WO2015039377A1 - 自能电动船舶 - Google Patents

自能电动船舶 Download PDF

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Publication number
WO2015039377A1
WO2015039377A1 PCT/CN2013/087938 CN2013087938W WO2015039377A1 WO 2015039377 A1 WO2015039377 A1 WO 2015039377A1 CN 2013087938 W CN2013087938 W CN 2013087938W WO 2015039377 A1 WO2015039377 A1 WO 2015039377A1
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WO
WIPO (PCT)
Prior art keywords
motor
self
piston
winding
wire
Prior art date
Application number
PCT/CN2013/087938
Other languages
English (en)
French (fr)
Inventor
沙铭超
Original Assignee
沙铭超
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN201310463898.1A external-priority patent/CN103546003A/zh
Application filed by 沙铭超 filed Critical 沙铭超
Publication of WO2015039377A1 publication Critical patent/WO2015039377A1/zh

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Classifications

    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02KDYNAMO-ELECTRIC MACHINES
    • H02K53/00Alleged dynamo-electric perpetua mobilia

Definitions

  • the present invention relates to a self-powered electric ship, and more particularly to an electric ship having self-energy generation and self-energy storage, and whose power is continuous and uninterrupted. Background technique
  • the technical problem to be solved by the present invention is: In view of the above-mentioned problems and limitations of the existing electric ship technology, an electric ship having self-energy generation and self-energy storage, and continuous and uninterrupted power is provided. This article is called a self-powered electric ship.
  • the first technical solution of the self-powered electric ship of the present invention is: comprising a hull 1 provided with armor, the hull 1 is provided with a permanent motor 2, a battery pack or a capacitor bank 3; the permanent motor 2 is comprised of an end cap
  • the base 201 is provided with two or more motor stators 4, 5 in the base 201, the motor stator 4 is provided with a motor rotor 6, the motor stator 5 is provided with a motor rotor 7, and the motor rotor 6 is combined with the spokes of the spoke shaft 8.
  • the large-diameter flywheel type structure is coupled to the small-diameter motor rotor 7 through the shaft of the spoke shaft 8; in the construction, the motor stator 5 combined with the motor rotor 7 has an output electric power greater than that of the motor stator 4 or the motor rotor 6, based on the rotation Field or pivoting, whereby the motor stator 4 or the winding lead of the motor rotor 6 is connected to the wire box 401, the motor stator 5 or the winding lead of the motor rotor 7 is connected to the wire box 501; the battery pack or the capacitor bank 3 is provided There is a charging controller 9, the charging controller 9 has a charging circuit output end provided with a wire 901 connecting the battery pack or the capacitor bank 3, and the charging controller 9 has a charging circuit input end provided with a wire 902 connecting the wire box 501, The charging controller 9 controls the startup and shutdown of an inverter circuit or a switching power supply by an overcharge protection circuit.
  • the inverter circuit or the switching power supply is provided with a wire 903 connecting the wire box 401, and the charging controller 9 has an overvoltage and an overcurrent.
  • the protection circuit is provided with a wire 904 connected to the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with an electrical connection with one or more electric motors or the self-propelled electromagnetic motor 10.
  • the electric motor or self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission 11 .
  • the self-starting electromagnetic motor 10 is provided with one or more cylinders in a casing or a body, the cylinder is provided with a pair of pistons, the cylinder and the piston are composed of a core and a winding; Ball or piston ring on the side for support and slip
  • the piston is connected to the crankshaft through a connecting rod; a one-point moving switch is arranged at the top dead center or the bottom dead center of the piston in the cylinder, or a one-point moving switch is arranged at the upper and lower dead ends, the jog switch and the cylinder winding and the piston winding are arranged There is an electric connection, so the jog switch is used to simultaneously control the on and off of the cylinder winding and the piston winding, and the jog switch is electrically connected with the wire box outside the chassis; the crankshaft is supported by a bearing or a magnetic suspension bearing, An end of the crankshaft is coupled with a motive via a flywheel or a transmission mechanism.
  • the starter is provided with a
  • the motor stators 4, 5 and the winding wires of the motor or the self-starting electromagnetic motor 10 are made of silver-copper alloy or rare earth copper alloy, and the motor 10 uses a rare earth permanent magnet rotor.
  • the motor rotor 6 is combined with the spokes of the spoke shaft 8 to form a large-diameter flywheel type, multi-layer flywheel type structure, and the motor
  • a high-power starting winding having a boosting circuit, and a starting winding and a running winding thereof or having a concave-convex layer structure, thereby placing the flywheel-type rare earth permanent magnet motor rotor 6 in the starting winding and the running winding of the motor stator 4.
  • the motor stator 5 has a coreless structure and is provided with a large The winding of the power, the winding thereof or having the structure of a concave-convex layer and a magnetically permeable substrate, the rotor 7 of the motor adopts a small-diameter cylindrical type or a structure having a concave-convex layer and a multi-layer flywheel, whereby the winding of the stator 5 of the motor is concave
  • the layer is combined with the convex layer of the rotor 7 of the rare earth permanent magnet motor, and the winding convex layer of the stator 5 of the motor is combined with the concave layer of the rotor 7 of the rare earth permanent magnet motor and the magnetically permeable substrate is used to realize high performance magnetic permeability and power generation efficiency;
  • Motor stator 4 has a coreless structure and is provided with a large The winding of the power, the winding thereof or having the structure of a concave-convex layer and a magnetically permeable
  • the second technical solution of the self-powered electric ship of the present invention is: comprising a hull 1 provided with armor, the hull 1 is provided with a permanent motor 2, a battery pack or a capacitor bank 3; the permanent motor 2 is comprised of an end cap
  • the base 201 is provided with two or more motor stators 4, 5 in the base 201, the motor stator 4 is provided with a motor rotor 6, the motor stator 5 is provided with a motor rotor 7, and the motor rotor 6 is coupled to the motor rotor through an automatic transmission 801.
  • the motor stator 5 combined with the motor rotor 7 has an output electric power greater than the input power of the motor stator 4 or the motor rotor 6, based on the transition field or the pivoting type, whereby the motor stator 4 or the winding lead of the motor rotor 6
  • the wire box 401, the motor stator 5 or the winding lead wire of the motor rotor 7 is connected to the wire box 501;
  • the battery pack or capacitor bank 3 is provided with a charging controller 9, and the charging controller 9 is provided with a connection battery pack at the output end of the charging circuit or
  • the wire 901 of the capacitor bank 3 the charging controller 9 is provided with a wire 902 of the connection line box 501 at the input end of the charging circuit, and the charging controller 9 controls the startup and shutdown of an inverter circuit or a switching power supply by the overcharge protection circuit.
  • the power supply is provided with a wire 903 connecting the wire box 401, and the overvoltage and overcurrent protection circuit of the charging controller 9 is provided with a wire 904 connected to the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor speed controller 906, and the motor is adjusted.
  • the speed governor 906 is provided with an electrical connection to one or more electric motors or a self-propelled electromagnetic motor 10 that is coupled to the propeller or impeller 12 via a transmission or transmission 11 .
  • the motor stators 4, 5 and the winding wires of the motor or the self-starting electromagnetic motor 10 are made of silver-copper alloy or rare earth copper alloy, and the motor 10 uses a rare earth permanent magnet rotor.
  • the motor rotor 6 has a large-diameter flywheel type, multi-layer flywheel type structure, and the motor stator 4 has a coreless structure and is provided
  • the convex layer of the rotor 7, the winding convex layer of the motor stator 5 is combined with the concave layer of the rotor 7 of the rare earth permanent magnet motor and the magnetically permeable substrate to realize high-performance magnetic permeability and power generation efficiency; thereby, high-performance electromagnetic effect
  • the motor stator 4 combines a rare earth permanent magnet motor rotor 6 with high performance flywheel power through an automatic transmission 801 with a small diameter and
  • the rare earth permanent magnet motor rotor 7 of the convex layer structure is vertically operated, and the automatic transmission 801 is added to increase the torque and the variable torque, so that the high-power winding and the motor stator 5 having high-performance power generation efficiency realize high-power generation. Therefore, in combination with all of the above technical elements, high-performance power and power consumption are achieved, and power generation is small.
  • the third technical solution of the self-powered electric ship of the present invention is: comprising a hull 1 provided with an armor, the hull 1 is provided with a permanent engine 13, a battery pack or a capacitor bank 3; and the permanent engine 13 is provided by a casing or a body 131 One or more cylinders 14 are disposed therein, and the cylinder tube 14 is provided with a pair of pistons 141.
  • the cylinder tubes 14 and 141 are composed of a core and a winding; the side of the piston 141 is provided with balls or piston rings for supporting and Sliding, the piston 141 is coupled to the crankshaft 143 via a connecting rod 142; a one-point switch is provided at the top dead center or bottom dead center of the piston in the cylinder 14, or a one-point switch is provided at the top and bottom dead ends, the jog switch and its cylinder winding
  • the piston winding is electrically connected, so the jog switch is used to simultaneously control the on and off of the cylinder winding and the piston winding, and the jog switch and the wire box 132 are electrically connected;
  • the crankshaft 143 is driven by a bearing or a magnetic suspension bearing Supported by 134, 135, the crankshaft 143 is provided with a weight 144, the end of the crankshaft 143 is provided with one or more motor rotors 145, and the motor rotor 145 is provided with a matching motor stator
  • the charging controller 9 is provided with a wire 902 of the connecting wire box 133 at the input end of the charging circuit, and the charging controller 9 has an overcharge protection circuit. Controlling the starting and closing of an inverter circuit or a switching power supply, the inverter circuit or the switching power supply is provided with a wire 903 connecting the wire box 132, and the charging controller 9 has an overvoltage and overcurrent protection circuit provided with a switching power supply 905.
  • the conductor 904, the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with an electrical connection with one or more electric motors or the self-propelled electromagnetic motor 10, The electric motor or self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission 11 .
  • the winding wires of the motor or the self-starting electromagnetic motor 10 and the motor stator 146 are made of silver-copper alloy or rare earth copper alloy, and the motor 10 is a rare earth permanent magnet rotor.
  • the winding concave layer of the motor stator 146 is combined with the convex layer of the rare earth permanent magnet motor rotor 145, the winding convex layer of the motor stator 146 is combined with the concave layer of the rare earth permanent magnet motor rotor 145 and the magnetically permeable substrate is applied to realize high performance magnetic permeability.
  • the high-performance angular momentum and torque-driven small-diameter permanent magnet motor rotor 145 having a small-diameter and concave-convex structure are provided to be vertically operated by a member such as a crankshaft 143, thereby providing a high-power winding and
  • the motor stator 146 having high-performance power generation efficiency realizes a large amount of power generation, and thus, in combination with all of the above-described technical elements, high-performance power and power consumption are reduced, and power generation is large.
  • the fourth technical solution of the self-powered electric ship of the present invention is: comprising a hull 1 provided with armor, the hull 1 is provided with a permanent engine 13, a battery pack or a capacitor bank 3; and the permanent engine 13 is provided by a casing or a body 131 One or more cylinders 14 are disposed therein, and the cylinder tube 14 is provided with a pair of pistons 141.
  • the cylinder tubes 14 and 141 are composed of a core and a winding; the side of the piston 141 is provided with balls or piston rings for supporting and Sliding, the piston 141 is coupled to the crankshaft 143 via a connecting rod 142; a one-point switch is provided at the top dead center or bottom dead center of the piston in the cylinder 14, or a one-point switch is provided at the top and bottom dead ends, the jog switch and its cylinder winding
  • the piston winding is electrically connected, so the jog switch is used to simultaneously control the on and off of the cylinder winding and the piston winding, and the jog switch and the wire box 132 are electrically connected;
  • the crankshaft 143 is driven by a bearing or a magnetic suspension bearing 134, 135 Supporting, the crankshaft 143 is provided with a weight 144.
  • the end of the crankshaft 143 is coupled to one or more motor rotors 145 via an automatic transmission or transmission mechanism 147.
  • the motor rotor 145 is provided with a matching motor stator 146. In the construction, the motor stator 146 is combined with the motor.
  • the rotor 145 has an output power that is greater than the input power of the cylinder 14 winding in combination with the winding of the piston 141, based on a transition or a pivoting type, whereby the winding lead of the motor stator 146 or the motor rotor 145 is connected to the wire box 133; the output of the crankshaft 143 Or the flywheel of the output end is coupled with a motive, the starter is provided with a wire connecting the wire box 132 via the thermistor, and the casing 131 is filled with lubricating oil for lubricating the connecting rod and the crankshaft; the battery pack or the capacitor group 3 is provided
  • the charging controller 9, the charging controller 9 has a charging circuit output end provided with a wire 901 for coupling the battery pack or the capacitor bank 3.
  • the charging controller 9 has a charging circuit input end provided with a wire 902 connecting the wire box 133, and the charging controller 9
  • the overcharge protection circuit controls the start and stop of an inverter circuit or a switching power supply, and the inverter circuit or the switching power supply is provided with a wire 9 connecting the wire box 132.
  • the charging controller 9 has an overvoltage and overcurrent protection circuit provided with a wire 904 connected to the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with one or more
  • the electric motor or the self-starting electromagnetic motor 10 is electrically coupled, and the electric motor or self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission mechanism 11.
  • the winding wires of the motor or the self-starting electromagnetic motor 10 and the motor stator 146 are made of silver-copper alloy or rare earth copper alloy, and the motor 10 is a rare earth permanent magnet rotor.
  • a stator with no iron core, a starting winding and a running winding or a structure having a concave-convex layer the starting winding has a large power or a booster circuit
  • the rotor has a large diameter flywheel type, multi-layer flywheel type
  • the structure, the large-diameter flywheel rare earth permanent magnet rotor is placed in the concave layer of the starting winding and the running winding, and the high-power starting winding with the boosting circuit and the running winding and the uneven layer are combined to achieve high
  • the electromagnetic force and the moment of inertia of the performance; the cylinder 14, the piston 141, the connecting rod 142, and the crankshaft 143 are configured by a large piston stroke to achieve high-performance angular momentum and torque;
  • the motor rotor 145 has a flywheel type , a multi-layer flywheel or a structure of a concavo-convex layer, or a rare earth permanent magnet;
  • the motor stator 146 has
  • the fifth technical solution of the self-powered electric ship of the present invention comprises: a hull 1 provided with an armor, the hull 1 is provided with a generator 15, an electric motor or a self-propelled electromagnetic engine 16, a battery pack or a capacitor bank 3, and the electric motor 16 has a large
  • the power start winding is combined with a large diameter flywheel rotor, the generator 15 having a small diameter cylindrical rotor relative to the motor 16; the motor or the power output end of the self-starting electromagnetic motor 16 is coupled to the generator 15,
  • the output power of the generator 15 is greater than the input power of the electric motor or the self-starting electromagnetic motor 16; or the electric motor or the self-propelled electromagnetic motor 16 is provided.
  • There are front and rear power output ends, and the front and rear power output ends are respectively connected to one or more generators with small diameter cylindrical rotors
  • the two or more generators 15 may have a single output power that is less than the input power of the electric motor or the self-starting electromagnetic motor 16, but the total output power is greater than the input of the electric motor or the self-propelled electromagnetic motor 16
  • the battery pack or the capacitor bank 3 is provided with a charging controller 9, and the charging controller 9 has a charging circuit output end provided with a wire 901 for connecting the battery pack or the capacitor bank 3, and the charging controller 9 is provided with a connection circuit for the charging circuit input end.
  • the wire 902 of the machine 15, the charge controller 9 controls the activation and shutdown of an inverter circuit or a switching power supply thereof, and the inverter circuit or the switching power supply is provided with a wire 903 connecting the motor or the self-starting electromagnetic motor 16.
  • the charging controller 9 has an overvoltage and overcurrent protection circuit provided with a wire 904 connected to the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with one or more Electrical connection of the electric motor or the self-starting electromagnetic motor 10, the electric motor or the self-propelled electromagnetic motor 10 is coupled to the spiral through the transmission or the transmission mechanism 11. Or impeller 12.
  • the winding wires of the generator 15, the electric motor or the self-starting electromagnetic motor 10, 16 are made of silver-copper alloy or rare earth copper alloy, and the generator 15 is made of rare earth.
  • a permanent magnet rotor or a stator having an ironless core the stator is provided with a high-power winding, the winding or has a concave-convex layer structure and a magnetically permeable underlay, and the rotor has a small-diameter cylindrical shape or has a concave-convex layer and a multi-layer flying The wheeled structure; thus, the winding concave layer is combined with the convex layer of the rare earth permanent magnet rotor, the winding convex layer is combined with the concave layer of the rare earth permanent magnet rotor and the magnetically permeable substrate is applied to realize high performance magnetic permeability And the power generation efficiency; the electric motor 10, 16 uses a rare earth permanent magnet rotor or a stator having an ironless core, the stator is provided with
  • the sixth technical scheme of the self-powered electric ship of the present invention comprises: a hull 1 provided with an armor, the hull 1 is provided with a generator 15, an electric motor or a self-propelled electromagnetic engine 16, a battery pack or a capacitor bank 3, an electric motor or a self-starting
  • the electromagnetic motor 16 is provided with or has an automatic transmission 161, or the generator 15 is provided with or has an automatic transmission 161, whereby the electric motor or the self-propelled electromagnetic motor 16 is coupled to the generator 15 through the automatic transmission 161, and the output power of the generator 15
  • the input power is greater than the electric motor or the self-starting electromagnetic motor 16; or the electric motor or the self-propelled electromagnetic motor 16 is coupled to the plurality of generators 15 through the automatic transmission 161, the plurality of generators 15 having a single output power that is less than the The input power of the electric motor or the self-starting electromagnetic motor 16, but the total output power is greater than the input power of the electric motor or the self-starting electromagnetic motor 16;
  • the battery pack or capacitor bank 3 is
  • the controller 9 controls its inverter circuit or switching power supply to be turned on and off by an overcharge protection circuit.
  • the inverter circuit or the switching power supply is provided with a wire 903 connecting the motor or the self-starting electromagnetic motor 16, and the charging controller 9 passes through
  • the voltage and overcurrent protection circuit is provided with a wire 904 connected to the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with one or more electric motors or self-propelled electromagnetic engines.
  • the electrical connection of 10, the electric motor or the self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission 11.
  • the winding wires of the generator 15, the electric motor or the self-starting electromagnetic motor 10, 16 are made of silver-copper alloy or rare earth copper alloy, and the generator 15 is made of rare earth.
  • a permanent magnet rotor or a stator having an ironless core the stator is provided with a high-power winding, the winding or has a concave-convex layer structure and a magnetically permeable underlay, and the rotor has a small-diameter cylindrical shape or has a concave-convex layer and a multi-layer flying The wheeled structure; thus, the winding concave layer is combined with the convex layer of the rare earth permanent magnet rotor, the winding convex layer is combined with the concave layer of the rare earth permanent magnet rotor and the magnetically permeable substrate is applied to realize high performance magnetic permeability And the power generation efficiency; the electric motor 10, 16 uses a rare earth permanent magnet rotor or a stator having an ironless core, the stator is provided with
  • the seventh technical solution of the self-powered electric ship of the present invention comprises: a hull 1 provided with an armor, the hull 1 is provided with a base 17, a battery pack or a capacitor bank 3, and the base 17 is provided with a generator 15, a ring rail 171,
  • the crossbar 172, the crossbar 172 is provided with a bearing 173, a brush 174, the bearing 173 is provided with a spoke shaft 175, the spoke shaft 175 is disposed in the ring rail 171, and the base of the ring rail 171 to the base 17 is provided with a shell cover;
  • the shaft of the 175 is provided with a slip ring 176, the spoke shaft 175 is provided with an electric motor or a self-propelled electromagnetic motor 16, and the power output end of the electric motor or the self-starting electromagnetic motor 16 is provided with a wheel or an impeller or a propeller 162, or through an automatic a transmission or transmission coupling wheel or impeller or propeller 162;
  • the shaft of the spoke shaft 175 is coupled to the generator
  • Variable circuit or switching power supply with brush 174, slip ring 176 Connecting the electric motor or the wire 903 of the self-starting electromagnetic motor 16, the overvoltage and overcurrent protection circuit of the charging controller 9 is provided with a wire 904 connected to the switching power supply 905, and the switching power supply 905 is provided with an electrical connection with the motor governor 906.
  • the motor governor 906 is provided with an electrical connection to one or more electric motors or a self-propelled electromagnetic motor 10 that is coupled to the propeller or impeller 12 via a transmission or transmission 11.
  • the winding wires of the generator 15, the electric motor or the self-starting electromagnetic motor 10, 16 are made of silver-copper alloy or rare earth copper alloy, and the generator 15 is made of rare earth.
  • a permanent magnet rotor or a stator having an ironless core the stator is provided with a high-power winding, the winding or has a concave-convex layer structure and a magnetically permeable underlay, and the rotor has a small-diameter cylindrical shape or has a concave-convex layer and a multi-layer flying The wheeled structure; thus, the winding concave layer is combined with the convex layer of the rare earth permanent magnet rotor, the winding convex layer is combined with the concave layer of the rare earth permanent magnet rotor and the magnetically permeable substrate is applied to realize high performance magnetic permeability And the power generation efficiency; the electric motor 10, 16 uses a rare earth permanent magnet rotor or a stator having an ironless core, the stator is provided with
  • the eighth technical solution of the self-powered electric ship of the present invention is: comprising a hull 1 provided with armor, the hull 1 is provided with two or more sets of techniques and mechanisms described in the first to seventh technical solutions, thereby Or a plurality of switching power supplies 905 and motor governors 906 are respectively combined; thereby realizing complex composite self-power generation, self-power storage technology and mechanism, compound composite operation technology and mechanism, and compound power technology and mechanism, which not only realize The self-powered electric ship technology of self-powered power generation and self-power storage, and also realizes the safety advanced technology of self-powered electric ship sailing without failure and without anchoring. As well as achieving greater power generation, it provides continuous and uninterrupted power and power for large-scale self-powered electric ships. Beneficial effect
  • the beneficial effects are as follows:
  • the driver supplies power to each meter and each device according to the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or capacitor bank 3.
  • the motor 10 having the high-performance flywheel power and the electromagnetic force is driven to operate, or the short-time conduction and the automatic blocking are realized by the thermistor, thereby realizing the automatic start of the starter of the self-starting electromagnetic motor 10 and Automatic closing, the process not only drives the piston movement of the self-propelled electromagnetic engine 10 but also effectively prevents the starter from heating.
  • the piston movement of the process causes the piston top to touch its jog switch, thereby making its piston winding and Simultaneously guiding the cylinder windings Through, a repulsive force is generated, and the piston generates a stroke by the repulsive force, and the crankshaft is operated by the connecting rod, whereby the self-propelled electromagnetic motor 10 having high-performance angular momentum enters normal operation and operation.
  • the motor having the high-performance electromagnetic force and the flywheel power or the operation of the self-starting electromagnetic motor 10 having the high-performance angular momentum drives the propeller or the impeller 12 through the transmission 11, thereby realizing the navigation of the self-powered electric ship, and the motor is adjusted.
  • the speed governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby manipulating the sailing speed of the self-powered electric ship.
  • the charging controller 9 is automatically turned on by the overcharge protection circuit, and the battery is automatically turned on.
  • the current supplied by the group or the capacitor bank 3 passes through the wire 903 and then enters the winding of the motor stator 4, and the winding of the motor stator 4 generates a rotating magnetic field to drive the rotor 6 of the motor.
  • the motor stator 4 with high-performance electromagnetic force combines with a high-performance flywheel.
  • the dynamic rare earth permanent magnet motor rotor 6 and the rare earth permanent magnet motor rotor 7 having a small diameter and a concave-convex layer structure are vertically operated, so that the high-power winding and the motor stator 5 having high-performance power generation efficiency realize high-power generation. the amount.
  • the electric current generated by the motor stator 5 is charged by the charging circuit of the charging unit 9 and the charging controller 9 to charge the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to achieve high performance.
  • the power and power consumption are small and the power generation is large, thus providing continuous and uninterrupted power and power for the self-powered electric ship.
  • the overcharge protection circuit of the charge controller 9 is automatically turned off, thereby stopping the motor rotors 6, 7 and reducing Loss, and prevent overcharging of the battery pack or capacitor bank 3, thereby extending the life and other benefits.
  • the overcharge protection circuit of the charging controller 9 is automatically turned on, thereby automatically starting the power generation mechanism for automatic charging.
  • the beneficial effects are as follows:
  • the driver simultaneously supplies power to each meter and each device by pressing the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or the capacitor bank 3.
  • the current is driven by the switching power supply 905 to drive a motor having high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 10 having high-performance angular momentum, and the propeller or impeller 12 is driven by the transmission 11, thereby realizing self-powered electric ship sailing.
  • the motor governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby manipulating the sailing speed of the self-powered electric ship.
  • the charging controller 9 automatically turns on the overcharge protection circuit, and the battery is automatically turned on.
  • the current supplied by the group or capacitor bank 3 passes through the wire 903 and then enters the winding of the motor stator 4, and the winding of the motor stator 4 generates a rotating magnetic field to drive the rotor 6 of the motor.
  • the motor stator 4 with high-performance electromagnetic force combines with a high-performance flywheel.
  • the dynamic rare earth permanent magnet motor rotor 6 is vertically operated by the automatic transmission 801 and the rare earth permanent magnet motor rotor 7 having a small diameter and a concave-convex layer structure, and the automatic transmission 801 increases the torque and the variable speed torque, thereby making it large.
  • Power windings and motor stators 5 with high-performance power generation efficiency achieve high power generation.
  • the electric current generated by the motor stator 5 is charged by the charging circuit of the charging unit 9 and the charging controller 9 to charge the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to achieve high performance.
  • the power and power consumption are small, and the power generation is large. Provides continuous and uninterrupted power and power.
  • the overcharge protection circuit of the charge controller 9 is automatically turned off, thereby stopping the motor rotors 6, 7 and reducing Loss, and prevent overcharging of the battery pack or capacitor bank 3, thereby extending the life and other benefits.
  • the overcharge protection circuit of the charging controller 9 is automatically turned on, thereby automatically starting the power generation mechanism for automatic charging.
  • the beneficial effects are as follows:
  • the driver simultaneously supplies power to the meters and devices according to the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or capacitor bank 3.
  • the current is driven by the switching power supply 905 to drive a motor having high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 10 having high-performance angular momentum, and the propeller or impeller 12 is driven by the transmission 11, thereby realizing self-powered electric ship sailing.
  • the motor governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby manipulating the sailing speed of the self-powered electric ship.
  • the charging controller 9 automatically turns on the overcharge protection circuit, and the battery is automatically turned on.
  • the current supplied by the group or capacitor bank 3 is connected to the wire box 132 via the wire 903, thereby achieving short-time conduction and automatic blocking by the thermistor, thereby realizing automatic start and automatic closing of the starter, which not only drives the process.
  • the crankshaft 143 and the piston 141 move and also effectively prevent heat generation of the starter.
  • the movement of the piston 141 causes the piston 141 to touch its jog switch, thereby causing its piston winding and its associated cylinder winding to be simultaneously turned on.
  • the current generated by the motor stator 146 is charged by the charging circuit 902 and the charging controller 9 to charge the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to achieve high performance.
  • the power and power consumption are small and the power generation is large, thus providing continuous and uninterrupted power and power for the self-powered electric ship.
  • the overcharge protection circuit of the charging controller 9 is automatically turned off, so that the crankshaft 143 and the motor rotor 145 are stopped. Reduces losses and prevents overcharging of the battery pack or capacitor bank 3, thereby extending the life and other benefits.
  • the overcharge protection circuit of the charging controller 9 is automatically turned on, thereby automatically starting the power generation mechanism for automatic charging.
  • the beneficial effects are as follows:
  • the driver simultaneously supplies power to the meters and devices according to the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or the capacitor bank 3.
  • the current is driven by the switching power supply 905 to drive a motor having high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 10 having high-performance angular momentum, and the propeller or impeller 12 is driven by the transmission 11, thereby realizing self-powered electric ship sailing.
  • the motor governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby maneuvering the navigation of the self-powered electric ship. Speed.
  • the charging controller 9 automatically turns on the overcharge protection circuit, and the battery is automatically turned on.
  • the current supplied by the group or capacitor bank 3 is connected to the wire box 132 via the wire 903, thereby achieving short-time conduction and automatic blocking by the thermistor, thereby realizing automatic start and automatic closing of the starter, which not only drives the process.
  • the crankshaft 143 and the piston 141 move and also effectively prevent heat generation of the starter.
  • the movement of the piston 141 causes the piston 141 to touch its jog switch, thereby causing its piston winding and its associated cylinder winding to be simultaneously turned on.
  • the current generated by the motor stator 146 is charged by the charging circuit 902 and the charging controller 9 to charge the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to achieve high performance.
  • the power and power consumption are small and the power generation is large, thus providing continuous and uninterrupted power and power for the self-powered electric ship.
  • the overcharge protection circuit of the charging controller 9 is automatically turned off, so that the crankshaft 143 and the motor rotor 145 are stopped. Reduces losses and prevents overcharging of the battery pack or capacitor bank 3, thereby extending the life and other benefits.
  • the overcharge protection circuit of the charging controller 9 is automatically turned on, thereby automatically starting the power generation mechanism for automatic charging.
  • the beneficial effects are as follows:
  • the driver simultaneously supplies power to each meter and each device according to the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or capacitor bank 3.
  • the current is driven by the switching power supply 905 to drive a motor having high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 10 having high-performance angular momentum, and the propeller or impeller 12 is driven by the transmission 11, thereby realizing self-powered electric ship sailing.
  • the motor governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby manipulating the sailing speed of the self-powered electric ship.
  • the charging controller 9 automatically turns on the overcharge protection circuit, and the battery is automatically turned on.
  • the current provided by the group or capacitor bank 3 drives an electric motor with high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 16 with high-performance angular momentum, which drives vertical connection and has high-performance dynamics and high
  • the high-power generator 15 that performs power generation efficiency operates and generates electricity, thereby realizing a large amount of power generation.
  • the electric current generated by the charging circuit 902 and the charging controller 9 charges the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to realize high-performance power. And the power consumption is small, and the power generation is large, thus providing continuous and uninterrupted power and power for the self-powered electric ship navigation.
  • the overcharge protection circuit of the charge controller 9 When the self-powered electric ship is stopped and does not work, when the power and voltage of the battery pack or capacitor bank 3 reach the set value, the overcharge protection circuit of the charge controller 9 is automatically turned off, thereby causing the motor or the self-starting electromagnetic engine 16 and Generator 15 stops The operation and the reduction of the loss, and the overcharging of the battery pack or the capacitor bank 3 are prevented, thereby prolonging the service life and the like. If the voltage of the battery pack or capacitor bank 3 drops to a set value when the self-powered electric ship does not work for a long time, the overcharge protection circuit of the charge controller 9 is automatically turned on, thereby realizing automatic start of the power generation mechanism for automatic charging.
  • the beneficial effects are as follows:
  • the driver simultaneously supplies power to each meter and each device according to the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or capacitor bank 3.
  • the current is driven by the switching power supply 905 to drive a motor having high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 10 having high-performance angular momentum, and the propeller or impeller 12 is driven by the transmission 11, thereby realizing self-powered electric ship sailing.
  • the motor governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby manipulating the sailing speed of the self-powered electric ship.
  • the charging controller 9 automatically turns on the overcharge protection circuit, and the battery is automatically turned on.
  • the current supplied by the group or capacitor bank 3 drives an electric motor having high-performance flywheel power and electromagnetic force or a self-starting electromagnetic motor 16 having high-performance angular momentum, which is driven by the automatic transmission 161 to be vertically coupled and has high power.
  • the high-performance power generation efficiency rare earth permanent magnet generator 15 operates and generates electric power, and the automatic transmission 161 increases the torque and the variable torque, thereby realizing a high power generation amount.
  • the electric current generated by the charging circuit 902 and the charging controller 9 charges the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to realize high-performance power. And the power consumption is small, and the power generation is large, thus providing continuous and uninterrupted power and power for the self-powered electric ship navigation.
  • the overcharge protection circuit of the charge controller 9 is automatically turned off, thereby causing the motor or the self-starting electromagnetic engine 16 and The generator 15 is stopped and the loss is reduced, and the overcharging of the battery pack or the capacitor bank 3 is prevented, thereby prolonging the service life and the like.
  • the overcharge protection circuit of the charging controller 9 is automatically turned on, thereby automatically starting the power generation mechanism for automatic charging.
  • the beneficial effects are as follows:
  • the driver simultaneously supplies power to each meter and each device according to the switching power supply 905, and operates the motor governor 906, which is provided by the battery pack or capacitor bank 3.
  • the current is driven by the switching power supply 905 to drive a motor having high-performance electromagnetic force and flywheel power or a self-starting electromagnetic motor 10 having high-performance angular momentum, and the propeller or impeller 12 is driven by the transmission 11, thereby realizing self-powered electric ship sailing.
  • the motor governor 906 is used to control the rotational speed of the electric motor or the self-propelled electromagnetic motor 10, thereby manipulating the sailing speed of the self-powered electric ship.
  • the charging controller 9 automatically turns on the overcharge protection circuit, and the battery is automatically turned on.
  • the current provided by the group or capacitor bank 3 drives an electric motor having high performance flywheel power and electromagnetic force or a self-starting electromagnetic motor 16 having high performance angular momentum, which drives the wheel or impeller or propeller 162 to operate, whereby the wheel 162 Moving on the ring rail 171, or the impeller and the propeller 162 use the air to generate the propulsive force in the ring rail 171, so that the spoke shaft 175 rotates, and the vertical connection and the high-performance power are driven by the spoke torque of the spoke shaft 175. Learning, great performance with high performance power generation efficiency The generator 15 operates and generates electricity, thereby achieving a high power generation amount.
  • the electric current generated by the charging circuit 902 and the charging controller 9 charges the battery pack or the capacitor bank 3, thereby realizing self-energy generation and self-energy storage, thereby combining all the above technical elements to realize high-performance power. And the power consumption is small, and the power generation is large, thus providing continuous and uninterrupted power and power for the self-powered electric ship navigation.
  • the overcharge protection circuit of the charge controller 9 is automatically turned off, thereby causing the motor or the self-starting electromagnetic engine 16 and The generator 15 is stopped and the loss is reduced, and the overcharging of the battery pack or the capacitor bank 3 is prevented, thereby prolonging the service life and the like.
  • the overcharge protection circuit of the charging controller 9 is automatically turned on, thereby automatically starting the power generation mechanism for automatic charging.
  • the utility model has the beneficial effects that: the hull 1 is provided with two or more sets of technologies and mechanisms described in the first to seventh technical solutions, thereby controlling two or more switching power sources 905 and the motor
  • Each of the devices 906 is composited; thereby realizing a complex composite self-power generation, self-power storage technology and mechanism, a compound composite operation technology and mechanism, a complex hybrid power technology and mechanism, which not only realizes self-energy generation and self-energy storage.
  • Self-powered electric ship technology but also realizes the safety advanced technology of self-powered electric ship sailing without failure and without anchoring. As well as achieving greater power generation, it provides continuous and uninterrupted power and power for large-scale self-powered electric ships.
  • the rotor of the motor, the rotor of the motor, the rotor of the generator or the magnetic suspension device are supported to improve the power and the rotational speed when the technical parameters are applicable;
  • the battery pack or capacitor bank 3 has The superheater, the overvoltage, the overcurrent protection and the on-line monitoring system, the capacitor bank 3 may be composed of a supercapacitor or a smart capacitor;
  • the switch power supply 905 has a push switch disposed in the cab, and the motor governor 906 is provided with a convenient a control lever or pedal, the motor 10 or a switch is provided for controlling the motor 10 to be reversed;
  • the generator is provided with a monitoring and warning system, the permanent motor, the permanent engine, the motor And self-starting electromagnetic engine or equipped with monitoring and early warning system and emergency stop switch, if there are multiple electric motors or self-propelled electromagnetic engine 10 as the power mechanism, such as power failure by turning off an emergency stop switch in case of failure .
  • the self-powered electric ship of the present invention is provided with a fixed speed cruise system and a temperature controller, wherein the fixed speed cruise system is controlled by a cruise control component to control the motor or the self-propelled electromagnetic engine 10 to increase the speed of the other motor.
  • the temperature controller is used to control the thermostat, the temperature controller and
  • the air conditioning system is electrically connected to the charging controller 9, so that when the self-powered electric ship is stopped and does not work, the temperature controller automatically activates the thermostat controller in case of sun exposure or cold current, thereby protecting the physical characteristics and comfort of the ship's facilities.
  • Figure 1 is a schematic view of a hull of a self-powered electric ship
  • Embodiments 1 and 2 of a self-powered electric ship according to the present invention 3 is a schematic view showing the internal structure of the base 201 of the embodiment 1;
  • FIG. 4 is a schematic view showing the internal structure of the base 201 of the embodiment 2;
  • Figure 5 is a schematic view showing the technical construction of the embodiments 3 and 4 of the self-powered electric ship of the present invention.
  • FIG. 6 is a schematic view showing the internal structure of the chassis 131 of Embodiment 3;
  • FIG. 7 is a schematic view showing the internal structure of the chassis 131 of the embodiment 4.
  • FIG. 8 is a schematic structural view of a fifth embodiment of a self-powered electric ship according to the present invention.
  • FIG. 9 is a schematic structural view of a sixth embodiment of a self-powered electric ship according to the present invention.
  • Fig. 10 is a schematic view showing the technical construction of the seventh embodiment of the self-powered electric ship of the present invention. detailed description
  • Embodiment 1 As shown in Figures 1, 2 and 3, the self-powered electric ship of the present invention comprises a hull 1 provided with armor, and the hull 1 is provided with a permanent motor 2, a battery pack or a capacitor bank 3; It is composed of a base 201 provided with an end cover, two or more motor stators 4, 5 are arranged in the base 201, the motor stator 6 is provided with a motor rotor 6, and the motor stator 5 is provided with a motor rotor 7, and the motor rotor 6 is combined.
  • the spokes of the spoke shaft 8 constitute a large-diameter flywheel type structure, and the small-diameter motor rotor 7 is coupled through the shaft of the spoke shaft 8; in the construction, the motor stator 5 combined with the motor rotor 7 has an output electric power greater than that of the motor stator 4 or the motor rotor 6 Input power, based on a transitional or pivoting type, whereby the motor stator 4 or the winding lead of the motor rotor 6 is connected to the wire box 401, the motor stator 5 or the winding lead wire of the motor rotor 7 is connected to the wire box 501;
  • the charging unit 9 is provided with a charging controller 9 .
  • the charging controller 9 has a wire 901 connected to the battery pack or the capacitor bank 3 at the output end of the charging circuit.
  • the charging controller 9 is provided with a connecting wire box 501 at the input end of the charging circuit.
  • Line 902 in order to prevent the current of the battery pack 3 from being poured into the motor stator 5, the charging circuit input end is provided with a diode or a relay; the charging controller 9 has an overcharge protection circuit to control the startup and shutdown of an inverter circuit or a switching power supply.
  • the inverter circuit or the switching power supply is provided with a wire 903 connecting the wire box 401, the overvoltage and overcurrent protection circuit of the charging controller 9 is provided with a wire 904 connected to the switching power supply 905, and the switching power supply 905 is provided with a motor governor In electrical connection of 906, motor governor 906 is provided with an electrical connection to one or more electric motors or self-propelled electromagnetic engine 10, which is coupled to a propeller or impeller 12 via a transmission or transmission 11.
  • the self-starting electromagnetic motor 10 is provided with one or more cylinders in a casing or a body, the cylinder is provided with a pair of pistons, and the cylinder and the piston are composed of an iron core and a winding;
  • the side of the ball is provided with a ball or a piston ring for supporting and sliding, and the piston is connected to the crankshaft through a connecting rod;
  • a one-point moving switch is arranged at the top dead center or the bottom dead center of the piston in the cylinder, or a one-point switch is provided at the upper and lower dead points.
  • the jog switch is provided with a wire connecting the cylinder winding and the piston winding, so the jog switch is used for simultaneously controlling the conduction and the off of the cylinder winding and the piston winding, and the jog switch and the wire box are electrically connected;
  • the crankshaft is supported by a bearing or a magnetic suspension bearing, and an end of the crankshaft is coupled with a motive via a flywheel or a transmission mechanism.
  • the starter is provided with a wire connecting the wire box via the thermistor, and the casing is filled with lubricating oil for the connecting rod. , lubrication of the crankshaft, etc.
  • the self-powered electric ship of the present invention comprises a hull 1 provided with armor, and the hull 1 is provided with a permanent motor 2, a battery pack or a capacitor bank 3; It is a base 201 provided with an end cover, and the base 201 is provided There are two or more motor stators 4, 5, the motor stator 4 is provided with a motor rotor 6, the motor stator 5 is provided with a motor rotor 7, and the motor rotor 6 is coupled to the motor rotor 7 through an automatic transmission 801;
  • the rotor 7 has an output electric power greater than the input power of the motor stator 4 or the motor rotor 6, based on the transition field or the pivoting type, whereby the winding lead wire 401 of the motor stator 4 or the motor rotor 6 is connected to the wire box 401, and the motor stator 5 is The winding lead wire of the motor rotor 7 is connected to the wire box 501; the battery pack or capacitor bank 3 is provided with a charging controller
  • the circuit is provided with a wire 904 connected to the switching power supply 905, the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with an electrical connection with one or more electric motors or the self-propelled electromagnetic motor 10,
  • the electric motor or self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission 11 .
  • Embodiment 3 As shown in Figures 1, 5 and 6, the self-powered electric ship of the present invention comprises a hull 1 provided with armor, the hull 1 is provided with a permanent engine 13, a battery pack or a capacitor bank 3; One or more cylinders 14 are disposed in a casing or body 131. The cylinders 14 are provided with a pair of pistons 141. The cylinders 14 and 141 are composed of a core and a winding. The side of the piston 141 is provided.
  • a ball or a piston ring acts on the support and slide, and the piston 141 is coupled to the crankshaft 143 via a connecting rod 142; a one-point switch is provided at the top dead center or the bottom dead center of the piston in the cylinder 14, or a one-point switch is provided at the upper and lower dead points.
  • the jog switch is provided with a wire connecting the cylinder winding and the piston winding, so the jog switch is used for simultaneously controlling the opening and closing of the cylinder winding and the piston winding, and the jog switch and the wire box 132 are electrically connected.
  • the crankshaft 143 is supported by bearings or magnetically suspended bearings 134, 135, the crankshaft 143 is provided with a weight 144, the end of the crankshaft 143 is provided with one or more motor rotors 145, and the motor rotor 145 is provided with a matching motor stator 146; Constructing the motor stator 146 in combination with the motor rotor 145 having an output electric power greater than the input power of the cylinder 14 winding in combination with the winding of the piston 141, based on the transition or pivoting, whereby the winding lead of the motor stator 146 or the motor rotor 145 is connected to the wire box 133; the flywheel of the output end or the output end of the crankshaft 143 is coupled with a motive, the starter is provided with a wire connecting the wire box 132 via the thermistor, and the casing 131 is filled with lubricating oil for lubricating the connecting rod and the crankshaft;
  • the group or capacitor bank 3 is provided with a
  • the wire 902 in order to prevent the current of the battery pack 3 from being poured into the motor stator 146, the charging circuit is provided with a diode or a relay at the input end; the charging controller 9 has an overcharge protection circuit for controlling the starting and closing of an inverter circuit or a switching power supply.
  • the inverter circuit or the switching power supply is provided with a wire 903 connecting the wire box 132, and the charging controller 9 has overvoltage and overcurrent protection.
  • the circuit is provided with a wire 904 connected to the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with an electrical connection with one or more electric motors or the self-propelled electromagnetic motor 10.
  • the electric motor or self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission 11 .
  • Embodiment 4 As shown in FIGS. 1, 5 and 7, the self-powered electric ship of the present invention includes a hull 1 provided with armor, and a hull 1 A permanent engine 13, a battery pack or a capacitor bank 3 is provided; the permanent engine 13 is provided with one or more cylinders 14 in a casing or body 131, and the cylinder 14 is provided with a pair of pistons 141, cylinders 14
  • the piston 141 is composed of a core and a winding; the side of the piston 141 is provided with a ball or a piston ring for supporting and sliding, and the piston 141 is coupled to the crankshaft 143 via a connecting rod 142; the piston top dead center or the lower end of the cylinder 14 There is a point switch at the point, or a one-point switch is provided at the top and bottom dead points.
  • the jog switch is provided with a wire connecting the cylinder winding and the piston winding, so the jog switch is used to simultaneously control the cylinder winding and the piston winding.
  • the turn-on and turn-off, the jog switch and the wire box 132 are electrically coupled; the crankshaft 143 is supported by a bearing or a magnetic suspension bearing 134, 135, the crankshaft 143 is provided with a weight 144, and the end of the crankshaft 143 is passed through an automatic transmission or transmission
  • the mechanism 147 is coupled to one or more motor rotors 145, which are provided with matching motor stators 146; the motor stator 146 in combination with the motor rotors 145 has an output electrical power greater than the cylinder 14 windings in combination with the pistons 141
  • the input power of the winding is based on a transition or a pivoting type, whereby the winding lead of the motor stator 146 or the motor rotor 145 is connected to the wire box 133; the flywheel
  • the end is provided with a wire 901 for connecting the battery pack or the capacitor bank 3.
  • the charging controller 9 is provided with a wire 902 of the wire box 133 at the input end of the charging circuit.
  • the diode controller or the relay is provided; the charging controller 9 controls the startup and shutdown of an inverter circuit or the switching power supply by the overcharge protection circuit, and the inverter circuit or the switching power supply is provided with a wire 903 connecting the wire box 132, and charging control
  • the overvoltage and overcurrent protection circuit of the device 9 is provided with a wire 904 connected to the switching power supply 905, and the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with a One or more electric motors or an electrical connection of the self-starting electromagnetic motor 10, the electric motor or the self-propelled electromagnetic motor 10 is coupled to the propeller or impeller 12 via a transmission or transmission 11.
  • Embodiment 5 As shown in FIGS. 1 and 8, the self-powered electric ship of the present invention includes a hull 1 provided with an armor, and the hull 1 is provided with a generator 15, an electric motor or a self-propelled electromagnetic engine 16, a battery pack or a capacitor bank. 3.
  • the electric motor 16 has a high-powered starter winding in combination with a large-diameter flywheel type rotor, and the generator 15 has a small-diameter cylindrical type of rotor with respect to the electric motor 16; the electric motor or the power output end of the self-propelled electromagnetic motor 16 is coupled to the The output power of the generator 15 is greater than the input power of the motor or the self-starting electromagnetic motor 16; the battery pack or capacitor bank 3 is provided with a charging controller 9, and the charging controller 9 has a charging circuit output terminal There is a wire 901 connecting the battery pack or the capacitor bank 3. The charge controller 9 has a wire 902 connected to the generator 15 at the input end of the charging circuit.
  • the charging circuit input terminal is provided. a diode or relay; the charge controller 9 has its overcharge protection circuit controlling the start and stop of an inverter circuit or a switching power supply, or the inverter circuit or The switching power supply is provided with a wire 903 connected to the motor or the self-starting electromagnetic motor 16, and the overvoltage and overcurrent protection circuit of the charging controller 9 is provided with a wire 904 connected to the switching power supply 905, and the switching power supply 905 is provided with the motor governor 906. Electrically coupled, motor governor 906 is provided with an electrical connection to one or more electric motors or self-propelled electromagnetic engine 10, which is coupled to a propeller or impeller 12 via a transmission or transmission 11.
  • the self-powered electric ship of the present invention comprises a hull 1 provided with an armor, and the hull 1 is provided
  • the generator 15, the electric motor or the self-starting electromagnetic motor 16, the battery pack or the capacitor bank 3, the electric motor or the self-propelled electromagnetic motor 16 are connected to the generator 15 through the automatic transmission 161, and the output power of the generator 15 is greater than that of the electric motor or the self-propelled electromagnetic
  • the input power of the engine 16; the battery pack or capacitor bank 3 is provided with a charging controller 9, the charging controller 9 has a charging circuit output end provided with a wire 901 connecting the battery pack or the capacitor bank 3, and the charging controller 9 has a charging circuit input end thereof.
  • a wire 902 is connected to the generator 15, in order to prevent the current of the battery pack 3 from being poured into the generator 15, a diode or a relay is provided at the input end of the charging circuit; and the charging controller 9 controls the inverter circuit with an overcharge protection circuit thereof. Or the switching power supply is turned on and off, the inverter circuit or the switching power supply is provided with a wire 903 connecting the motor or the self-starting electromagnetic motor 16, and the charging controller 9 has an overvoltage and overcurrent protection circuit provided with a wire connecting the switching power supply 905.
  • the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor governor 906 is provided with one or more electric motors or self-propelled electromagnetic 11 coupled to a propeller or impeller 12 is coupled to motive power, an electromagnetic motor or a self-priming of the engine 10 through a transmission or gear mechanism 10.
  • Embodiment 7 As shown in FIGS. 1 and 10, the self-powered electric ship of the present invention comprises a hull 1 provided with an armor, the hull 1 is provided with a pedestal 17 , a battery pack or a capacitor bank 3, and the pedestal 17 is provided with a generator 15.
  • the ring rail 171, the cross bar 172, the cross bar 172 is provided with a bearing 173, a brush 174, the bearing 173 is provided with a spoke shaft 175, and the base of the ring rail 171 to the base 17 is provided with a cover; the shaft of the spoke shaft 175 There is a slip ring 176, the spoke shaft 175 is provided with an electric motor or a self-propelled electromagnetic motor 16, and the power output end of the electric motor or the self-starting electromagnetic motor 16 is provided with a wheel or an impeller or a propeller 162; the shaft of the spoke shaft 175 is coupled to the generator 15.
  • the generator 15 is connected by an automatic transmission or a transmission mechanism.
  • the output power of the generator 15 is greater than the input power of the motor or the self-starting electromagnetic motor 16; the battery pack or capacitor bank 3 is provided with a charging controller 9, charging The output end of the charging circuit of the controller 9 is provided with a wire 901 for connecting the battery pack or the capacitor bank 3. The charging controller 9 is provided with a wire 902 connected to the generator 15 at the input end of the charging circuit, in order to prevent the current of the battery pack 3 from being poured into the power generation.
  • the charge controller 9 controls its inverter circuit or switching power supply to be activated and deactivated by an overcharge protection circuit, and the inverter circuit or the switching power supply is provided with a brush 174, a slip ring 176 coupled to the motor or
  • the wire 903 of the self-starting electromagnetic motor 16 is provided with a wire 904 connected to the switching power supply 905, and the switching power supply 905 is provided with an electrical connection with the motor governor 906, and the motor speed is adjusted.
  • the 906 is provided with an electrical connection to one or more electric motors or a self-propelled electromagnetic motor 10 that is coupled to the propeller or impeller 12 via a transmission or transmission 11 .
  • Embodiment 8 As shown in FIGS. 1 to 10, the self-powered electric ship of the present invention comprises a hull 1 provided with an armor, and the hull 1 is provided with two or more sets of the techniques and mechanisms described in the above embodiments, thereby Two or more switching power supplies 905 and motor governors 906 are each combined.

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Abstract

一种自能电动船舶,船体(1)设有永能电机(2),电池组或电容器组(3),永能电机具有定子(4、5)及转子(6、7),电池组或电容器组设有充电控制器,开关电源(905)设有与电机调速器(906)的电联接,电机调速器(906)设有与一个或多个电动机(10)的电联接,电动机通过变速器或传动机构(11)联接螺旋桨或叶轮,为自能电动船舶航行提供了持续且不间断的电力与动力。

Description

自能电动船舶 技术领域
本发明涉及一种自能电动船舶, 具体来说涉及一种具有自能发电与自能储电, 以及其动 力持续且不间断的电动船舶。 背景技术
现有的电动船舶, 都是运用太阳能发电技术, 太阳能发电存在诸多的条件性制约, 因此 从而制约了电动船舶的实用性与行业发展, 因此电动船舶的技术与发展尚有待改进与创新。 技术问题
本发明所要解决的技术问题在于: 针对以上所述现有电动船舶技术存在不足与制约的问 题, 提供了一种具有自能发电与自能储电, 以及其动力持续且不间断的电动船舶, 本文称之 为自能电动船舶。 技术解决方案
本发明自能电动船舶第一个技术方案是: 包括设有舾装的船体 1, 船体 1设有永能电机 2、 电池组或电容器组 3; 永能电机 2是由包括设有端盖的机座 201, 在机座 201内设有两个 或多个电机定子 4、 5, 电机定子 4设有电机转子 6, 电机定子 5设有电机转子 7, 电机转子 6结合辐轴 8的辐构成大直径的飞轮式构造, 通过辐轴 8的轴联接着小直径的电机转子 7; 在构造上电机定子 5结合电机转子 7具有输出电功率大于电机定子 4或电机转子 6的输入功 率, 基于转场式或转枢式, 由此电机定子 4或是电机转子 6的绕组引出线联接线盒 401, 电 机定子 5或是电机转子 7的绕组引出线联接线盒 501 ; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制器 9 其充电电路输入端设有联接线盒 501的导线 902, 充电控制器 9其过充保护电路控制其一逆 变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 401的导线 903, 充 电控制器 9其过电压、 过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设 有与电机调速器 906的电联接, 电机调速器 906设有与一个或多个电动机或自启式电磁发动 机 10的电联接, 电动机或自启式电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶 轮 12。
所述自启式电磁发动机 10,其是由在一机箱或机体内设有一个或多个缸筒,缸筒设有配 对的活塞, 缸筒、 活塞是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环用于支承及滑 动, 活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设有一点动开关, 或上下止点 都设有一点动开关, 点动开关与其缸筒绕组、 活塞绕组设有电联接, 因此点动开关用于同时 控制其缸筒绕组、 活塞绕组的导通与关断, 点动开关与机箱外的线盒设有电联接; 曲轴由轴 承或加以磁悬浮轴承所支承, 曲轴的一未端经飞轮或传动机构与一起动机联接, 起动机设有 经热敏电阻后联接线盒的导线, 机箱内盛有润滑油用于连杆、 曲轴等润滑作用。
为了实现高性能的动力及功耗少发电量大, 电机定子 4、 5及电动机或自启式电磁发动 机 10的绕组线采用银铜合金或稀土铜合金, 所述电动机 10采用稀土永磁的转子或加以具有 无铁芯的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加以 设有升压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮式 稀土永磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行绕 组及凹凸层合力的作用下从而实现高性能的电磁作用力及转动惯量; 所述自启式电磁发动机 10采用活塞行程大的构造, 从而实现高性能的角动量与扭矩; 所述电机转子 6、 7或加以采 用稀土永磁所构成, 电机转子 6结合辐轴 8的辐构成大直径的飞轮式、 多层飞轮式的构造, 电机定子 4具有无铁芯构造及设有具有升压电路的大功率启动绕组, 以及其启动绕组与运行 绕组或加以具有凹凸层构造, 由此将飞轮式的稀土永磁电机转子 6处于电机定子 4的启动绕 组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行绕组及凹凸层合力的作用下 从而实现高性能的电磁作用力及转动惯量; 所述电机定子 5具有无铁芯构造及设有大功率的 绕组, 其绕组或加以具有凹凸层构造及导磁底衬, 所述电机转子 7采用小直径圆柱型或加以 具有凹凸层、 多层飞轮式的构造, 由此电机定子 5的绕组凹层结合稀土永磁电机转子 7的凸 层, 电机定子 5的绕组凸层结合稀土永磁电机转子 7的凹层及加以导磁底衬的作用从而实现 高性能导磁能力与发电效率; 由此, 具有高性能电磁作用力的电机定子 4结合具有高性能飞 轮动力的稀土永磁电机转子 6与小直径及具有凹凸层构造的稀土永磁电机转子 7加以立式运 转, 从而使之具有大功率绕组及具有高性能发电效率的电机定子 5实现大功率的发电量, 由 此, 结合上述所有的技术要素从而实现高性能的动力及功耗少发电量大。
本发明自能电动船舶第二个技术方案是: 包括设有舾装的船体 1, 船体 1设有永能电机 2、 电池组或电容器组 3; 永能电机 2是由包括设有端盖的机座 201, 在机座 201内设有两个 或多个电机定子 4、 5, 电机定子 4设有电机转子 6, 电机定子 5设有电机转子 7, 电机转子 6通过自动变速器 801联接电机转子 7; 在构造上电机定子 5结合电机转子 7具有输出电功 率大于电机定子 4或电机转子 6的输入功率, 基于转场式或转枢式, 由此电机定子 4或是电 机转子 6的绕组引出线联接线盒 401,电机定子 5或是电机转子 7的绕组引出线联接线盒 501; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出端设有联接电池组或 电容器组 3的导线 901, 充电控制器 9其充电电路输入端设有联接线盒 501的导线 902, 充 电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关 电源设有联接线盒 401的导线 903, 充电控制器 9其过电压、 过电流保护电路设有联接开关 电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机调速器 906设有 与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启式电磁发动机 10通过 变速器或传动机构 11联接螺旋桨或叶轮 12。
为了实现高性能的动力及功耗少发电量大, 电机定子 4、 5及电动机或自启式电磁发动 机 10的绕组线采用银铜合金或稀土铜合金, 所述电动机 10采用稀土永磁的转子或加以具有 无铁芯的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加以 设有升压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮式 稀土永磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行绕 组及凹凸层合力的作用下从而实现高性能的电磁作用力及转动惯量; 所述自启式电磁发动机 10采用活塞行程大的构造, 从而实现高性能的角动量与扭矩; 所述电机转子 6、 7或加以采 用稀土永磁所构成, 电机转子 6具有大直径的飞轮式、 多层飞轮式的构造, 电机定子 4具有 无铁芯构造及设有具有升压电路的大功率启动绕组, 以及其启动绕组与运行绕组或加以具有 凹凸层构造, 由此将飞轮式的稀土永磁电机转子 6处于电机定子 4的启动绕组与运行绕组的 凹层, 在具有升压电路的大功率启动绕组与运行绕组及凹凸层合力的作用下从而实现高性能 的电磁作用力及转动惯量; 所述电机定子 5具有无铁芯构造及设有大功率的绕组, 其绕组或 加以具有凹凸层构造及导磁底衬, 所述电机转子 7采用小直径圆柱型或加以具有凹凸层、 多 层飞轮式的构造, 由此电机定子 5的绕组凹层结合稀土永磁电机转子 7的凸层, 电机定子 5 的绕组凸层结合稀土永磁电机转子 7的凹层及加以导磁底衬的作用从而实现高性能导磁能力 与发电效率; 由此, 具有高性能电磁作用力的电机定子 4结合具有高性能飞轮动力的稀土永 磁电机转子 6通过自动变速器 801与小直径及具有凹凸层构造的稀土永磁电机转子 7加以立 式运转, 加以自动变速器 801增加扭矩与变速变矩的作用, 从而使之具有大功率绕组及具有 高性能发电效率的电机定子 5实现大功率的发电量, 由此, 结合上述所有的技术要素从而实 现高性能的动力及功耗少发电量大。
本发明自能电动船舶第三个技术方案是: 包括设有舾装的船体 1, 船体 1设有永能发动 机 13、 电池组或电容器组 3; 永能发动机 13是由在一机箱或机体 131内设有一个或多个缸 筒 14, 缸筒 14设有配对的活塞 141, 缸筒 14、 活塞 141是由铁芯及绕组所构成; 活塞 141 的侧面设有滚珠或活塞环作用于支承及滑动, 活塞 141通过连杆 142联接曲轴 143; 在缸筒 14内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关与其 缸筒绕组、 活塞绕组设有电联接, 因此点动开关用于同时控制其缸筒绕组、 活塞绕组的导通 与关断, 点动开关与线盒 132设有电联接; 曲轴 143由轴承或加以磁悬浮轴承 134、 135所 支承, 曲轴 143设有平衡块 144, 曲轴 143的末端设有一个或多个电机转子 145, 电机转子 145设有相匹配的电机定子 146; 在构造上电机定子 146结合电机转子 145具有输出电功率 大于缸筒 14绕组结合活塞 141绕组的输入功率, 基于转场式或转枢式, 由此电机定子 146 或电机转子 145的绕组引出线联接线盒 133; 曲轴 143的输出端或输出端的飞轮与一起动机 联接, 起动机设有经热敏电阻后联接线盒 132的导线, 机箱 131内盛有润滑油用于连杆、 曲 轴等润滑作用; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出端设 有联接电池组或电容器组 3的导线 901, 充电控制器 9其充电电路输入端设有联接线盒 133 的导线 902, 充电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该 逆变电路或开关电源设有联接线盒 132的导线 903, 充电控制器 9其过电压、 过电流保护电 路设有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机 调速器 906设有与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启式电 磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
为了实现高性能的动力及功耗少发电量大,所述电动机或自启式电磁发动机 10、 电机定 子 146的绕组线采用银铜合金或稀土铜合金, 所述电动机 10采用稀土永磁的转子或加以具 有无铁芯的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加 以设有升压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮 式稀土永磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行 绕组及凹凸层合力的作用下从而实现高性能的电磁作用力及转动惯量; 所述自启式电磁发动 机 10采用活塞行程大的构造, 从而实现高性能的角动量与扭矩; 所述缸筒 14、 活塞 141、 连杆 142、 曲轴 143通过活塞行程大的构造, 从而实现高性能的角动量与扭矩; 所述电机转 子 145具有飞轮式、 多层飞轮式或凹凸层的构造, 或加以采用稀土永磁所构成; 所述电机定 子 146具有无铁芯构造及设有大功率的绕组, 其绕组或加以具有凹凸层构造及导磁底衬, 由 此电机定子 146的绕组凹层结合稀土永磁电机转子 145的凸层, 电机定子 146的绕组凸层结 合稀土永磁电机转子 145的凹层以及加以导磁底衬的作用从而实现高性能的导磁能力与发电 效率; 由此, 通过曲轴 143等构件所提供的高性能角动量与扭矩带动小直径及具有凹凸层构 造的稀土永磁电机转子 145加以立式运转, 从而使之具有大功率绕组及具有高性能发电效率 的电机定子 146实现大功率的发电量, 由此, 结合上述所有的技术要素从而实现高性能的动 力及功耗少发电量大。
本发明自能电动船舶第四个技术方案是: 包括设有舾装的船体 1, 船体 1设有永能发动 机 13、 电池组或电容器组 3; 永能发动机 13是由在一机箱或机体 131内设有一个或多个缸 筒 14, 缸筒 14设有配对的活塞 141, 缸筒 14、 活塞 141是由铁芯及绕组所构成; 活塞 141 的侧面设有滚珠或活塞环作用于支承及滑动, 活塞 141通过连杆 142联接曲轴 143; 在缸筒 14内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关与其 缸筒绕组、 活塞绕组设有电联接, 因此点动开关用于同时控制其缸筒绕组、 活塞绕组的导通 与关断, 点动开关与线盒 132设有电联接; 曲轴 143由轴承或加以磁悬浮轴承 134、 135所 支承, 曲轴 143设有平衡块 144, 曲轴 143的末端通过自动变速器或传动机构 147联接一个 或多个电机转子 145, 电机转子 145设有相匹配的电机定子 146; 在构造上电机定子 146结 合电机转子 145具有输出电功率大于缸筒 14绕组结合活塞 141绕组的输入功率, 基于转场 式或转枢式, 由此电机定子 146或电机转子 145的绕组引出线联接线盒 133; 曲轴 143的输 出端或输出端的飞轮与一起动机联接, 起动机设有经热敏电阻后联接线盒 132的导线, 机箱 131 内盛有润滑油用于连杆、 曲轴等润滑作用; 电池组或电容器组 3设有充电控制器 9, 充 电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制器 9其充 电电路输入端设有联接线盒 133的导线 902, 充电控制器 9其过充保护电路控制其一逆变电 路或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 132的导线 903, 充电控 制器 9其过电压、 过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设有与 电机调速器 906的电联接,电机调速器 906设有与一个或多个电动机或自启式电磁发动机 10 的电联接, 电动机或自启式电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
为了实现高性能的动力及功耗少发电量大,所述电动机或自启式电磁发动机 10、 电机定 子 146的绕组线采用银铜合金或稀土铜合金, 所述电动机 10采用稀土永磁的转子或加以具 有无铁芯的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加 以设有升压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮 式稀土永磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行 绕组及凹凸层合力的作用下从而实现高性能的电磁作用力及转动惯量; 所述缸筒 14、 活塞 141、 连杆 142、 曲轴 143通过活塞行程大的构造, 从而实现高性能的角动量与扭矩; 所述电 机转子 145具有飞轮式、 多层飞轮式或凹凸层的构造, 或加以采用稀土永磁所构成; 所述电 机定子 146具有无铁芯构造及设有大功率的绕组,其绕组或加以具有凹凸层构造及导磁底衬, 由此电机定子 146的绕组凹层结合稀土永磁电机转子 145的凸层, 电机定子 146的绕组凸层 结合稀土永磁电机转子 145的凹层以及加以导磁底衬的作用从而实现高性能的导磁能力与发 电效率; 由此, 通过曲轴 143等构件所提供的高性能角动量与扭矩经自动变速器 147后带动 小直径及具有凹凸层构造的稀土永磁电机转子 145加以立式运转, 加以自动变速器 147增加 扭矩与变速变矩的作用, 从而使之具有大功率绕组及具有高性能发电效率的电机定子 146实 现大功率的发电量, 由此, 结合上述所有的技术要素从而实现高性能的动力及功耗少发电量 大。
本发明自能电动船舶第五个技术方案是:包括设有舾装的船体 1,船体 1设有发电机 15、 电动机或自启式电磁发动机 16、 电池组或电容器组 3, 电动机 16具有大功率的启动绕组结 合大直径的飞轮式转子, 发电机 15相对电动机 16具有小直径圆柱型的转子; 所述电动机或 自启式电磁发动机 16的动力输出端联接所述发电机 15,所述发电机 15的输出功率大于所述 电动机或自启式电磁发动机 16的输入功率; 或是所述电动机或自启式电磁发动机 16加以设 有前后动力输出端, 其前后动力输出端各自联接一个或多个具有小直径圆柱型转子的发电机
15, 该两个或多个发电机 15其单个输出功率可小于所述电动机或自启式电磁发动机 16的输 入功率, 但其总输出功率则大于所述电动机或自启式电磁发动机 16 的输入功率; 电池组或 电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制器 9其充电电路输入端设有联接发电机 15的导线 902, 充电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有 联接电动机或自启式电磁发动机 16的导线 903, 充电控制器 9其过电压、过电流保护电路设 有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机调速 器 906设有与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启式电磁发 动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
为了实现高性能的动力及功耗少发电量大,所述发电机 15、 电动机或自启式电磁发动机 10、 16的绕组线采用银铜合金或稀土铜合金, 以及所述发电机 15采用稀土永磁的转子或加 以具有无铁芯的定子, 定子设有大功率的绕组, 绕组或加以具有凹凸层构造及导磁底衬, 其 转子采用小直径圆柱型或加以具有凹凸层、 多层飞轮式的构造; 由此其绕组凹层结合其稀土 永磁转子的凸层, 其绕组凸层结合其稀土永磁转子的凹层以及加以导磁底衬的作用从而实现 高性能的导磁能力与发电效率; 所述电动机 10、 16采用稀土永磁的转子或加以具有无铁芯 的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加以设有升 压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮式稀土永 磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行绕组及凹 凸层合力的作用下从而实现高性能的电磁作用力及转动惯量;所述自启式电磁发动机 10、 16 通过活塞行程大的构造, 从而实现高性能的角动量与扭矩; 由此, 具有高性能电磁作用力及 飞轮动力的电动机或具有高性能角动量的自启式电磁发动机 16与具有高性能动力学及具有 高性能发电效率的大功率发电机 15加以立式联接及运转, 从而实现大功率的发电量, 由此, 结合上述所有的技术要素从而实现高性能的动力及功耗少发电量大。
本发明自能电动船舶第六个技术方案是:包括设有舾装的船体 1,船体 1设有发电机 15、 电动机或自启式电磁发动机 16、 电池组或电容器组 3, 电动机或自启式电磁发动机 16设有 或具有自动变速器 161, 或是发电机 15设有或具有自动变速器 161, 由此电动机或自启式电 磁发动机 16通过自动变速器 161联接发电机 15,发电机 15的输出功率大于电动机或自启式 电磁发动机 16的输入功率; 或是所述电动机或自启式电磁发动机 16通过自动变速器 161联 接多个发电机 15, 该多个发电机 15其单个输出功率可小于所述电动机或自启式电磁发动机 16的输入功率, 但其总输出功率则大于所述电动机或自启式电磁发动机 16的输入功率; 电 池组或电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出端设有联接电池组或电 容器组 3的导线 901, 充电控制器 9其充电电路输入端设有联接发电机 15的导线 902, 充电 控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电 源设有联接电动机或自启式电磁发动机 16的导线 903, 充电控制器 9其过电压、过电流保护 电路设有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电 机调速器 906设有与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启式 电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
为了实现高性能的动力及功耗少发电量大,所述发电机 15、 电动机或自启式电磁发动机 10、 16的绕组线采用银铜合金或稀土铜合金, 以及所述发电机 15采用稀土永磁的转子或加 以具有无铁芯的定子, 定子设有大功率的绕组, 绕组或加以具有凹凸层构造及导磁底衬, 其 转子采用小直径圆柱型或加以具有凹凸层、 多层飞轮式的构造; 由此其绕组凹层结合其稀土 永磁转子的凸层, 其绕组凸层结合其稀土永磁转子的凹层以及加以导磁底衬的作用从而实现 高性能的导磁能力与发电效率; 所述电动机 10、 16采用稀土永磁的转子或加以具有无铁芯 的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加以设有升 压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮式稀土永 磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行绕组及凹 凸层合力的作用下从而实现高性能的电磁作用力及转动惯量;所述自启式电磁发动机 10、 16 通过活塞行程大的构造, 从而实现高性能的角动量与扭矩; 由此, 具有高性能电磁作用力及 飞轮动力的电动机或具有高性能角动量的自启式电磁发动机 16通过自动变速器 161与具有 高性能动力学及具有高性能发电效率的大功率发电机 15加以立式联接及运转, 加以自动变 速器 161增加扭矩与变速变矩的作用, 从而实现大功率的发电量, 由此, 结合上述所有的技 术要素从而实现高性能的动力及功耗少发电量大。
本发明自能电动船舶第七个技术方案是: 包括设有舾装的船体 1, 船体 1设有基座 17、 电池组或电容器组 3, 基座 17设有发电机 15、 环轨 171、 横杆 172, 横杆 172设有轴承 173、 电刷 174, 轴承 173设有辐轴 175, 辐轴 175设于环轨 171内, 环轨 171至基座 17的底座设 有壳盖; 辐轴 175的轴设有滑环 176, 辐轴 175的辐设有电动机或自启式电磁发动机 16, 电 动机或自启式电磁发动机 16的动力输出端设有轮或叶轮或螺旋桨 162,或是通过自动变速器 或传动机构联接轮或叶轮或螺旋桨 162; 辐轴 175的轴联接发电机 15, 或是通过自动变速器 或传动机构联接发电机 15, 发电机 15 的输出功率大于所述电动机或自启式电磁发动机 16 的输入功率; 或是所述辐轴 175通过自动变速器或传动机构联接多个发电机 15, 该多个发电 机 15其单个输出功率可小于所述电动机或自启式电磁发动机 16的输入功率, 但其总输出功 率则大于所述电动机或自启式电磁发动机 16的输入功率; 电池组或电容器组 3设有充电控 制器 9, 充电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控 制器 9其充电电路输入端设有联接发电机 15的导线 902,充电控制器 9其过充保护电路控制 其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有经电刷 174、 滑环 176 联接电动机或自启式电磁发动机 16的导线 903, 充电控制器 9其过电压、过电流保护电路设 有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机调速 器 906设有与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启式电磁发 动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
为了实现高性能的动力及功耗少发电量大,所述发电机 15、 电动机或自启式电磁发动机 10、 16的绕组线采用银铜合金或稀土铜合金, 以及所述发电机 15采用稀土永磁的转子或加 以具有无铁芯的定子, 定子设有大功率的绕组, 绕组或加以具有凹凸层构造及导磁底衬, 其 转子采用小直径圆柱型或加以具有凹凸层、 多层飞轮式的构造; 由此其绕组凹层结合其稀土 永磁转子的凸层, 其绕组凸层结合其稀土永磁转子的凹层以及加以导磁底衬的作用从而实现 高性能的导磁能力与发电效率; 所述电动机 10、 16采用稀土永磁的转子或加以具有无铁芯 的定子, 其启动绕组与运行绕组或加以具有凹凸层构造, 启动绕组具有功率大或加以设有升 压电路, 其转子具有大直径的飞轮式、 多层飞轮式的构造, 由此将其大直径的飞轮式稀土永 磁转子处于启动绕组与运行绕组的凹层, 在具有升压电路的大功率启动绕组与运行绕组及凹 凸层合力的作用下从而实现高性能的电磁作用力及转动惯量;所述自启式电磁发动机 10、 16 通过活塞行程大的构造, 从而实现高性能的角动量与扭矩; 由此, 具有高性能电磁作用力及 飞轮动力的电动机或具有高性能角动量的自启式电磁发动机 16通过辐轴 175与具有高性能 动力学及具有高性能发电效率的大功率发电机 15加以立式联接及运转, 加以辐轴 175杠杆 力矩的作用, 从而实现大功率的发电量, 由此, 结合上述所有的技术要素从而实现高性能的 动力及功耗少发电量大。
本发明自能电动船舶第八个技术方案是: 包括设有舾装的船体 1, 船体 1设有两组或多 组第一至第七技术方案所述的技术与机构,由此将两个或多个开关电源 905、电机调速器 906 各自加以复合化; 从而实现复式复合自能发电、 自能储电技术与机构, 复式复合操纵技术与 机构, 复式复合动力技术与机构, 其不仅实现了自能发电与自能储电的自能电动船舶技术, 而且还实现了自能电动船舶航行无故障无抛锚的安全先进技术。以及,实现了更大的发电量, 为大型自能电动船舶提供持续且不间断的强大电力与动力。 有益效果
针对第一个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能飞轮动力及电磁作用力的电动机 10运转, 或是通过热敏电阻实现 短时间导通与自动阻断从而实现自启式电磁发动机 10 的起动机自动启动与自动关闭, 该过 程不仅带动了自启式电磁发动机 10 的活塞运动而且还有效地防止了起动机的发热, 该过程 的活塞运动使活塞顶触到其点动开关, 从而使之其活塞绕组以及与其配对的缸筒绕组同时导 通, 从而产生斥力, 在该斥力的作用下活塞产生冲程, 通过连杆使之其曲轴运转, 由此具有 高性能角动量的自启式电磁发动机 10进入正常工作与运转。 由此, 具有高性能电磁作用力 及飞轮动力的电动机或具有高性能角动量的自启式电磁发动机 10的运转, 经变速器 11后带 动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调速器 906用于控制电动机或自启式 电磁发动机 10 的转速, 从而操纵了自能电动船舶的航行速度。 在自能电动船舶航行中, 当 电池组或电容器组 3的电量、 电压被电动机或自启式电磁发动机 10消耗到设定值时, 充电 控制器 9过充保护电路自动导通, 该时电池组或电容器组 3提供的电流经导线 903后通入电 机定子 4绕组, 电机定子 4绕组产生旋转磁场驱动电机转子 6运转, 由此, 具有高性能电磁 作用力的电机定子 4结合具有高性能飞轮动力的稀土永磁电机转子 6与小直径及具有凹凸层 构造的稀土永磁电机转子 7加以立式运转, 从而使之具有大功率绕组及具有高性能发电效率 的电机定子 5实现大功率的发电量。 电机定子 5发出的电流经导线 902及充电控制器 9充电 电路后为电池组或电容器组 3充电, 从而实现自能发电与自能储电, 由此, 结合上述所有的 技术要素从而实现高性能的动力及功耗少发电量大, 从而为自能电动船舶航行提供了持续且 不间断的电力与动力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使电机转子 6、 7停止运转与减少损耗, 及防止了 电池组或电容器组 3的过充, 从而延长了使用寿命等效益。
如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第二个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式电磁 发动机 10运转, 经变速器 11后带动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调 速器 906用于控制电动机或自启式电磁发动机 10的转速, 从而操纵了自能电动船舶的航行 速度。 在自能电动船舶航行中, 当电池组或电容器组 3的电量、 电压被电动机或自启式电磁 发动机 10消耗到设定值时,充电控制器 9过充保护电路自动导通, 该时电池组或电容器组 3 提供的电流经导线 903后通入电机定子 4绕组, 电机定子 4绕组产生旋转磁场驱动电机转子 6运转, 由此, 具有高性能电磁作用力的电机定子 4结合具有高性能飞轮动力的稀土永磁电 机转子 6通过自动变速器 801与小直径及具有凹凸层构造的稀土永磁电机转子 7加以立式运 转, 加以自动变速器 801增加扭矩与变速变矩的作用, 从而使之具有大功率绕组及具有高性 能发电效率的电机定子 5实现大功率的发电量。 电机定子 5发出的电流经导线 902及充电控 制器 9充电电路后为电池组或电容器组 3充电, 从而实现自能发电与自能储电, 由此, 结合 上述所有的技术要素从而实现高性能的动力及功耗少发电量大, 从而为自能电动船舶航行提 供了持续且不间断的电力与动力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使电机转子 6、 7停止运转与减少损耗, 及防止了 电池组或电容器组 3的过充, 从而延长了使用寿命等效益。
如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第三个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式电磁 发动机 10运转, 经变速器 11后带动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调 速器 906用于控制电动机或自启式电磁发动机 10的转速, 从而操纵了自能电动船舶的航行 速度。 在自能电动船舶航行中, 当电池组或电容器组 3的电量、 电压被电动机或自启式电磁 发动机 10消耗到设定值时,充电控制器 9过充保护电路自动导通, 该时电池组或电容器组 3 提供的电流经导线 903后接通至线盒 132, 由此通过热敏电阻实现短时间导通与自动阻断从 而实现起动机的自动启动与自动关闭, 该过程不仅带动了曲轴 143及活塞 141运动而且还有 效地防止了起动机的发热, 该过程活塞 141的运动使活塞 141顶触到其点动开关, 从而使之 其活塞绕组以及与其配对的缸筒绕组同时导通, 从而产生斥力, 在该斥力的作用下活塞 141 产生冲程, 通过连杆 142使之曲轴 143运转及进入正常工作。 由此, 通过曲轴 143等构件所 提供的高性能角动量与扭矩带动小直径及具有凹凸层构造的稀土永磁电机转子 145加以立式 运转,从而使之具有大功率绕组及具有高性能发电效率的电机定子 146实现大功率的发电量。 电机定子 146发出的电流经导线 902及充电控制器 9充电电路后为电池组或电容器组 3充电, 从而实现自能发电与自能储电, 由此, 结合上述所有的技术要素从而实现高性能的动力及功 耗少发电量大, 从而为自能电动船舶航行提供了持续且不间断的电力与动力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使曲轴 143、 电机转子 145停止运转与减少损耗, 及防止了电池组或电容器组 3的过充, 从而延长了使用寿命等效益。
如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第四个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式电磁 发动机 10运转, 经变速器 11后带动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调 速器 906用于控制电动机或自启式电磁发动机 10的转速, 从而操纵了自能电动船舶的航行 速度。 在自能电动船舶航行中, 当电池组或电容器组 3的电量、 电压被电动机或自启式电磁 发动机 10消耗到设定值时,充电控制器 9过充保护电路自动导通, 该时电池组或电容器组 3 提供的电流经导线 903后接通至线盒 132, 由此通过热敏电阻实现短时间导通与自动阻断从 而实现起动机的自动启动与自动关闭, 该过程不仅带动了曲轴 143及活塞 141运动而且还有 效地防止了起动机的发热, 该过程活塞 141的运动使活塞 141顶触到其点动开关, 从而使之 其活塞绕组以及与其配对的缸筒绕组同时导通, 从而产生斥力, 在该斥力的作用下活塞 141 产生冲程, 通过连杆 142使之曲轴 143运转及进入正常工作。 由此, 通过曲轴 143等构件所 提供的高性能角动量与扭矩经自动变速器 147后带动小直径及具有凹凸层构造的稀土永磁电 机转子 145加以立式运转, 加以自动变速器 147增加扭矩与变速变矩的作用, 从而使之具有 大功率绕组及具有高性能发电效率的电机定子 146实现大功率的发电量。 电机定子 146发出 的电流经导线 902及充电控制器 9充电电路后为电池组或电容器组 3充电, 从而实现自能发 电与自能储电, 由此, 结合上述所有的技术要素从而实现高性能的动力及功耗少发电量大, 从而为自能电动船舶航行提供了持续且不间断的电力与动力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使曲轴 143、 电机转子 145停止运转与减少损耗, 及防止了电池组或电容器组 3的过充, 从而延长了使用寿命等效益。
如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第五个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式电磁 发动机 10运转, 经变速器 11后带动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调 速器 906用于控制电动机或自启式电磁发动机 10的转速, 从而操纵了自能电动船舶的航行 速度。 在自能电动船舶航行中, 当电池组或电容器组 3的电量、 电压被电动机或自启式电磁 发动机 10消耗到设定值时,充电控制器 9过充保护电路自动导通, 该时电池组或电容器组 3 提供的电流驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式 电磁发动机 16运转, 该运转带动立式联接及具有高性能动力学、 具有高性能发电效率的大 功率发电机 15运转及发电, 从而实现大功率的发电量。 其发出的电流经导线 902及充电控 制器 9充电电路后为电池组或电容器组 3充电, 从而实现自能发电与自能储电, 由此, 结合 上述所有的技术要素从而实现高性能的动力及功耗少发电量大, 从而为自能电动船舶航行提 供了持续且不间断的电力与动力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使电动机或自启式电磁发动机 16及发电机 15停止 运转与减少损耗, 及防止了电池组或电容器组 3的过充, 从而延长了使用寿命等效益。 如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第六个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式电磁 发动机 10运转, 经变速器 11后带动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调 速器 906用于控制电动机或自启式电磁发动机 10的转速, 从而操纵了自能电动船舶的航行 速度。 在自能电动船舶航行中, 当电池组或电容器组 3的电量、 电压被电动机或自启式电磁 发动机 10消耗到设定值时,充电控制器 9过充保护电路自动导通, 该时电池组或电容器组 3 提供的电流驱动具有高性能飞轮动力及电磁作用力的电动机或具有高性能角动量的自启式 电磁发动机 16运转, 该运转经自动变速器 161后带动立式联接及具有大功率、 高性能发电 效率的稀土永磁发电机 15运转及发电, 加以自动变速器 161增加扭矩与变速变矩的作用, 从而实现大功率的发电量。其发出的电流经导线 902及充电控制器 9充电电路后为电池组或 电容器组 3充电, 从而实现自能发电与自能储电, 由此, 结合上述所有的技术要素从而实现 高性能的动力及功耗少发电量大, 从而为自能电动船舶航行提供持续且不间断的电力与动 力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使电动机或自启式电磁发动机 16及发电机 15停止 运转与减少损耗, 及防止了电池组或电容器组 3的过充, 从而延长了使用寿命等效益。
如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第七个技术方案, 其有益效果在于: 在使用上, 驾驶员按通按开关电源 905同时供 电给各仪表及各装置, 操纵电机调速器 906, 该时电池组或电容器组 3提供的电流经开关电 源 905后驱动具有高性能电磁作用力及飞轮动力的电动机或具有高性能角动量的自启式电磁 发动机 10运转, 经变速器 11后带动螺旋桨或叶轮 12, 从而实现自能电动船舶航行, 电机调 速器 906用于控制电动机或自启式电磁发动机 10的转速, 从而操纵了自能电动船舶的航行 速度。 在自能电动船舶航行中, 当电池组或电容器组 3的电量、 电压被电动机或自启式电磁 发动机 10消耗到设定值时,充电控制器 9过充保护电路自动导通, 该时电池组或电容器组 3 提供的电流驱动具有高性能飞轮动力及电磁作用力的电动机或具有高性能角动量的自启式 电磁发动机 16运转, 该运转带动轮或叶轮或螺旋桨 162运转, 由此轮 162在环轨 171上运 动, 或是叶轮、 螺旋桨 162在环轨 171内利用空气产生推进力, 从而使之辐轴 175旋转, 在 辐轴 175杠杆力矩的作用下带动立式联接及具有高性能动力学、具有高性能发电效率的大功 率发电机 15运转及发电, 从而实现大功率的发电量。 其发出的电流经导线 902及充电控制 器 9充电电路后为电池组或电容器组 3充电, 从而实现自能发电与自能储电, 由此, 结合上 述所有的技术要素从而实现高性能的动力及功耗少发电量大, 从而为自能电动船舶航行提供 了持续且不间断的电力与动力。
当自能电动船舶停航不工作时, 当电池组或电容器组 3的电量、 电压达到设定值时, 充 电控制器 9过充保护电路自动关断, 从而使电动机或自启式电磁发动机 16及发电机 15停止 运转与减少损耗, 及防止了电池组或电容器组 3的过充, 从而延长了使用寿命等效益。
如自能电动船舶过长时间不工作造成电池组或电容器组 3的电压下降到设定值时, 充电 控制器 9过充保护电路则自动导通, 从而实现自动启动发电机构进行自动充电。
针对第八个技术方案, 其有益效果在于: 船体 1设有两组或多组第一至第七技术方案所 述的技术与机构, 由此将两个或多个开关电源 905、 电机调速器 906各自加以复合化; 从而 实现复式复合自能发电、 自能储电技术与机构, 复式复合操纵技术与机构, 复式复合动力技 术与机构, 其不仅实现了自能发电与自能储电的自能电动船舶技术, 而且还实现了自能电动 船舶航行无故障无抛锚的安全先进技术。 以及, 实现了更大的发电量, 为大型自能电动船舶 提供持续且不间断的强大电力与动力。
以上所述的技术方案, 在技术参数适用的情况下所述电机转子、 电动机的转子、 发电机 的转子或加以设有磁悬浮装置支承, 从而提高动力与转速; 所述电池组或电容器组 3具有过 热、 过电压、 过电流保护及在线监测系统, 电容器组 3可以是由超级电容器或智能电容器所 构成; 所述开关电源 905其按键开关设在驾驶室, 所述电机调速器 906设有便于操纵的操纵 杆或踏板, 所述电动机 10或加以设有转换开关, 用于控制电动机 10正反转; 所述发电机或 加以设有监测预警系统, 所述永能电机、 永能发动机、 电动机及自启式电磁发动机或加以设 有监测预警系统及急停开关, 如有多个电动机或自启式电磁发动机 10为动力机构的, 如故 障时通过关闭某一急停开关从而起到动力平衡。 以及, 本发明自能电动船舶设有定速巡航系 统及温度控制器, 所述定速巡航系统是由通过巡航控制组件控制电动机或自启式电磁发动机 10为该系统而增加另一电机调速器,在驾驶室设有多个可同时关闭巡航控制组件与该电机调 速器的急停开关, 从而实现安全保障的定速巡航; 所述温度控制器用于控制恒温控制器, 温 度控制器及空调系统是与充电控制器 9设电联接, 由此当自能电动船舶停航不工作时, 遇烈 日暴晒或寒流, 温度控制器则自动启动恒温控制器, 从而保护船内设施的物理特性及舒适。
本发明自能电动船舶, 在其卓杰的贡献中, 其将开创一个时代, 从而造福社会。 附图说明
图 1为自能电动船舶船体示意图;
图 2为本发明自能电动船舶实施例 1、 2技术构造示意图; 图 3为实施例 1其机座 201内部构造示意图;
图 4为实施例 2其机座 201内部构造示意图;
图 5为本发明自能电动船舶实施例 3、 4技术构造示意图;
图 6为实施例 3其机箱 131内部构造示意图;
图 7为实施例 4其机箱 131内部构造示意图;
图 8为本发明自能电动船舶实施例 5技术构造示意图;
图 9为本发明自能电动船舶实施例 6技术构造示意图;
图 10为本发明自能电动船舶实施例 7技术构造示意图。 具体实施方式
实施例 1 : 如图 1、 2、 3所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1 设有永能电机 2、 电池组或电容器组 3; 永能电机 2是由设有端盖的机座 201, 机座 201内设 有两个或多个电机定子 4、 5, 电机定子 4设有电机转子 6, 电机定子 5设有电机转子 7, 电 机转子 6结合辐轴 8的辐构成大直径的飞轮式构造, 通过辐轴 8的轴联接着小直径的电机转 子 7; 在构造上电机定子 5结合电机转子 7具有输出电功率大于电机定子 4或电机转子 6的 输入功率,基于转场式或转枢式,由此电机定子 4或是电机转子 6的绕组引出线联接线盒 401, 电机定子 5或是电机转子 7的绕组引出线联接线盒 501 ; 电池组或电容器组 3设有充电控制 器 9, 充电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制 器 9其充电电路输入端设有联接线盒 501的导线 902, 为防止电池组 3的电流倒入电机定子 5, 充电电路输入端设有二级管或继电器; 充电控制器 9其过充保护电路控制其一逆变电路 或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 401的导线 903, 充电控制 器 9其过电压、 过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设有与电 机调速器 906的电联接, 电机调速器 906设有与一个或多个电动机或自启式电磁发动机 10 的电联接, 电动机或自启式电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
所述是自启式电磁发动机 10,其是由在一机箱或机体内设有一个或多个缸筒,缸筒设有 配对的活塞, 缸筒、 活塞是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环用于支承及 滑动, 活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设有一点动开关, 或上下止 点都设有一点动开关, 点动开关设有联接其缸筒绕组、 活塞绕组的导线, 因此点动开关用于 同时控制其缸筒绕组、 活塞绕组的导通与关断, 点动开关与线盒设有电联接; 曲轴由轴承或 加以磁悬浮轴承所支承, 曲轴的一未端经飞轮或传动机构与一起动机联接, 起动机设有经热 敏电阻后联接线盒的导线, 机箱内盛有润滑油用于连杆、 曲轴等润滑作用。
实施例 2: 如图 1、 2、 4所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1 设有永能电机 2、 电池组或电容器组 3; 永能电机 2是由设有端盖的机座 201, 机座 201内设 有两个或多个电机定子 4、 5, 电机定子 4设有电机转子 6, 电机定子 5设有电机转子 7, 电 机转子 6通过自动变速器 801联接电机转子 7; 在构造上电机定子 5结合电机转子 7具有输 出电功率大于电机定子 4或电机转子 6的输入功率, 基于转场式或转枢式, 由此电机定子 4 或是电机转子 6的绕组引出线联接线盒 401, 电机定子 5或是电机转子 7的绕组引出线联接 线盒 501 ; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出端设有联 接电池组或电容器组 3的导线 901, 充电控制器 9其充电电路输入端设有联接线盒 501的导 线 902, 为防止电池组 3的电流倒入电机定子 5, 充电电路输入端设有二级管或继电器; 充 电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关 电源设有联接线盒 401的导线 903, 充电控制器 9其过电压、 过电流保护电路设有联接开关 电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机调速器 906设有 与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启式电磁发动机 10通过 变速器或传动机构 11联接螺旋桨或叶轮 12。
实施例 3: 如图 1、 5、 6所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1 设有永能发动机 13、 电池组或电容器组 3; 永能发动机 13是由在一机箱或机体 131内设有 一个或多个缸筒 14, 缸筒 14设有配对的活塞 141, 缸筒 14、 活塞 141是由铁芯及绕组所构 成; 活塞 141的侧面设有滚珠或活塞环作用于支承及滑动, 活塞 141通过连杆 142联接曲轴 143; 在缸筒 14内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关设有联接其缸筒绕组、 活塞绕组的导线, 因此点动开关用于同时控制其缸筒绕组、 活塞绕组的导通与关断, 点动开关与线盒 132设有电联接; 曲轴 143由轴承或加以磁悬浮轴 承 134、 135所支承, 曲轴 143设有平衡块 144, 曲轴 143的末端设有一个或多个电机转子 145, 电机转子 145设有相匹配的电机定子 146; 在构造上电机定子 146结合电机转子 145 具有输出电功率大于缸筒 14绕组结合活塞 141绕组的输入功率, 基于转场式或转枢式, 由 此电机定子 146或电机转子 145的绕组引出线联接线盒 133; 曲轴 143的输出端或输出端的 飞轮与一起动机联接, 起动机设有经热敏电阻后联接线盒 132的导线, 机箱 131内盛有润滑 油用于连杆、 曲轴等润滑作用; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充 电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制器 9其充电电路输入端设 有联接线盒 133的导线 902, 为防止电池组 3的电流倒入电机定子 146, 充电电路输入端设 有二级管或继电器; 充电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关 闭, 该逆变电路或开关电源设有联接线盒 132的导线 903, 充电控制器 9其过电压、 过电流 保护电路设有联接开关电源 905的导线 904,开关电源 905设有与电机调速器 906的电联接, 电机调速器 906设有与一个或多个电动机或自启式电磁发动机 10的电联接, 电动机或自启 式电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
实施例 4: 如图 1、 5、 7所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1 设有永能发动机 13、 电池组或电容器组 3; 永能发动机 13是由在一机箱或机体 131内设有 一个或多个缸筒 14, 缸筒 14设有配对的活塞 141, 缸筒 14、 活塞 141是由铁芯及绕组所构 成; 活塞 141的侧面设有滚珠或活塞环作用于支承及滑动, 活塞 141通过连杆 142联接曲轴 143; 在缸筒 14内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关设有联接其缸筒绕组、 活塞绕组的导线, 因此点动开关用于同时控制其缸筒绕组、 活塞绕组的导通与关断, 点动开关与线盒 132设有电联接; 曲轴 143由轴承或加以磁悬浮轴 承 134、 135所支承, 曲轴 143设有平衡块 144, 曲轴 143的末端通过自动变速器或传动机构 147联接一个或多个电机转子 145, 电机转子 145设有相匹配的电机定子 146; 在构造上电机 定子 146结合电机转子 145具有输出电功率大于缸筒 14绕组结合活塞 141绕组的输入功率, 基于转场式或转枢式, 由此电机定子 146或电机转子 145的绕组引出线联接线盒 133; 曲轴 143的输出端或输出端的飞轮与一起动机联接, 起动机设有经热敏电阻后联接线盒 132的导 线, 机箱 131内盛有润滑油用于连杆、 曲轴等润滑作用; 电池组或电容器组 3设有充电控制 器 9, 充电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制 器 9其充电电路输入端设有联接线盒 133的导线 902, 为防止电池组 3的电流倒入电机定子 146, 充电电路输入端设有二级管或继电器; 充电控制器 9其过充保护电路控制其一逆变电 路或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 132的导线 903, 充电控 制器 9其过电压、 过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设有与 电机调速器 906的电联接,电机调速器 906设有与一个或多个电动机或自启式电磁发动机 10 的电联接, 电动机或自启式电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
实施例 5: 如图 1、 8所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1设有 发电机 15、 电动机或自启式电磁发动机 16、 电池组或电容器组 3, 电动机 16具有大功率的 启动绕组结合大直径飞轮式的转子, 发电机 15相对电动机 16具有小直径圆柱型的转子; 所 述电动机或自启式电磁发动机 16的动力输出端联接所述发电机 15,所述发电机 15的输出功 率大于所述电动机或自启式电磁发动机 16的输入功率; 电池组或电容器组 3设有充电控制 器 9, 充电控制器 9其充电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制 器 9其充电电路输入端设有联接发电机 15的导线 902, 为防止电池组 3的电流倒入发电机 15, 充电电路输入端设有二级管或继电器; 充电控制器 9其过充保护电路控制其一逆变电路 或开关电源的启动与关闭, 该逆变电路或开关电源设有联接电动机或自启式电磁发动机 16 的导线 903, 充电控制器 9其过电压、 过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机调速器 906设有与一个或多个电动机或 自启式电磁发动机 10的电联接, 电动机或自启式电磁发动机 10通过变速器或传动机构 11 联接螺旋桨或叶轮 12。
实施例 6: 如图 1、 9所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1设有 发电机 15、 电动机或自启式电磁发动机 16、 电池组或电容器组 3, 电动机或自启式电磁发动 机 16通过自动变速器 161联接发电机 15,发电机 15的输出功率大于电动机或自启式电磁发 动机 16的输入功率; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充电电路输出 端设有联接电池组或电容器组 3的导线 901, 充电控制器 9其充电电路输入端设有联接发电 机 15的导线 902, 为防止电池组 3的电流倒入发电机 15, 充电电路输入端设有二级管或继 电器; 充电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电 路或开关电源设有联接电动机或自启式电磁发动机 16的导线 903, 充电控制器 9其过电压、 过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的 电联接, 电机调速器 906设有与一个或多个电动机或自启式电磁发动机 10的电联接, 电动 机或自启式电磁发动机 10通过变速器或传动机构 11联接螺旋桨或叶轮 12。
实施例 7 : 如图 1、 10所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1设 有基座 17、 电池组或电容器组 3, 基座 17设有发电机 15、 环轨 171、 横杆 172, 横杆 172 设有轴承 173、 电刷 174, 轴承 173设有辐轴 175, 环轨 171至基座 17的底座设有壳盖; 辐 轴 175的轴设有滑环 176, 辐轴 175的辐设有电动机或自启式电磁发动机 16, 电动机或自启 式电磁发动机 16的动力输出端设有轮或叶轮或螺旋桨 162; 辐轴 175的轴联接发电机 15, 或是通过自动变速器或传动机构联接发电机 15, 发电机 15的输出功率大于所述电动机或自 启式电磁发动机 16的输入功率; 电池组或电容器组 3设有充电控制器 9, 充电控制器 9其充 电电路输出端设有联接电池组或电容器组 3的导线 901, 充电控制器 9其充电电路输入端设 有联接发电机 15的导线 902, 为防止电池组 3的电流倒入发电机 15, 充电电路输入端设有 二级管或继电器;充电控制器 9其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有经电刷 174、滑环 176联接电动机或自启式电磁发动机 16的导线 903, 充电控制器 9其过电压、过电流保护电路设有联接开关电源 905的导线 904, 开关电源 905设有与电机调速器 906的电联接, 电机调速器 906设有与一个或多个电动机或自启式电 磁发动机 10的电联接, 电动机或自启式电磁发动机 10通过变速器或传动机构 11联接螺旋 桨或叶轮 12。
实施例 8 : 如图 1至 10所示, 本发明自能电动船舶, 包括设有舾装的船体 1, 船体 1设 有两组或多组以上实施例所述的技术与机构, 由此将两个或多个开关电源 905、 电机调速器 906各自加以复合化。
为了实现高性能动力及功耗少发电量大, 以上实施例在实施上请参考发明内容所述的技 术细节与构成。
以上内容是结合具体的优选实施方式, 对本发明所作进一步详细说明, 不能认定本发明 的具体实施只局限于这些说明。 在不脱离本发明构思前提下, 还可以做出若干简单推演或替 换, 都应当视为属于本发明由所提交的权利要求书确定的专利保护范围。

Claims

权 利 要 求 书
1、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 船体 (1 ) 设有永能电 机 (2)、 电池组或电容器组 (3); 永能电机 (2) 是由包括设有端盖的机座 (201 ), 在机座
(201 ) 内设有两个或多个电机定子 (4)、 (5), 电机定子 (4) 设有电机转子 (6), 电机定 子 (5) 设有电机转子 (7 ), 电机转子 (6) 结合辐轴 (8 ) 的辐构成大直径的飞轮式构造, 通过辐轴(8)的轴联接着小直径的电机转子(7); 在构造上电机定子(5)结合电机转子(7) 具有输出电功率大于电机定子 (4) 或电机转子 (6) 的输入功率, 基于转场式或转枢式, 由 此电机定子 (4) 或是电机转子 (6) 的绕组引出线联接线盒 (401 ), 电机定子 (5) 或是电 机转子 (7) 的绕组引出线联接线盒 (501 ); 电池组或电容器组 (3) 设有充电控制器 (9), 充电控制器 (9) 其充电电路输出端设有联接电池组或电容器组 (3) 的导线 (901 ), 充电控 制器 (9) 其充电电路输入端设有联接线盒 (501 ) 的导线 (902), 充电电路输入端设有二级 管或继电器; 充电控制器(9)其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 (401 ) 的导线 (903), 充电控制器 (9) 其过电压、 过 电流保护电路设有联接开关电源 (905) 的导线 (904), 开关电源 (905) 设有与电机调速器
(906) 的电联接, 电机调速器 (906) 设有与一个或多个电动机或自启式电磁发动机 (10) 的电联接, 电动机或自启式电磁发动机 (10) 通过变速器或传动机构 (11 ) 联接螺旋桨或叶 轮 (12); 所述自启式电磁发动机 (10) 是由在一机箱或机体内设有一个或多个缸筒, 缸筒 设有配对的活塞, 缸筒、 活塞是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环, 活塞 通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一 点动开关, 点动开关与其缸筒绕组、 活塞绕组设有电联接, 点动开关与机箱外的线盒设有电 联接; 曲轴由轴承或加以磁悬浮轴承所支承, 曲轴的一未端经飞轮或传动机构与一起动机联 接, 起动机设有经热敏电阻后联接线盒的导线, 机箱内盛有润滑油。
2、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 船体 (1 ) 设有永能电 机 (2)、 电池组或电容器组 (3); 永能电机 (2) 是由包括设有端盖的机座 (201 ), 在机座
(201 ) 内设有两个或多个电机定子 (4)、 (5), 电机定子 (4) 设有电机转子 (6), 电机定 子(5)设有电机转子(7), 电机转子(6)通过变速器或传动机构(801 )联接电机转子(7); 在构造上电机定子 (5) 结合电机转子 (7) 具有输出电功率大于电机定子 (4) 或电机转子
(6) 的输入功率, 基于转场式或转枢式, 由此电机定子 (4) 或是电机转子 (6) 的绕组引 出线联接线盒 (401 ), 电机定子 (5) 或是电机转子 (7) 的绕组引出线联接线盒 (501 ); 电 池组或电容器组 (3) 设有充电控制器 (9), 充电控制器 (9) 其充电电路输出端设有联接电 池组或电容器组(3)的导线(901 ), 充电控制器(9)其充电电路输入端设有联接线盒(501 ) 的导线 (902), 充电电路输入端设有二级管或继电器; 充电控制器 (9) 其过充保护电路控 制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 (401 ) 的 导线 (903), 充电控制器 (9) 其过电压、 过电流保护电路设有联接开关电源 (905) 的 导线 (904), 开关电源 (905) 设有与电机调速器 (906) 的电联接, 电机调速器 (906) 设 有与一个或多个电动机或自启式电磁发动机(10)的电联接,电动机或自启式电磁发动机(10) 通过变速器或传动机构 (11 ) 联接螺旋桨或叶轮 (12); 所述自启式电磁发动机 (10) 是由 在一机箱或机体内设有一个或多个缸筒, 缸筒设有配对的活塞, 缸筒、 活塞是由铁芯及绕组 所构成; 活塞的侧面设有滚珠或活塞环, 活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下 止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关与其缸筒绕组、 活塞绕组 设有电联接, 点动开关与机箱外的线盒设有电联接; 曲轴由轴承或加以磁悬浮轴承所支承, 曲轴的一未端经飞轮或传动机构与一起动机联接, 起动机设有经热敏电阻后联接线盒的导 线, 机箱内盛有润滑油。
3、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 船体 (1 ) 设有永能发 动机 (13)、 电池组或电容器组 (3); 永能发动机 (13) 是由在一机箱或机体 (131 ) 内设有 一个或多个缸筒 (14), 缸筒 (14) 设有配对的活塞 (141 ), 缸筒 (14)、 活塞 (141 ) 是由 铁芯及绕组所构成; 活塞 (141 ) 的侧面设有滚珠或活塞环作用于支承及滑动, 活塞 (141 ) 通过连杆 (142) 联接曲轴 (143); 在缸筒 (14) 内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关与其缸筒绕组、 活塞绕组设有电联接, 点动开关与 线盒 (132) 设有电联接; 曲轴 (143) 由轴承或加以磁悬浮轴承 (134)、 ( 135) 所支承, 曲 轴 (143) 的末端设有一个或多个电机转子 (145), 电机转子 (145) 设有相匹配的电机定子 ( 146); 在构造上电机定子 (146) 结合电机转子 (145) 具有输出电功率大于缸筒 (14) 绕 组结合活塞 (141 ) 绕组的输入功率, 基于转场式或转枢式, 由此电机定子 (146) 或电机转 子 (145) 的绕组引出线联接线盒 (133); 曲轴 (143) 的输出端或输出端的飞轮与一起动机 联接, 起动机设有经热敏电阻后联接线盒 (132) 的导线, 机箱 (131 ) 内盛有润滑油; 电池 组或电容器组 (3) 设有充电控制器 (9), 充电控制器 (9) 其充电电路输出端设有联接电池 组或电容器组 (3) 的导线 (901 ), 充电控制器 (9)其充电电路输入端设有联接线盒 (133) 的导线 (902), 充电电路输入端设有二级管或继电器; 充电控制器 (9) 其过充保护电路控 制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有联接线盒 (132的导 线(903),充电控制器(9)其过电压、过电流保护电路设有联接开关电源(905)的导线(904), 开关电源 (905) 设有与电机调速器 (906) 的电联接, 电机调速器 (906) 设有与一个或多 个电动机或自启式电磁发动机 (10) 的电联接, 电动机或自启式电磁发动机 (10)通过变速 器或传动机构 (11 ) 联接螺旋桨或叶轮 (12); 所述自启式电磁发动机 (10) 是由在一机箱 或机体内设有一个或多个缸筒, 缸筒设有配对的活塞, 缸筒、 活塞是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环, 活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设 有一点动开关, 或上下止点都设有一点动开关, 点动开关与其缸筒绕组、 活塞绕组设有电联 接, 点动开关与机箱外的线盒设有电联接; 曲轴由轴承或加以磁悬浮轴承所支承, 曲轴的一 未端经飞轮或传动机构与一起动机联接, 起动机设有经热敏电阻后联接线盒的导线, 机箱内 盛有润滑油。
4、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 船体 (1 ) 设有永能发 动机 (13)、 电池组或电容器组 (3); 永能发动机 (13) 是由在一机箱或机体 (131 ) 内设有 一个或多个缸筒 (14), 缸筒 (14) 设有配对的活塞 (141 ), 缸筒 (14)、 活塞 (141 ) 是由 铁芯及绕组所构成; 活塞 (141 ) 的侧面设有滚珠或活塞环作用于支承及滑动, 活塞 (141 ) 通过连杆 (142) 联接曲轴 (143); 在缸筒 (14) 内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关与其缸筒绕组、 活塞绕组设有电联接, 点动开关与 线盒 (132) 设有电联接; 曲轴 (143) 由轴承或加以磁悬浮轴承 (134)、 ( 135) 所支承, 曲 轴(143)末端通过变速器或传动机构(147)联接一个或多个电机转子(145),电机转子(145) 设有相匹配的电机定子 (146); 在构造上电机定子 (146) 结合电机转子 (145) 具有输出电 功率大于缸筒 (14) 绕组结合活塞 (141 ) 绕组的输入功率, 基于转场式或转枢式, 由此电 机定子 (146) 或电机转子 (145) 的绕组引出线联接线盒 (133); 曲轴 (143) 的输出端或 输出端的飞轮与一起动机联接,起动机设有经热敏电阻后联接线盒(132)的导线,机箱(131 ) 内盛有润滑油; 电池组或电容器组 (3) 设有充电控制器 (9), 充电控制器 (9)其充电电路 输出端设有联接电池组或电容器组 (3) 的导线 (901 ), 充电控制器 (9) 其充电电路输入端 设有联接线盒(133) 的导线(902), 充电电路输入端设有二级管或继电器; 充电控制器(9) 其过充保护电路控制其一逆变电路或开关电源的启动与关闭, 该逆变电路或开关电源设有联 接线盒(132的导线 (903), 充电控制器(9)其过电压、 过电流保护电路设有联接开关电源
(905 ) 的导线 (904), 开关电源 (905 ) 设有与电机调速器 (906) 的电联接, 电机调速器
(906) 设有与一个或多个电动机或自启式电磁发动机 (10) 的电联接, 电动机或自启式电 磁发动机 (10) 通过变速器或传动机构 (11 ) 联接螺旋桨或叶轮 (12); 所述自启式电磁发 动机 (10) 是由在一机箱或机体内设有一个或多个缸筒, 缸筒设有配对的活塞, 缸筒、 活塞 是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环, 活塞通过连杆联接曲轴; 在缸筒内 活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关与其缸筒 绕组、 活塞绕组设有电联接, 点动开关与机箱外的线盒设有电联接; 曲轴由轴承或加以磁悬 浮轴承所支承, 曲轴的一未端经飞轮或传动机构与一起动机联接, 起动机设有经热敏电阻后 联接线盒的导线, 机箱内盛有润滑油。
5、 根据权利要求 1至 4任一项所述自能电动船舶, 其特征在于: 所述电机定子具有无 铁芯构造, 其绕组或加以具有凹凸层构造; 所述电机转子具有飞轮式、 多层飞轮式或凹凸层 的构造, 以及或加以磁悬浮装置支承; 所述电动机具有飞轮式或多层飞轮式的转子, 其启动 绕组与运行绕组或加以具有凹凸层构造, 以及启动绕组或加以具有升压电路, 所述电动机或 加以具有无铁芯的定子、 磁悬浮装置支承其转子、 及监测预警系统与急停开关、 转换开关; 所述电池组或电容器组具有过热、 过电压、 过电流保护及在线监测系统, 电容器组可以是由 超级电容器或智能电容器所构成; 所述开关电源 (905) 其按键开关设在驾驶室, 所述电机 调速器设有便于操纵的踏板或构件。
6、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 船体 (1 ) 设有发电机 ( 15)、 电动机或自启式电磁发动机 (16)、 电池组或电容器组 (3), 电动机 (16) 具有大功 率的启动绕组结合大直径的飞轮式转子, 发电机 (15)相对电动机 (16) 具有小直径圆柱型 的转子; 所述电动机或自启式电磁发动机 (16) 的动力输出端联接所述发电机 (15 ), 所述 发电机 (15) 的输出功率大于所述电动机或自启式电磁发动机 (16) 的输入功率; 或是所述 电动机或自启式电磁发动机(16)加以设有前后动力输出端, 其前后动力输出端各自联接一 个或多个具有小直径圆柱型转子的发电机 (15 ), 该两个或多个发电机 (15 ) 其单个输出功 率可小于所述电动机或自启式电磁发动机(16) 的输入功率, 但其总输出功率则大于所述电 动机或自启式电磁发动机 (16) 的输入功率; 电池组或电容器组 (3) 设有充电控制器 (9), 充电控制器 (9) 其充电电路输出端设有联接电池组或电容器组 (3) 的导线 (901 ), 充电控 制器 (9) 其充电电路输入端设有联接发电机 (15 ) 的导线 (902), 充电电路输入端设有二 级管或继电器; 充电控制器 (9) 其过充保护电路控制其一逆变电路或开关电源的启动与关 闭, 该逆变电路或开关电源设有联接电动机或自启式电磁发动机 (16) 的导线 (903), 充电 控制器 (9) 其过电压、 过电流保护电路设有联接开关电源 (905) 的导线 (904), 开关电源 (905 ) 设有与电机调速器 (906) 的电联接, 电机调速器 (906) 设有与一个或多个电动机 或自启式电磁发动机 (10) 的电联接, 电动机或自启式电磁发动机 (10)通过变速器或传动 机构 (11 ) 联接螺旋桨或叶轮 (12); 所述自启式电磁发动机 (10)、 ( 16) 是由在一机箱或 机体内设有一个或多个缸筒, 缸筒设有配对的活塞, 缸筒、 活塞是由铁芯及绕组所构成; 活 塞的侧面设有滚珠或活塞环, 活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设有 一点动开关,或上下止点都设有一点动开关, 点动开关与其缸筒绕组、活塞绕组设有电联接, 点动开关与机箱外的线盒设有电联接; 曲轴由轴承或加以磁悬浮轴承所支承, 曲轴的一未端 经飞轮或传动机构与一起动机联接, 起动机设有经热敏电阻后联接线盒的导线, 机箱内盛有 润滑油。
7、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 船体 (1 ) 设有发电机 ( 15)、 电动机或自启式电磁发动机 (16)、 电池组或电容器组 (3), 电动机或自启式电磁发 动机(16)设有或具有自动变速器(161 ), 或是发电机(15)设有或具有自动变速器(161 ), 由此电动机或自启式电磁发动机(16)通过自动变速器(161 )联接发电机(15),发电机(15) 的输出功率大于电动机或自启式电磁发动机(16) 的输入功率; 或是所述电动机或自启式电 磁发动机 (16) 通过自动变速器 (161) 联接多个发电机 (15), 该多个发电机 (15) 其单个 输出功率可小于所述电动机或自启式电磁发动机(16) 的输入功率, 但其总输出功率则大于 所述电动机或自启式电磁发动机 (16) 的输入功率; 电池组或电容器组 (3) 设有充电控制 器(9), 充电控制器(9)其充电电路输出端设有联接电池组或电容器组(3) 的导线(901), 充电控制器 (9) 其充电电路输入端设有联接发电机 (15) 的导线 (902), 充电电路输入端 设有二级管或继电器; 充电控制器 (9) 其过充保护电路控制其一逆变电路或开关电源的启 动与关闭, 该逆变电路或开关电源设有联接电动机或自启式电磁发动机(16)的导线(903), 充电控制器 (9) 其过电压、 过电流保护电路设有联接开关电源 (905) 的导线 (904), 开关 电源 (905) 设有与电机调速器 (906) 的电联接, 电机调速器 (906) 设有与一个或多个电 动机或自启式电磁发动机 (10) 的电联接, 电动机或自启式电磁发动机 (10) 通过变速器或 传动机构 (11) 联接螺旋桨或叶轮 (12); 所述自启式电磁发动机 (10)、 (16) 是由在一机 箱或机体内设有一个或多个缸筒,缸筒设有配对的活塞,缸筒、活塞是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环, 活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设 有一点动开关, 或上下止点都设有一点动开关, 点动开关与其缸筒绕组、 活塞绕组设有电联 接, 点动开关与机箱外的线盒设有电联接; 曲轴由轴承或加以磁悬浮轴承所支承, 曲轴的一 未端经飞轮或传动机构与一起动机联接, 起动机设有经热敏电阻后联接线盒的导线, 机箱内 盛有润滑油。
8、一种自能电动船舶,包括设有舾装的船体(1),其特征在于:船体(1)设有基座(17)、 电池组或电容器组(3), 基座(17)设有发电机(15)、环轨(171)、横杆(172), 横杆(172) 设有轴承 (173)、 电刷 (174), 轴承 (173) 设有辐轴 (175), 辐轴 (175) 设于环轨 (171) 内,环轨(171)至基座(17)的底座设有壳盖; 辐轴 (175)的轴设有滑环(176),辐轴(175) 的辐设有电动机或自启式电磁发动机 (16), 电动机或自启式电磁发动机 (16) 的动力输出 端设有轮或叶轮或螺旋桨 (162), 或是通过自动变速器或传动机构联接轮或叶轮或螺旋桨 (162);辐轴(175)的轴联接发电机(15),或是通过自动变速器或传动机构联接发电机(15), 发电机 (15) 的输出功率大于所述电动机或自启式电磁发动机 (16) 的输入功率; 或是所述 辐轴 (175) 通过自动变速器或传动机构联接多个发电机 (15), 该多个发电机 (15) 其单个 输出功率可小于所述电动机或自启式电磁发动机(16) 的输入功率, 但其总输出功率则大于 所述电动机或自启式电磁发动机 (16) 的输入功率; 电池组或电容器组 (3) 设有充电控制 器(9), 充电控制器(9)其充电电路输出端设有联接电池组或电容器组(3) 的导线(901), 充电控制器 (9) 其充电电路输入端设有联接发电机 (15) 的导线 (902), 充电电路输入端 设有二级管或继电器; 充电控制器 (9) 其过充保护电路控制其一逆变电路或开关电源的启 动与关闭, 该逆变电路或开关电源设有经电刷 (174)、 滑环 (176) 联接电动机或自启式电 磁发动机 (16) 的导线 (903), 充电控制器 (9) 其过电压、 过电流保护电路设有联接开关 电源 (905) 的导线 (904), 开关电源 (905 ) 设有与电机调速器 (906) 的电联接, 电机调 速器 (906) 设有与一个或多个电动机或自启式电磁发动机 (10) 的电联接, 电动机或自启 式电磁发动机 (10) 通过变速器或传动机构 (11 ) 联接螺旋桨或叶轮 (12); 所述自启式电 磁发动机 (10)、 ( 16) 是由在一机箱或机体内设有一个或多个缸筒, 缸筒设有配对的活塞, 缸筒、活塞是由铁芯及绕组所构成; 活塞的侧面设有滚珠或活塞环,活塞通过连杆联接曲轴; 在缸筒内活塞上止点或下止点处设有一点动开关, 或上下止点都设有一点动开关, 点动开关 与其缸筒绕组、 活塞绕组设有电联接, 点动开关与机箱外的线盒设有电联接; 曲轴由轴承或 加以磁悬浮轴承所支承, 曲轴的一未端经飞轮或传动机构与一起动机联接, 起动机设有经热 敏电阻后联接线盒的导线, 机箱内盛有润滑油。
9、 根据权利要求 6至 8任一项所述自能电动船舶, 其特征在于: 所述电动机具有飞轮 式或多层飞轮式的转子, 其启动绕组与运行绕组或加以具有凹凸层构造, 以及启动绕组或加 以具有升压电路, 所述电动机或加以具有无铁芯的定子、 磁悬浮装置支承其转子、 及监测预 警系统与急停开关、 转换开关; 所述发电机具有凹凸层或多层飞轮式的转子, 其绕组或加以 具有凹凸层构造及导磁底衬,所述发电机或加以具有无铁芯的定子、磁悬浮装置支承其转子、 及监测预警系统; 所述电池组或电容器组具有过热、 过电压、 过电流保护及在线监测系统, 电容器组可以是由超级电容器或智能电容器所构成; 所述开关电源 (905 ) 其按键开关设在 驾驶室, 所述电机调速器设有便于操纵的踏板或构件。
10、 一种自能电动船舶, 包括设有舾装的船体 (1 ), 其特征在于: 所述船体 (1 ) 设有 两组或多组如权利要求 1至 4或 6至 8所述的技术与机构,由此将两个或多个电源开关 (905)、 调速器 (906) 各自加以复合化。
PCT/CN2013/087938 2013-09-22 2013-11-27 自能电动船舶 WO2015039377A1 (zh)

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