mhurhangee/ep-ind-claims huggingface dataset:
A turret punch press which includes a frame (1, 5, 11), a lower turret mounted with a plurality of dies (D, D1, D2) and an upper turret mounted with a plurality of punches and punches a work by selected one of the plurality of punches and selected one of the plurality of dies (D, D1, D2), the turret punch press comprising: a lifter (27, 115) for lifting the die (D, D1, D2) to be set at the work position up to a path line of the work; characterised by a plurality of die-support members (67, 75, 77, 117, 119) provided to the frame movably along a tangential direction of the rotatable lower turret toward the work position on the lifter (27,115); and a plurality of die supporters (67a, 75a, 77a, 117) respectively provided on the plurality of die-support members (67, 75, 77, 117, 119) to lift up selected one of the plurality of dies (D, D1, D2) at the work position, the turret punch press is configured that the plurality of dies (D, D1, D2) are positioned at the work position by rotating the lower turret and the plurality of die-support members (67, 75, 77, 117, 119) are moved along the tangential direction of the rotatable lower turret to the work position, the die supporters (67a, 75a, 77a, 117) are constituted to respectively lift up selected one of the plurality of dies (D, D1, D2) to the path line so as to punch the work when the respective plurality of die-support members (67, 75, 77, 117, 119) are lifted up by the lifter (27, 115). a lifter (27, 115) for lifting the die (D, D1, D2) to be set at the work position up to a path line of the work; characterised by a plurality of die-support members (67, 75, 77, 117, 119) provided to the frame movably along a tangential direction of the rotatable lower turret toward the work position on the lifter (27,115); and a plurality of die supporters (67a, 75a, 77a, 117) respectively provided on the plurality of die-support members (67, 75, 77, 117, 119) to lift up selected one of the plurality of dies (D, D1, D2) at the work position, the turret punch press is configured that the plurality of dies (D, D1, D2) are positioned at the work position by rotating the lower turret and the plurality of die-support members (67, 75, 77, 117, 119) are moved along the tangential direction of the rotatable lower turret to the work position, the die supporters (67a, 75a, 77a, 117) are constituted to respectively lift up selected one of the plurality of dies (D, D1, D2) to the path line so as to punch the work when the respective plurality of die-support members (67, 75, 77, 117, 119) are lifted up by the lifter (27, 115).
A cell composition comprising musculoskeletal stem cells (MSSCs) having the following characteristics: positive for the ectodermal marker nestin; positive for the myogenic satellite marker Pax7; positive for the mesodermal marker α-SMA; negative for the pluripotency marker LIN28; and negative for the mesenchymal stem cell marker CD90. positive for the ectodermal marker nestin; positive for the myogenic satellite marker Pax7; positive for the mesodermal marker α-SMA; negative for the pluripotency marker LIN28; and negative for the mesenchymal stem cell marker CD90.
A trajectory generation method for controlling states of at least two heterogeneous flying vehicles towards goal positions and orientations, characterised in that the method comprises the steps of: determining orientation and angular velocities of the flying vehicles; controlling the orientation and angular velocities of the flying vehicles by controlling at least one motor of the flying vehicles; determining current position and velocity of each of the flying vehicles; controlling the position and velocity of each of the flying vehicles by specifying the desired orientation and angular velocities and the net thrust required from the at least one motor; calculating for each of the flying vehicles, at predetermined intervals of time, individual trajectory paths that smoothly transition through one or more desired waypoints at specified times by using piece-wise smooth polynomial functions, applying relative cost weighting factors among the at least two flying vehicles and enforcing overlap constraints, wherein the relative cost weighting factors allow some vehicles to follow relatively more direct trajectories than others, or to prioritize vehicles based on user preferences; based on the calculated individual trajectory paths, sending commands to each of the flying vehicles to control, individually, their state, causing such flying vehicles to follow the calculated individual trajectory path; and updating current position and velocity of each of the flying vehicles. determining orientation and angular velocities of the flying vehicles; controlling the orientation and angular velocities of the flying vehicles by controlling at least one motor of the flying vehicles; determining current position and velocity of each of the flying vehicles; controlling the position and velocity of each of the flying vehicles by specifying the desired orientation and angular velocities and the net thrust required from the at least one motor; calculating for each of the flying vehicles, at predetermined intervals of time, individual trajectory paths that smoothly transition through one or more desired waypoints at specified times by using piece-wise smooth polynomial functions, applying relative cost weighting factors among the at least two flying vehicles and enforcing overlap constraints, wherein the relative cost weighting factors allow some vehicles to follow relatively more direct trajectories than others, or to prioritize vehicles based on user preferences; based on the calculated individual trajectory paths, sending commands to each of the flying vehicles to control, individually, their state, causing such flying vehicles to follow the calculated individual trajectory path; and updating current position and velocity of each of the flying vehicles.
An improved core for mounting on one or more core engaging elements, the core adapted for winding and unwinding material thereon, the core being hollow and cylindrical and having an inner surface and an outer surface adapted to accommodate the material, the core having two axially opposed ends, characterized by a high coefficient of friction coating disposed on all or a portion of the inner surface in one or more spiral patterns, the high COF coating adapted to increase the coefficient of friction between the inner surface of the core and the core engaging elements.
An apparatus for placing a string of sausages on a stick, specifically a smoking stick, said apparatus comprising: a conveyor having at least one straight section and at least one curved section; a stick holder for orienting a stick parallel to the straight section of the conveyor; and a plurality of carriers provided on the conveyor, said carriers comprising a basic element (30a, 30b) and a hook, provided on the basic element (30a, 30b), for holding the connecting portion present in each case between adjacent sausages of the string of sausages, wherein adjusting means disposed on the carriers are capable of moving said hook at least between a transport position and a release position for delivering the string of sausages onto the stick, and a spacer is disposed on said carriers for spreading the pair of sausages held in the hook, characterized in that a plurality of carriers are provided in a cartridge and the cartridge can be removed from the conveyor and a new cartridge with carriers can be placed on the conveyor.
A system comprising: a pumped-heat energy storage, "PHES", system, wherein the PHES system is operable in a charge mode to convert electricity into stored thermal energy and is further operable in a generation mode to convert at least a portion of the stored thermal energy into electricity, wherein the PHES system comprises, when operating in the generation mode, a working fluid path circulating a working fluid through, in sequence, at least a compressor system, a hot-side heat exchanger system, a turbine system, a cold-side heat exchanger system, and back to the compressor system; the system being characterized by a fluid path directing a first fluid through an intercooler and to a power generation plant, and wherein the working fluid path through the compressor system comprises circulating the working fluid through, in sequence, at least a first compressor, the intercooler, and a second compressor, and wherein the intercooler thermally contacts the working fluid with the first fluid, transferring heat from the working fluid to the first fluid. a pumped-heat energy storage, "PHES", system, wherein the PHES system is operable in a charge mode to convert electricity into stored thermal energy and is further operable in a generation mode to convert at least a portion of the stored thermal energy into electricity, wherein the PHES system comprises, when operating in the generation mode, a working fluid path circulating a working fluid through, in sequence, at least a compressor system, a hot-side heat exchanger system, a turbine system, a cold-side heat exchanger system, and back to the compressor system; the system being characterized by a fluid path directing a first fluid through an intercooler and to a power generation plant, and wherein the working fluid path through the compressor system comprises circulating the working fluid through, in sequence, at least a first compressor, the intercooler, and a second compressor, and wherein the intercooler thermally contacts the working fluid with the first fluid, transferring heat from the working fluid to the first fluid.
Motor-pump assembly, at least consisting of an electric motor, a hydraulic pump and a valve which is actuated by an electromagnet, characterized in that the motor-pump assembly is provided with a plastic encapsulation, wherein the plastic encapsulation forms a cover of the electric motor, engages around a magnet coil and at least one flux-conducting element of the electromagnet, forms a plug connector casing for an electrical plug connection and engages around the conductor tracks leading to the plug connection, and wherein the motor-pump assembly additionally contains a pressure sensor which measures the pressure at the outlet of the pump, and wherein the pressure sensor is at least partially embedded in the plastic encapsulation and electrically connected by the common plug connection, and wherein the plastic encapsulation has cooling ducts which conduct working liquid of the pump or some other liquid from another pump to heat-releasing components of the electric motor, and wherein a rotor of the electric motor and a rotor of the hydrostatic pump are mounted jointly by means of a shaft, and wherein the valve is a directional valve which is switched between two end positions by the electromagnet.
A packing machine having at least one motor drive and having machine parts as assembly parts, which can be controlled by a control unit, wherein the control unit is linked to input and output apparatuses and wherein an operator may supply target operating parameters of the packing machine to the control unit and wherein operating parameters such as the number of items to be packed per time unit, package dimensions, package length, sealing times and the like can be set by an operator via the electronic control unit and wherein drives of assembly parts being moved in the packing machine such as enveloping material conveyors, sealing jaws and the like can be controlled by the electronic control unit as a function of the settable operating parameters, characterised in that machine-specific static limits such as the machine width, the maximum acceleration, the maximum deceleration and the like can be entered via the electronic control unit, in that the setting-specific dynamic limits such as the deceleration distance and the like are redetermined for each change of an operating parameter as a function of the machine-specific static limits and in that selected operating parameters can be released or are rejected by the control unit as a function of the determined dynamic limits and can be shown as release or rejection signal of the operating parameters that have undergone a change.
A wireless receiving apparatus comprising: a plurality of wireless receivers (210-1, 210-2) configured to receive a plurality of sub-streams constituting a video frame; and a data processor configured to: determine whether an error occurs in each of the plurality of sub-streams; in response to determining that an error occurs in at least one of the plurality of sub-streams, transmit an immediately-preceding video frame to a display that is electrically connected'to the wireless receiving apparatus; determine whether reception of the plurality of sub-streams constituting the video frame is completed using total transmission period information; in response to determining that the reception of the plurality of sub-streams constituting the video frame is not completed, transmit the immediately-preceding video frame to the display, in response to determining that an error does not occur in any of the plurality of sub-streams and the reception of the plurality of sub-streams constituting the video frame is completed, merge the plurality of sub-streams to generate the video frame, and transmit the video frame to the display. a plurality of wireless receivers (210-1, 210-2) configured to receive a plurality of sub-streams constituting a video frame; and a data processor configured to: determine whether an error occurs in each of the plurality of sub-streams; in response to determining that an error occurs in at least one of the plurality of sub-streams, transmit an immediately-preceding video frame to a display that is electrically connected'to the wireless receiving apparatus; determine whether reception of the plurality of sub-streams constituting the video frame is completed using total transmission period information; in response to determining that the reception of the plurality of sub-streams constituting the video frame is not completed, transmit the immediately-preceding video frame to the display, in response to determining that an error does not occur in any of the plurality of sub-streams and the reception of the plurality of sub-streams constituting the video frame is completed, merge the plurality of sub-streams to generate the video frame, and transmit the video frame to the display. determine whether an error occurs in each of the plurality of sub-streams; in response to determining that an error occurs in at least one of the plurality of sub-streams, transmit an immediately-preceding video frame to a display that is electrically connected'to the wireless receiving apparatus; determine whether reception of the plurality of sub-streams constituting the video frame is completed using total transmission period information; in response to determining that the reception of the plurality of sub-streams constituting the video frame is not completed, transmit the immediately-preceding video frame to the display, in response to determining that an error does not occur in any of the plurality of sub-streams and the reception of the plurality of sub-streams constituting the video frame is completed, merge the plurality of sub-streams to generate the video frame, and transmit the video frame to the display.
A silicon nitride powder having an amount of internal oxygen of 0.6 mass% or less, the amount being measured by the following method, wherein a peak 1 derived from surface oxygen, a peak 2 derived from internal oxygen and a peak 3 derived from nitrogen are detected when 0.01g of the silicon nitride powder is set in an oxygen and nitrogen analyzing device, and the temperature is raised from 20°C to 2,000°C at a heating rate of 8°C/second in a helium gas atmosphere, wherein the peak 1 and the peak 2 are divided by the temperature T 1 at which peak 3 rises, and wherein the amount of internal oxygen and an amount of surface oxygen are determined from an integrated value of the peak 1 and the peak 2. wherein a peak 1 derived from surface oxygen, a peak 2 derived from internal oxygen and a peak 3 derived from nitrogen are detected when 0.01g of the silicon nitride powder is set in an oxygen and nitrogen analyzing device, and the temperature is raised from 20°C to 2,000°C at a heating rate of 8°C/second in a helium gas atmosphere, wherein the peak 1 and the peak 2 are divided by the temperature T 1 at which peak 3 rises, and wherein the amount of internal oxygen and an amount of surface oxygen are determined from an integrated value of the peak 1 and the peak 2.
An electrode slurry coating apparatus, comprising: an electrode slurry discharge flow path configured to discharge an electrode slurry through a slit formed on an interface between first and second dies; an electrode slurry storage tank configured to be fluidly connected to the electrode slurry discharge flow path and store the electrode slurry therein at a static pressure condition; and a static pressure opening and closing valve configured to be located on a flow path on which the electrode slurry discharge flow path is fluidly connected to the electrode slurry storage tank, wherein an opening or closing of the static pressure opening and closing valve is determined according to a difference between a pressure of the electrode slurry discharge flow path and an internal pressure of the electrode slurry storage tank, characterized in that the static pressure opening and closing valve includes a shielding member supported by an elastic force of an elastic body, and the shielding member is configured to open if a force of pressurizing the shielding member by the pressure of the electrode slurry discharge flow path exceeds a predetermined reference value. an electrode slurry discharge flow path configured to discharge an electrode slurry through a slit formed on an interface between first and second dies; an electrode slurry storage tank configured to be fluidly connected to the electrode slurry discharge flow path and store the electrode slurry therein at a static pressure condition; and a static pressure opening and closing valve configured to be located on a flow path on which the electrode slurry discharge flow path is fluidly connected to the electrode slurry storage tank, wherein an opening or closing of the static pressure opening and closing valve is determined according to a difference between a pressure of the electrode slurry discharge flow path and an internal pressure of the electrode slurry storage tank, characterized in that the static pressure opening and closing valve includes a shielding member supported by an elastic force of an elastic body, and the shielding member is configured to open if a force of pressurizing the shielding member by the pressure of the electrode slurry discharge flow path exceeds a predetermined reference value.
A luminescent nanocomposite, comprising: a population of luminescent nanocrystals, wherein the nanocrystals comprise a core selected from InP, InAs and In 1-x Ga x P and a shell selected from ZnS, ZnSe and ZnSe x S 1-x, which nanocrystals are embedded in an epoxy, polyurea, or polyurethane matrix, characterized in that a ligand is bound to a surface of a member nanocrystal, which ligand comprises an amine moiety selected from octylamine or decylamine or a dicarboxylic acid moiety selected from: wherein m is an integer from 0-20, n is an integer from 0-20, o is an integer from 0-20, p is 1, 2 or 3, q is an integer from 7-12 and R' is a methyl or butyl group; wherein n is an integer from 7-12; wherein m is an integer from 0-20, n is an integer from 0-20, o is an integer from 0-20, q is an integer between 0-40 and p is 1, 2 or 3; and wherein m is an integer from 0-20, n is an integer from 0-20, o is an integer from 0-30, and p is 1,2 or 3.
An amplifier comprising: a supply voltage control part for detecting an amplitude level of an input audio signal and outputting power of a voltage level indicated by target set voltage level information corresponding to the detected amplitude level; a PWM conversion part 2) for converting the input audio signal to a pulse width modulation signal; a power amplifier stage for performing power amplification on the pulse width modulation signal output from the PWM conversion part; a low-pass filter part for demodulating the amplified PWM signal output from the power amplifier stage into an acoustic signal; a negative feedback part for attenuating the acoustic signal demodulated in the low-pass filter part, converting the attenuated acoustic signal into a digital signal through an A/D converter, and negatively feeding the digital signal back to the PWM conversion part; and a voltage conversion part for outputting voltage proportional to the voltage level of power output by the supply voltage control part, wherein the voltage output by the voltage conversion part is used as a reference voltage level of the A/D converter. a supply voltage control part for detecting an amplitude level of an input audio signal and outputting power of a voltage level indicated by target set voltage level information corresponding to the detected amplitude level; a PWM conversion part 2) for converting the input audio signal to a pulse width modulation signal; a power amplifier stage for performing power amplification on the pulse width modulation signal output from the PWM conversion part; a low-pass filter part for demodulating the amplified PWM signal output from the power amplifier stage into an acoustic signal; a negative feedback part for attenuating the acoustic signal demodulated in the low-pass filter part, converting the attenuated acoustic signal into a digital signal through an A/D converter, and negatively feeding the digital signal back to the PWM conversion part; and a voltage conversion part for outputting voltage proportional to the voltage level of power output by the supply voltage control part, wherein the voltage output by the voltage conversion part is used as a reference voltage level of the A/D converter.
A terminal device comprising: a transmit subsystem; and a processor coupled to the transmit subsystem and configured to control a data transmission rate of the transmit subsystem; wherein the processor is configured to determine a new data transmission rate which is constrained to decrease by a limited amount from a current data transmission rate; wherein the processor is configured to determine the new data transmission rate by determining a plurality of limiting rates and selecting a minimum of the limiting rates as the new data transmission rate; and a transmit queue, wherein the limiting rates comprise at least a data-justified rate corresponding to an amount of data in the transmit queue, an absolute maximum rate at which device can communicate, a maximum rate based upon the allowable power output of the device, and a maximum rate allowable based upon data rate ramp-up constraints. a transmit subsystem; and a processor coupled to the transmit subsystem and configured to control a data transmission rate of the transmit subsystem; wherein the processor is configured to determine a new data transmission rate which is constrained to decrease by a limited amount from a current data transmission rate; wherein the processor is configured to determine the new data transmission rate by determining a plurality of limiting rates and selecting a minimum of the limiting rates as the new data transmission rate; and a transmit queue, wherein the limiting rates comprise at least a data-justified rate corresponding to an amount of data in the transmit queue, an absolute maximum rate at which device can communicate, a maximum rate based upon the allowable power output of the device, and a maximum rate allowable based upon data rate ramp-up constraints.