mhurhangee/ep-ind-claims huggingface dataset:
An apparatus configured to directly transfer a first semiconductor device die to a substrate from a wafer tape having a first side and a second side, the first semiconductor device die being disposed on the first side of the wafer tape, the substrate including a second semiconductor device die onto which the first semiconductor device die is to be transferred, the apparatus comprising: a first frame to hold the wafer tape; a second frame to hold the substrate adjacent to the first side of the wafer tape; a needle disposed adjacent to the second side of the wafer tape and extending in a direction toward the wafer tape; and a needle actuator connected to the needle to move the needle, during a direct transfer process, to a die transfer position at which the needle contacts the second side of the wafer tape to press the first semiconductor device die into contact with the second semiconductor device die, wherein a bond between the first semiconductor device die and the second semiconductor device die is induced such that the first semiconductor device die is released from the wafer tape and is attached to the second semiconductor device die. a first frame to hold the wafer tape; a second frame to hold the substrate adjacent to the first side of the wafer tape; a needle disposed adjacent to the second side of the wafer tape and extending in a direction toward the wafer tape; and a needle actuator connected to the needle to move the needle, during a direct transfer process, to a die transfer position at which the needle contacts the second side of the wafer tape to press the first semiconductor device die into contact with the second semiconductor device die, wherein a bond between the first semiconductor device die and the second semiconductor device die is induced such that the first semiconductor device die is released from the wafer tape and is attached to the second semiconductor device die.
Multi-track tilting vehicle with direct tilt control and steering, comprising a two-track tilting chassis on the front axle and/or a two-track tilting chassis on the rear axle, a vehicle frame, a roll control shaft, a handlebar, wheels and/or skis, wherein the roll control shaft is mounted rotatably about a roll control axis in the vehicle frame, the roll control axis is aligned essentially parallel (0 +-20°) to the vehicle longitudinal axis and/or to the vehicle's roll axis, the handlebar is mounted rotatably about a handlebar axis in the roll control shaft, and the handlebar axis is aligned essentially orthogonally (90 +-20°) to the roll control axis, characterized in that the at least one two-track tilting chassis enables tilting of the vehicle frame about the vehicle roll axis and has independent wheel suspension and/or independent ski suspension, the handlebar can be rotated about the roll control axis and about the handlebar axis, a rotation of the handlebar about the handlebar axis causes the tilting vehicle to steer, a rotation of the handlebar about the roll control axis causes the tilting vehicle to tilt, the tilting and steering can be performed independently of one another using the same handlebar.
Method for controlling a wave-energy system by determining the excitation force applied by the wave incident upon a moving part of the said wave-energy system, the said wave-energy system converting the energy of the wave into energy by means of the said moving part cooperating with a conversion machine, the said moving part performing a movement in relation to the said conversion machine as a result of the action of the wave, characterized in that the following steps are performed: a) measurement of the position and speed of the said moving part; b) measurement of the force F u applied by the said conversion machine to the said moving part; c) construction of a model of the radiation force F rad applied to the said moving part, the said model of the radiation force F rad relating the said radiation force to the speed of the said moving part; d) construction of a model of the dynamics of the said wave-energy system which relates the said excitation force F ex applied by the wave incident upon the said moving part, to the said position of the said moving part, to the said speed of the moving part, to the said force F u applied by the said conversion machine to the said moving part, and to the said radiation force F rad applied to the said moving part; e) determination of the said excitation force F ex applied by the wave incident upon the said moving part by means of the said dynamics model, the said model of the radiation force, the said position and speed measured and the said measured force F u applied by the said conversion machine to the said moving part; and f) controlling of the said wave-energy system depending on the said determined excitation force Fex applied by the wave incident upon the said moving part. a) measurement of the position and speed of the said moving part; b) measurement of the force F u applied by the said conversion machine to the said moving part; c) construction of a model of the radiation force F rad applied to the said moving part, the said model of the radiation force F rad relating the said radiation force to the speed of the said moving part; d) construction of a model of the dynamics of the said wave-energy system which relates the said excitation force F ex applied by the wave incident upon the said moving part, to the said position of the said moving part, to the said speed of the moving part, to the said force F u applied by the said conversion machine to the said moving part, and to the said radiation force F rad applied to the said moving part; e) determination of the said excitation force F ex applied by the wave incident upon the said moving part by means of the said dynamics model, the said model of the radiation force, the said position and speed measured and the said measured force F u applied by the said conversion machine to the said moving part; and f) controlling of the said wave-energy system depending on the said determined excitation force Fex applied by the wave incident upon the said moving part.
A method of handling uplink synchronization for a mobile device capable of receiving and transmitting on a plurality of component carriers in a wireless communication system, the method comprising: managing a plurality of time alignment timers, each timer corresponding to some of the plurality of component carriers for indicating a synchronization state on the component carriers with the same timing advance value, wherein the managing step comprises: starting or restarting the time alignment timer when a timing advance command in a random access response message of a random access procedure is received for a first component carrier and the random access procedure is non-contention based random access procedure or when the timing advance command is received for the first component carrier, the random access procedure is contention-based random access procedure and the time alignment timer is not running.
A phacoemulsification system, comprising: an irrigation cassette having at least one input for connection to a bottle or bag for irrigation; an aspiration cassette having at least one input for providing aspiration from an eye and at least one output for providing irrigation to an eye; and a link between the irrigation cassette and the aspiration cassette for providing an inter-cassette irrigation connection; wherein the irrigation cassette includes no aspiration functionality such that the irrigation cassette is configured to be used for procedures on multiple patients and the aspiration cassette is configured to be replaced after each procedure. an irrigation cassette having at least one input for connection to a bottle or bag for irrigation; an aspiration cassette having at least one input for providing aspiration from an eye and at least one output for providing irrigation to an eye; and a link between the irrigation cassette and the aspiration cassette for providing an inter-cassette irrigation connection; wherein the irrigation cassette includes no aspiration functionality such that the irrigation cassette is configured to be used for procedures on multiple patients and the aspiration cassette is configured to be replaced after each procedure.
Electric cooking appliance comprising: - a base in which at least a portion of a cooking space is arranged, - ventilation means arranged to create an airflow in the cooking space, - heating means arranged to heat the airflow, - a removable cooking basket arranged to receive foods to be cooked in the cooking space, - a removable container arranged to receive a cooking bath, - a removable housing from which extends a heating element, the housing being designed to be arranged on the base in order to cook the foods arranged in the container, the heating element then extending inside the container, characterised in that it comprises: another removable housing supporting the ventilation means and the heating means, the other housing being designed to be arranged on the base in order to cook the foods arranged in the cooking basket. - a base in which at least a portion of a cooking space is arranged, - ventilation means arranged to create an airflow in the cooking space, - heating means arranged to heat the airflow, - a removable cooking basket arranged to receive foods to be cooked in the cooking space, - a removable container arranged to receive a cooking bath, - a removable housing from which extends a heating element, the housing being designed to be arranged on the base in order to cook the foods arranged in the container, the heating element then extending inside the container,
A method of production of fuel including the step of mixing of biomass with low melting temperature of ashes from a group consisting of stillage from the production of bioethanol, cereals, residues from the production of sunflower-seed oil or rape-seed oil, extracted corn meal, corn flour, maize, maize flour or maize meal, with at least one milled substance selected from the group consisting of limestone, lime hydrate, lime, stone, sand, combustion ashes, fossil solid fuels as coal, lignite, peat, artificial fuels produced from the group of petrol cokes, the ratio of biomass with low melting temperature of ashes to the milled substances in the fuel mixture is set up to achieve a ratio of total weight of sodium and potassium in the ashes to the weight of the remaining non-combustible components in the ashes of a value less than 1: 15.
Method for designing a stator segment for a stator of an m-phase synchronous reluctance machine with concentrated windings, it being possible for the stator to be divided into a stator segment or into a plurality of stator segments, and the stator comprising a ferromagnetic main body with circumferentially distributed tooth structures and a winding system which is inset in the main body and has z tooth structures per stator segment and a number of winding strands (U, V, W) which corresponds to the phase number m and of which each for its part comprises a series and/or parallel circuit of a plurality of the concentrated windings, a rotor of the synchronous reluctance machine having a pole number p in a circumferential section which corresponds to the stator segment, characterized by the following steps: - selection of a stator tooth number z of the tooth structures in the segment in a manner which is dependent on the phase number m of the phases (U, V, W) and the pole number p; - determination of the winding factor Fw and of a torque factor F T where F T = 1 − ∫ 0 2 π / K MMK θ − H P θ MMK θ 2 dθ for a multiplicity of design and arrangement possibilities of the winding strands (U, V, W) which result for the given variables of pole number p and phase number m in the case of use of concentrated windings with regard to the stator tooth number z, θ being the angle in the stator circulation direction, MMK being a measure of the spatial distribution of the current coverage, Hp being the harmonic amplitude in each case over the angle θ, and K being a division factor which specifies the proportion of the stator segment on the overall circumference of the stator; and - determination of at least one design of the stator segment, in the case of which design the formula product of the winding factor and the torque factor F T. F W has a local maximum. - selection of a stator tooth number z of the tooth structures in the segment in a manner which is dependent on the phase number m of the phases (U, V, W) and the pole number p; - determination of the winding factor Fw and of a torque factor F T where F T = 1 − ∫ 0 2 π / K MMK θ − H P θ MMK θ 2 dθ for a multiplicity of design and arrangement possibilities of the winding strands (U, V, W) which result for the given variables of pole number p and phase number m in the case of use of concentrated windings with regard to the stator tooth number z, θ being the angle in the stator circulation direction, MMK being a measure of the spatial distribution of the current coverage, Hp being the harmonic amplitude in each case over the angle θ, and K being a division factor which specifies the proportion of the stator segment on the overall circumference of the stator; and - determination of at least one design of the stator segment, in the case of which design the formula product of the winding factor and the torque factor F T. F W has a local maximum.
A selector lever, comprising: a shaft having a proximal end disposed within a housing, and a distal end extending from the housing; a first slide arranged to be movable along the shaft and a second slide arranged to be movable along the shaft; a first detent pin arranged on the shaft and operatively connected to the first slide and a second detent pin arranged on the shaft and operatively connected to the second slide; a first detent plate disposed in the housing and having a first plurality of slots for receiving the first detent pin; and a second detent plate disposed in the housing and having a second plurality of slots for receiving the second detent pin. a shaft having a proximal end disposed within a housing, and a distal end extending from the housing; a first slide arranged to be movable along the shaft and a second slide arranged to be movable along the shaft; a first detent pin arranged on the shaft and operatively connected to the first slide and a second detent pin arranged on the shaft and operatively connected to the second slide; a first detent plate disposed in the housing and having a first plurality of slots for receiving the first detent pin; and a second detent plate disposed in the housing and having a second plurality of slots for receiving the second detent pin.
A nacelle for installation at an inlet to an aircraft engine, the nacelle comprising an inlet lip defining a leading edge of the nacelle and having a cross-sectional shape and oppositely-disposed exterior and interior surfaces (78,79), the inlet lip having a laminate construction from the exterior surface to the interior surface, the laminate construction comprising structural laminae and incorporating an anti-icing system within the laminate construction; the anti-icing system comprising heating element laminae and electrical insulation laminae within the laminate construction of the inlet lip, wherein each of the heating element laminae is separated from the structural laminae by the electrical insulation laminae, each of the heating element laminae and the electrical insulation laminae having a cross-sectional shape that conforms to the cross-sectional shape of the inlet lip, the heating element laminae comprising carbon nanotubes oriented and arranged to conduct electrical current through the heating element laminae; and means for passing an electrical current through the heating element laminae to cause Joule heating of the heating element laminae and heating of the inlet lip by thermal conduction.
A nucleic acid molecule comprising a nucleotide sequence encoding an amino acid sequence having pesticidal activity, wherein said nucleotide sequence is selected from the group consisting of: a) the nucleotide sequence set forth in SEQ ID NO: 1; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO: 2; and c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO: 2. a) the nucleotide sequence set forth in SEQ ID NO: 1; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO: 2; and c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO: 2.
A system for managing network traffic comprising: a quality of experience, QoE, measurement module configured to monitor a QoE metric in real-time based on network traffic; a control module configured to periodically receive the QoE metric and determine a traffic management action based on the QoE metric, wherein the control module comprises: a data store for storing QoE metric data; an analysis module for analyzing the stored QoE metric data, wherein the analysis uses one or more previous results in analysing the QoE metric data via a feedback loop, and preparing an output action; and an output module for outputting the output action for the control module to determine the traffic management action based on the output action; and a traffic management module configured to apply the traffic management action to the network traffic. a quality of experience, QoE, measurement module configured to monitor a QoE metric in real-time based on network traffic; a control module configured to periodically receive the QoE metric and determine a traffic management action based on the QoE metric, wherein the control module comprises: a data store for storing QoE metric data; an analysis module for analyzing the stored QoE metric data, wherein the analysis uses one or more previous results in analysing the QoE metric data via a feedback loop, and preparing an output action; and an output module for outputting the output action for the control module to determine the traffic management action based on the output action; and a data store for storing QoE metric data; an analysis module for analyzing the stored QoE metric data, wherein the analysis uses one or more previous results in analysing the QoE metric data via a feedback loop, and preparing an output action; and an output module for outputting the output action for the control module to determine the traffic management action based on the output action; and a traffic management module configured to apply the traffic management action to the network traffic.
A two-component antifouling coating composition, comprising: a first component comprising a (meth)acrylic ester; a second component comprising an amino group-containing compound; and an antifoulant in either the first component or the second component, wherein either or both of the (meth)acrylic ester and the amino group-containing compound have an ether structure; not less than 50% by weight of a tri- or higher functional (meth) acrylic ester is contained in a total weight of the (meth) acrylic ester; and the amino group-containing compound is 20 to 100 parts by weight with respect to 100 parts by weight of the (meth) acrylic ester. a first component comprising a (meth)acrylic ester; a second component comprising an amino group-containing compound; and an antifoulant in either the first component or the second component, wherein either or both of the (meth)acrylic ester and the amino group-containing compound have an ether structure; not less than 50% by weight of a tri- or higher functional (meth) acrylic ester is contained in a total weight of the (meth) acrylic ester; and the amino group-containing compound is 20 to 100 parts by weight with respect to 100 parts by weight of the (meth) acrylic ester.
Closure member (10, 110) for closing a container (100, 200), in particular a bottle, the closure member (10, 110) comprising: a closure element (11, 111) being configured to engage, directly or indirectly, with the container (100, 200), a shell element (13, 113) comprising an opening (13d, 113d; 13d', 113d') provided in a top portion (13a, 113a) or a side portion (13b, 113b) of the shell element, the shell element (13, 113) being at least partially made of a conductive material and being arranged at least largely on the outside of the closure element, with the closure element (11, 111) supporting the shell element (13, 113), and a transponder (20, 120) comprising an antenna, characterized in that the transponder is provided on the outside of the closure element (11, 111) and arranged in or below the opening, wherein the antenna is arranged at the same level of, or below the opening. a closure element (11, 111) being configured to engage, directly or indirectly, with the container (100, 200), a shell element (13, 113) comprising an opening (13d, 113d; 13d', 113d') provided in a top portion (13a, 113a) or a side portion (13b, 113b) of the shell element, the shell element (13, 113) being at least partially made of a conductive material and being arranged at least largely on the outside of the closure element, with the closure element (11, 111) supporting the shell element (13, 113), and a transponder (20, 120) comprising an antenna, characterized in that the transponder is provided on the outside of the closure element (11, 111) and arranged in or below the opening, wherein the antenna is arranged at the same level of, or below the opening.
An assembly for a drug delivery device, the assembly comprising a feedback feature being configured to indicate an end of a dispense operation to a user by giving and audible and/or tactile feedback, the assembly comprising an actuator which is configured to be operated in order to dispense a dose, and wherein the feedback feature creates a feedback when the actuator reaches an end position at the end of a dispense operation, wherein the assembly comprises a rotation member which is configured to rotate during the dispense of a dose, wherein the feedback feature comprises a first feedback element which is located at the rotation member, and a second feedback element, wherein the first feedback element is configured to interact with the second feedback element, characterized in that the first feedback element is configured to interact with an enhancement feature at the end of the dispense operation, wherein the enhancement feature is configured to reinforce the interaction of the first feedback element with the second feedback element such that a deflection of the first feedback element in a radially inward direction is limited.