mhurhangee/ep-ind-claims huggingface dataset:
Rotor for electric motor including, on the rotor axis, a magnetic mass, gripped on either side by short-circuit rings, and having electrical conductors passing through it in a plurality of recesses, connecting the short-circuit rings to form a squirrel cage, each electrical conductor consisting of a single bar having, over the whole of the length thereof, a trapezoidal cross-section forming an isosceles trapezium, the small base of each bar being disposed radially towards the outside with respect to the axis of the rotor, characterised in that the four corners of the trapezoidal cross section are provided with a round-off with a substantially equal value for the corners of the large base and another substantially equal value for the corners of the small base, the radius of the round-offs of the large base and the radius of the round-offs of the small base lying between 10% and 50% of the length respectively of the large base and of the small base.
A method for drying instant noodles, comprising a step of putting gelatinized noodle strings into a retainer for drying instant noodles, the retainer having a shape such that a transition portion from a bottom surface to a side surface is formed to be a curved surface with a radius of curvature of 5 mm to 15 mm, and blowing a high-speed air flow from above the retainer.
A process for applying an optical coating to a substrate comprising the steps of: a. preparing an optical coating formulation comprising a solvent component and a film forming component; b. using a die coater comprising a slot die to form a coated substrate by applying the optical coating to a substrate, where the applied optical coating forms a wet film thereon having a thickness from 8 μm to 100 μm; c. drying the coated substrate, where the coated substrate is in a substantially horizontal plane thereby converting the wet film to a dry film having a thickness of less than 1 μm; and, optionally d. curing the coated substrate, wherein the optical coating formulation comprises greater than 0.3 wt% to no more than 10 wt% solids relative to the total weight of the optical coating formulation; and wherein the slot die comprises a slot gap defined by an upstream lip positioned upstream from the flow of the optical coating and a downstream lip positioned downstream from the flow of the optical coating, and the slot gap is in the range of 1.1 to 15 times the thickness of the wet film; and wherein coating gap between the downstream lip distal to the slot gap and the substrate is at least 20 μm, and coating gap/wet film thickness ratio is at most 15. a. preparing an optical coating formulation comprising a solvent component and a film forming component; b. using a die coater comprising a slot die to form a coated substrate by applying the optical coating to a substrate, where the applied optical coating forms a wet film thereon having a thickness from 8 μm to 100 μm; c. drying the coated substrate, where the coated substrate is in a substantially horizontal plane thereby converting the wet film to a dry film having a thickness of less than 1 μm; and, optionally d. curing the coated substrate,
Fire protection element for smoke-proof and fireproof shielding of ducts for conduits, comprising at least one laminar moulding made of elastically deformable material which consists at least partially of an ash-forming and optionally intumescent mixture of substances, wherein at least one surface of the moulding is structured, wherein the surface is provided with protuberances and recesses, and wherein the fire protection element includes two laminar mouldings the surfaces of which face towards one another, characterised in that the structured surfaces of the two laminar mouldings are complementary to one another.
LED light bulb assembly (1, 1') comprising a base (2, 2') provided with a connection portion (20, 20'), for connecting the assembly (1, 1') to an electric light bulb socket, and with a holding portion (21, 21'), the connection portion (20, 20') and the holding portion (21, 21') facing in opposite directions running essentially in parallel to a central axis of the assembly (1, 1'); and a substrate carrying at least one LED and having a mounting section which is affixed to the holding portion (21, 21') in a fully assembled state of the assembly (1, 1') wherein, the holding portion (21, 21') and the mounting section in the fully assembled state abut each other in a plane extending essentially in parallel to the central axis wherein the assembly (1, 1') further comprises at least one contact element (4, 4', 5, 5') which in the fully assembled state is at least partially arranged between the mounting section and the holding portion (21, 21') so that it establishes an electrical contact with the substrate, characterized in that an electrical contact (40, 40', 50, 50') of the assembly (1, 1') which in the fully assembled state is accessible from outside of the assembly (1, 1') at the connection portion (20, 20') is formed at the at least one contact element (4, 4', 5, 5').
A filling nozzle comprising: a filling cylinder, in which an auger rotates about the axis thereof to discharge powder through an opening provided at the lower end of the filling cylinder; an air-injection cylinder fitted to the exterior of the filling cylinder to form an annular space between the filling cylinder and the air-injection cylinder; and an air-supply unit supplying air in the annular space; the air-injection cylinder having a tip portion that extends downward below the opening and has an air-discharge mouth formed in a tapered shape such that the tip portion has a diameter smaller than that of the opening; characterized by further comprising a lifting unit for raising and lowering the air-injection cylinder relative to the filling cylinder, the lifting unit lowering the air-injection cylinder such that the tip of the air-injection cylinder is inserted into a container when the filling cylinder discharges powder from the opening to supply the powder into the container. a filling cylinder, in which an auger rotates about the axis thereof to discharge powder through an opening provided at the lower end of the filling cylinder; an air-injection cylinder fitted to the exterior of the filling cylinder to form an annular space between the filling cylinder and the air-injection cylinder; and an air-supply unit supplying air in the annular space; the air-injection cylinder having a tip portion that extends downward below the opening and has an air-discharge mouth formed in a tapered shape such that the tip portion has a diameter smaller than that of the opening; characterized by further comprising a lifting unit for raising and lowering the air-injection cylinder relative to the filling cylinder, the lifting unit lowering the air-injection cylinder such that the tip of the air-injection cylinder is inserted into a container when the filling cylinder discharges powder from the opening to supply the powder into the container.
A transistor semiconductor die comprising: a first current terminal (12, 40) and a second current terminal (14, 38); a control terminal; a semiconductor structure comprising a drift layer, wherein the semiconductor structure is between the first current terminal, the second current terminal, and the control terminal, the semiconductor structure configured such that a resistance between the first current terminal and the second current terminal is based on a control signal provided at the control terminal; and short circuit protection circuitry (D sc, 46) that resides within the drift layer, wherein the short circuit protection circuitry comprises a plurality of diodes coupled between the control terminal and the second current terminal and configured such that: in a normal mode of operation, a voltage drop between the control terminal and the second current terminal is greater than a voltage of the control signal; and in a short circuit protection mode of operation, a voltage drop between the control terminal and the second current terminal is less than a voltage of the control signal. a first current terminal (12, 40) and a second current terminal (14, 38); a control terminal; a semiconductor structure comprising a drift layer, wherein the semiconductor structure is between the first current terminal, the second current terminal, and the control terminal, the semiconductor structure configured such that a resistance between the first current terminal and the second current terminal is based on a control signal provided at the control terminal; and short circuit protection circuitry (D sc, 46) that resides within the drift layer, wherein the short circuit protection circuitry comprises a plurality of diodes coupled between the control terminal and the second current terminal and configured such that: in a normal mode of operation, a voltage drop between the control terminal and the second current terminal is greater than a voltage of the control signal; and in a short circuit protection mode of operation, a voltage drop between the control terminal and the second current terminal is less than a voltage of the control signal. in a normal mode of operation, a voltage drop between the control terminal and the second current terminal is greater than a voltage of the control signal; and in a short circuit protection mode of operation, a voltage drop between the control terminal and the second current terminal is less than a voltage of the control signal.
A medical simulation system comprising: a fluid pumping system for pumping fluid to a physical heart model with a shape and appearance of a human heart in order to simulate pressurized pulsating blood pressure of the physical heart model; an input (240-A) from at least one of i) an extracorporeal therapeutic device and/or ii) a drug delivery system; and a computing device coupled to the fluid pumping system; and wherein: the computing device comprises a processor and a memory coupled to each other to execute instructions; the computing device interacts with the physical heart model by generating and communicating at least one simulated heart signal (20, 132-L, 132-R); the physical heart model responds dynamically to simulate a beating motion of a live heart based on the simulated heart signal; and a reflexive action is simulated by generating at least one simulated heart signal and/or a displayed virtual data based on an algorithm using the input from the at least one of i) the extracorporeal therapeutic device and/or ii) the drug delivery system. a fluid pumping system for pumping fluid to a physical heart model with a shape and appearance of a human heart in order to simulate pressurized pulsating blood pressure of the physical heart model; an input (240-A) from at least one of i) an extracorporeal therapeutic device and/or ii) a drug delivery system; and a computing device coupled to the fluid pumping system; and wherein: the computing device comprises a processor and a memory coupled to each other to execute instructions; the computing device interacts with the physical heart model by generating and communicating at least one simulated heart signal (20, 132-L, 132-R); the physical heart model responds dynamically to simulate a beating motion of a live heart based on the simulated heart signal; and a reflexive action is simulated by generating at least one simulated heart signal and/or a displayed virtual data based on an algorithm using the input from the at least one of i) the extracorporeal therapeutic device and/or ii) the drug delivery system. the computing device comprises a processor and a memory coupled to each other to execute instructions; the computing device interacts with the physical heart model by generating and communicating at least one simulated heart signal (20, 132-L, 132-R); the physical heart model responds dynamically to simulate a beating motion of a live heart based on the simulated heart signal; and a reflexive action is simulated by generating at least one simulated heart signal and/or a displayed virtual data based on an algorithm using the input from the at least one of i) the extracorporeal therapeutic device and/or ii) the drug delivery system.
An AC motor drive system comprising: a three-phase AC motor; an inverter configured to drive the three-phase AC motor; and a controller configured to drive the inverter by pulse width modulation, characterized in that the AC motor drive system further comprises: a number of pulses determiner to determine the number of pulses, loss computing units (15a-15e) for respective numbers of pulses configured to compute a fundamental wave loss of the three-phase AC motor on the basis of the respective numbers of pulses and compute a harmonic loss caused by the inverter on the basis of the respective numbers of pulses and calculate the total losses of the respective numbers of pulses by adding the fundamental wave loss and the harmonic loss, and a number of pulses compensator to select the number of pulses having the least total loss from the total loss values calculated by the loss computing units, wherein the three-phase AC motor is driven by changing the number of pulses of the inverter from the computed loss value. a three-phase AC motor; an inverter configured to drive the three-phase AC motor; and a controller configured to drive the inverter by pulse width modulation, characterized in that the AC motor drive system further comprises: a number of pulses determiner to determine the number of pulses, loss computing units (15a-15e) for respective numbers of pulses configured to compute a fundamental wave loss of the three-phase AC motor on the basis of the respective numbers of pulses and compute a harmonic loss caused by the inverter on the basis of the respective numbers of pulses and calculate the total losses of the respective numbers of pulses by adding the fundamental wave loss and the harmonic loss, and a number of pulses compensator to select the number of pulses having the least total loss from the total loss values calculated by the loss computing units, wherein the three-phase AC motor is driven by changing the number of pulses of the inverter from the computed loss value. a number of pulses determiner to determine the number of pulses, loss computing units (15a-15e) for respective numbers of pulses configured to compute a fundamental wave loss of the three-phase AC motor on the basis of the respective numbers of pulses and compute a harmonic loss caused by the inverter on the basis of the respective numbers of pulses and calculate the total losses of the respective numbers of pulses by adding the fundamental wave loss and the harmonic loss, and a number of pulses compensator to select the number of pulses having the least total loss from the total loss values calculated by the loss computing units, wherein the three-phase AC motor is driven by changing the number of pulses of the inverter from the computed loss value.
A three-dimensional modeling apparatus for producing a three-dimensional object using a solid thermoplastic material, the three-dimensional modeling apparatus comprising: a drive motor; a plasticizing section having a flat screw and a screw facing section; and a nozzle configured to inject the molten material, wherein the flat screw has a plurality of material inlets that are formed on a side surface of the flat screw and a scroll-groove formed surface on which a plurality of scroll grooves that are continuous with the material inlets are formed in a shape like the involute of a circle or a spiral shape from an outer periphery of the flat screw toward a central portion of the scroll-groove formed surface, wherein the flat screw is configured to be rotated by the drive motor, wherein the screw facing section has a screw facing surface that faces the scroll-groove formed surface, a communication hole and a heater, the heater being embedded in the screw facing section, and wherein the screw facing surface has a plurality of guide grooves formed in a spiral shape, and further wherein the plasticizing section is configured to plasticize the solid material, supplied between the flat screw and the screw facing section, by rotation of the flat screw and heating by the heater to convert the material into a molten material. a drive motor; a plasticizing section having a flat screw and a screw facing section; and a nozzle configured to inject the molten material, wherein the flat screw has a plurality of material inlets that are formed on a side surface of the flat screw and a scroll-groove formed surface on which a plurality of scroll grooves that are continuous with the material inlets are formed in a shape like the involute of a circle or a spiral shape from an outer periphery of the flat screw toward a central portion of the scroll-groove formed surface, wherein the flat screw is configured to be rotated by the drive motor, wherein the screw facing section has a screw facing surface that faces the scroll-groove formed surface, a communication hole and a heater, the heater being embedded in the screw facing section, and wherein the screw facing surface has a plurality of guide grooves formed in a spiral shape, and further wherein the plasticizing section is configured to plasticize the solid material, supplied between the flat screw and the screw facing section, by rotation of the flat screw and heating by the heater to convert the material into a molten material.
A method for controlling movement of a plurality of container handling vehicles (201, 301) on a rail system arranged at least partially across a top of a framework structure of an automated storage and retrieval system, on which rail system the plurality of container handling vehicles (201,301) are operable to raise storage containers from, and lower storage containers into, storage columns arranged in rows between upright members and horizontal members of the framework structure, and also to transport the storage containers above the storage columns, and where the following steps are performed by a central operational controller which is in communication with a local controller in each container handling vehicle (201, 301): - receiving data relating to a subsection (401a, 401b) of the rail system, the data comprising a container handling vehicle movement threshold for the subsection (401a, 401b); - instructing a container handling vehicle (201, 301) to follow a path (402, 403) which takes in at least a part of the subsection (401a, 401b); - instructing the container handling vehicle (201, 301) to reduce speed and/or acceleration such that the movement of the container handling vehicle (201, 301) within the subsection (401a, 401b) is below the container handling vehicle movement threshold of the subsection (401a, 401b), characterized in that the container handling vehicle movement threshold sets a maximum linear momentum of the container handling vehicle (201, 301). - receiving data relating to a subsection (401a, 401b) of the rail system, the data comprising a container handling vehicle movement threshold for the subsection (401a, 401b); - instructing a container handling vehicle (201, 301) to follow a path (402, 403) which takes in at least a part of the subsection (401a, 401b); - instructing the container handling vehicle (201, 301) to reduce speed and/or acceleration such that the movement of the container handling vehicle (201, 301) within the subsection (401a, 401b) is below the container handling vehicle movement threshold of the subsection (401a, 401b),
Apparatus (226,326) for condensing water from respiratory gases, comprising a heat exchange component (234,334) having an inlet (228,328), an outlet (230,330) and a condensation chamber, the inlet (228,328) and outlet (230,330) being connectable to a breathing system, such that respiratory gases are conveyed through the condensation chamber, in use, and a base unit (232,332) adapted to aid removal of heat from the walls of the heat exchange component (234,334), wherein the heat exchange component (234,334) is releasably engageable with the base unit (232,332), such that the heat exchange component (234,334) is replaceable and the heat exchange component (234,334) forms a closed system, relative to the base unit (232,332), such that there is no contact between the base unit (232,332), or any air flow generated by the base unit (232,332), and the respiratory gases of the breathing system, and wherein the base unit (232,332) comprises a heat exchange medium for transferring heat away from the heat exchange component (234,334), and one or more heat conductors (270,274,370,374) for engaging the exterior surface of the heat exchange component (234,334), the one or more heat conductors (270,274,370,374) taking the form of projections or recesses (270,274,370,374) for engaging corresponding projections or recesses (248,346) of the heat exchange component (234,334).
A computer-implemented method comprising: receiving selection, through one or more direction sensors of a radar-communication device, of a direction for projection of a radar transmission towards a device; projecting, through a radio element of a radar system of the radar-communication device, a directed radar transmission in the selected direction, the directed radar transmission transmitting data from the radar-communication device; receiving, at an antenna of the radar-communication device, a reflection caused by an interaction made with the directed radar transmission; determining that the interaction indicates a gesture made by a user within a radar field of the directed radar transmission; determining, based on the gesture, a selection concerning control of the device; and passing the selection to the device effective to cause the control. receiving selection, through one or more direction sensors of a radar-communication device, of a direction for projection of a radar transmission towards a device; projecting, through a radio element of a radar system of the radar-communication device, a directed radar transmission in the selected direction, the directed radar transmission transmitting data from the radar-communication device; receiving, at an antenna of the radar-communication device, a reflection caused by an interaction made with the directed radar transmission; determining that the interaction indicates a gesture made by a user within a radar field of the directed radar transmission; determining, based on the gesture, a selection concerning control of the device; and passing the selection to the device effective to cause the control.
A packaging bag having a patch packaged with a packaging material, wherein the packaging material comprises: an inner layer made of unstretched isophthalic acid modified polyethylene terephthalate having heat sealing properties; an oxygen-absorbing layer containing an oxygen-absorbing resin having an unsaturated alicyclic structure as an oxygen-absorbing part; and an oxygen barrier layer made of aluminum foil as an outer layer, and the patch includes an adhesive layer containing an oily component. an inner layer made of unstretched isophthalic acid modified polyethylene terephthalate having heat sealing properties; an oxygen-absorbing layer containing an oxygen-absorbing resin having an unsaturated alicyclic structure as an oxygen-absorbing part; and an oxygen barrier layer made of aluminum foil as an outer layer, and the patch includes an adhesive layer containing an oily component.