitting control unit connected with a control end of the electronic switch, the device further comprising a current limiting resistance connected in series with the transmitting coil, an inserting hole or a sleeve coupled with the transmitting coil and a photo detector provided in the inserting hole or the sleeve and electrically connected with the transmitting control unit; wherein the transmitting coil is wrapped outside the hole or the sleeve, corresponding to the position for inserting of a receiving coil; wherein when the electronic cigarette is installed, the receiving coil is inside the transmitting coil with the axes of the two coils arranged in the same direction; wherein the photo detector further includes a light emission component and a light receiving component, and is adapted such that when the power source is connected, the light emission component constantly emits lights, and once the light receiving component does not receive lights, the transmitting control unit is started to control charging; and wherein the wireless charging device further comprises a compensation capacitor connected in parallel with the transmitting coil; and the electronic switch is a surface mounted element, and copper sheets for releasing heat are provided in a region of an internal circuit board corresponding to a heat generation portion of the electronic switch, or the electronic switch is a direct insertion element mounted closely to heat sinks, or a field-effect switching tube or a triode.
A method for the mechanical winding a conical coil having at least one wire which comprises a conductor and an insulating layer, wherein the conical coil comprises a coil inner side and at least two winding layers, wherein a winding layer is formed by wire turns arranged substantially parallel to the coil inner side, wherein at least when winding a first winding layer at a predeterminable point between a first turn and a second turn adjacent to a first turn, wherein the second turn is wound immediately after the first turn, a gap is formed, wherein the width of the gap is at least one wire diameter at least in some sections, and the wire after the winding of the second turn, and optionally after the winding of further turns, is guided into the gap, whereby at least one support turn is formed, wherein at least one turn of a second winding layer is wound before or after the winding of the at least one support turn, wherein the second winding layer is arranged adjacent to the first winding layer and on the side of the first winding layer facing away from the coil inner side, characterized in that at least the second winding layer is incompletely wound, and that the second winding layer is delimited by the support turn.
Induction heating device, in particular induction hob device, having at least one rectifier unit, which is provided to rectify current from an electrical energy source, wherein the rectifier unit has at least one rapidly recovering rectifier element (32, 34, 36, 38), which has a reverse recovery time of at most 100 ns, wherein the rectifier element (32, 34, 36, 38) is a diode, characterised in that, in at least one operating mode, a maximum of one rectifier element (32, 34, 36, 38) of the rectifier unit is simultaneously conducting.
A method of monitoring performance of a network comprising: analyzing probing packets sent on a plurality of end-to-end paths over links of the network, wherein at least one analysed probing packet is a timing packet comprising timing information for synchronization, the method being characterized in that the analyzing comprising analyzing probing packets sent on all of a set of probing paths, the set selected such that the analyzing provides a determination of a performance of each individual link, wherein the set of probing paths comprises probing paths which are linearly independent, and the number of the linearly independent probing paths is equal to or greater than a number of links in the network; and determining the performance of each individual link; further comprising identifying, for the timing packets, an alternate path avoiding a link determined to have a performance which is below a threshold. analyzing probing packets sent on a plurality of end-to-end paths over links of the network, wherein at least one analysed probing packet is a timing packet comprising timing information for synchronization, the method being characterized in that the analyzing comprising analyzing probing packets sent on all of a set of probing paths, the set selected such that the analyzing provides a determination of a performance of each individual link, wherein the set of probing paths comprises probing paths which are linearly independent, and the number of the linearly independent probing paths is equal to or greater than a number of links in the network; and determining the performance of each individual link; further comprising identifying, for the timing packets, an alternate path avoiding a link determined to have a performance which is below a threshold.
A method to notify a reader that a value in a shared memory hash table has been modified, wherein the value is part of a key-value pair, the method comprising: modifying a value in the shared memory hash table storing a notification in a notification queue that indicates the value has changed; invalidating one or more previous entries in the notification queue that correspond to the key that is paired with the value; and signaling to the reader that a notification is ready to be processed. modifying a value in the shared memory hash table storing a notification in a notification queue that indicates the value has changed; invalidating one or more previous entries in the notification queue that correspond to the key that is paired with the value; and signaling to the reader that a notification is ready to be processed.