WO2018010061A1 - Système de production d'électricité - Google Patents

Système de production d'électricité Download PDF

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Publication number
WO2018010061A1
WO2018010061A1 PCT/CN2016/089632 CN2016089632W WO2018010061A1 WO 2018010061 A1 WO2018010061 A1 WO 2018010061A1 CN 2016089632 W CN2016089632 W CN 2016089632W WO 2018010061 A1 WO2018010061 A1 WO 2018010061A1
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WO
WIPO (PCT)
Prior art keywords
generation system
moving member
power generation
transporting
power generating
Prior art date
Application number
PCT/CN2016/089632
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English (en)
Chinese (zh)
Inventor
陈文杰
Original Assignee
陈文杰
陈俊中
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
Application filed by 陈文杰, 陈俊中 filed Critical 陈文杰
Priority to PCT/CN2016/089632 priority Critical patent/WO2018010061A1/fr
Publication of WO2018010061A1 publication Critical patent/WO2018010061A1/fr

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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03—MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03G—SPRING, WEIGHT, INERTIA OR LIKE MOTORS; MECHANICAL-POWER PRODUCING DEVICES OR MECHANISMS, NOT OTHERWISE PROVIDED FOR OR USING ENERGY SOURCES NOT OTHERWISE PROVIDED FOR
    • F03G3/00—Other motors, e.g. gravity or inertia motors

Definitions

  • the invention relates to a power generation system, and in particular to an environmentally friendly power generation system.
  • renewable energy is a resource taken from nature.
  • the source of the source is less controllable by humans and is more unstable.
  • the current cost of renewable energy equipment is still high, and it is still impossible to replace the traditional power generation system. Therefore, the inventors have devote themselves to research and cooperate with the application of the theory, and have proposed a present invention which is rational in design and effective in improving the above problems.
  • a primary object of the present invention is to provide a power generation system that is moved by a weight change in a process of loading and unloading materials to generate electric energy, thereby being a low-cost environmentally-friendly power generation system.
  • the present invention provides a power generation system including: a transmission device, a transportation member, a first moving member, and a first power generating device.
  • the transport member is coupled to the transmission, and the transport member has an accommodation space for carrying the material.
  • the first moving member is provided with a first magnetic component, and the first moving member is coupled to the transmission device and is coupled with the transporting member, and the first moving member changes the weight generated by loading and unloading the material through the transporting member, and is in a first movable position and a The second active position reciprocates.
  • the first power generating device is disposed on the action path of the first moving member, and the first power generating device is capable of interacting with the first magnetic component to generate electrical energy.
  • the transporting piece loads the material at a loading position, and the material is unloaded at a discharging position.
  • the first moving member When the transporting member is at the loading position, the first moving member is located at the first movable position; and when the transporting member is at the discharging position, the first moving The piece is in the second active position.
  • the loading position is higher than the discharging position
  • the first moving member is located at the first movable position when the transporting member is located at the loading position; the first moving when the transporting member is located at the discharging position
  • the piece is located at the second active position.
  • the power generation system further includes: a second moving component and a second power generating device.
  • the second moving component is provided with a second magnetic component, the second moving component is connected to the transmission device, and the second moving component changes the weight generated by the loading and unloading material of the transporting component, corresponding to a third active position and a fourth Reciprocating between the active positions.
  • the second power generating device is located on the action path of the second moving member to reciprocate, and the second power generating device can interact with the second magnetic component to generate electrical energy.
  • the transmission device includes a power generating wheel connected to the transporting member and the first moving member, and the power generating wheel generates electric energy when the transporting member and the first moving member respectively reciprocate.
  • the power generation system further comprises: a discharging device and a feeding device.
  • the discharging device is used for loading the material into the accommodating space of the transporting member.
  • the receiving device is used to take over the materials removed by the transport member.
  • the distance between the discharging device and a reference surface is greater than the distance between the receiving device and the reference surface.
  • the power generation system further comprises: a returning device, comprising at least one hydraulic system, the returning device is configured to transport the material carried by the receiving device to the discharging device.
  • a returning device comprising at least one hydraulic system, the returning device is configured to transport the material carried by the receiving device to the discharging device.
  • the first power generating device and the second power generating device respectively comprise a coil and a pipe, and each of the wires is disposed around the corresponding pipe, and respectively forms a first sensing channel and a second sensing channel.
  • the first moving member and the second moving member respectively pass through the first sensing channel and the second sensing channel in a reciprocating motion path.
  • the power generation system further includes: a sag connected to the first moving member; wherein the sag and the transport member can provide a force in an opposite direction to the first moving member, so that the first moving member Can perform reciprocating motion.
  • the power generation system further includes: an elastic member coupled to the first moving member; wherein the elastic member and the transport member can provide a force in an opposite direction to the first moving member to make the first movement
  • the piece can reciprocate.
  • the first moving member is a trolley.
  • the present invention also provides a power generation system including: a transmission device, a transportation member, a moving member, and a first power generating device.
  • the transporting member is connected to the transmission device, and the transporting member has an accommodating space for carrying the material, and the transporting member is provided with a first magnetic component.
  • the moving member is coupled to the transmission device and is coupled with the transport member to reciprocate between the first active position and the second active position by the weight change generated by the moving member loading and unloading the material through the transport member.
  • the first power generating device is located on the moving path of the transporting member, and the first power generating device is capable of interacting with the first magnetic component to generate electrical energy.
  • the transporting component loads the material in a loading position, and the material is unloaded at a discharging position.
  • the moving component When the transporting component is in the loading position, the moving component is in the first active position, and when the transporting component is in the unloading position, the moving component is in the second position. Active location.
  • the power generation system further includes: a second power generating device located on a moving path of the moving member, and the second power generating device is capable of interacting with a second magnetic component disposed on the moving member to generate electrical energy .
  • the power generation system further comprises: a discharging device and a feeding device.
  • the discharging device is used for loading the material into the accommodating space of the transporting member.
  • the receiving device is used to take over the materials removed by the transport member.
  • the distance between the discharging device and a reference surface is greater than the distance between the receiving device and the reference surface.
  • the power generation system further comprises: a returning device, wherein the returning device comprises at least one hydraulic system, and the returning device is configured to transport the material carried by the receiving device to the discharging device.
  • a returning device comprises at least one hydraulic system, and the returning device is configured to transport the material carried by the receiving device to the discharging device.
  • the present invention also provides a power generation system including a transporting member having an accommodating space for carrying materials, and generating a height displacement by weight change of the loading and unloading materials; and generating electricity
  • the device has at least one magnetic component that is driven by the transport member to generate electrical energy.
  • the beneficial effects of the present invention may be that the power generation system can be used as an environmentally-friendly green energy source to provide stable and clean electric energy because the energy required to move the magnetic component by the weight of the material is low and is not affected by the weather environment.
  • FIGS. 1A to 1F and 2 are schematic views showing a first embodiment of a power generation system of the present invention.
  • 3 to 4 are schematic views of a second embodiment of the power generation system of the present invention.
  • Figure 5 is a schematic illustration of a third embodiment of a power generation system of the present invention.
  • Figure 6 is a schematic view of a fourth embodiment of a power generation system of the present invention.
  • Fig. 7 is a schematic view showing a fifth embodiment of the power generation system of the present invention.
  • FIG 8 to 11 are schematic views showing the operation of the returning device of the sixth embodiment of the present invention.
  • the power generation system of the present invention mainly comprises a transporting member and a power generating device, the power generating device comprising at least one magnetic component and a corresponding coil, wherein the transporting member generates a height displacement by a weight change of the loading and unloading material, and the power generating device is moved by the moving member A source of power whereby the relative motion of the magnetic component and the coil is driven to generate electrical energy.
  • the magnetic component can be placed on the transport member or its action path according to design requirements to generate electric energy with the movement of the transport member.
  • a moving member that is linked with the transporting member may be disposed in the power generating system, and the magnetic component is disposed on the moving member or disposed on the moving member. On the action path.
  • the magnetic component can be moved through the carrier as the transport member moves, thereby interacting with the coil to generate electrical energy.
  • the power generation principle of the power generation device is a device that converts the work performed by the power into electric energy by using the principle of electromagnetic induction, and will not be described herein.
  • FIG. 1A is a schematic diagram of a first embodiment of a power generation system of the present invention.
  • the power generation system 1 includes a transport member 10, a first moving member 20, a first magnetic component 30, a first power generating device 40, and a transmission device D.
  • An accommodating space (not shown) is formed inside the transporting member 10 to receive the material.
  • the transport member 10 and the first moving member 20 are respectively connected to the transmission D, and the transport member 10 and the first moving member 20 can be interlocked with each other through the transmission D.
  • the first magnetic component 30 is disposed on the first moving component 20, and the first power generating device 40 is disposed on the action path of the first moving component 20.
  • the power generation system 1 can change the weight of the transport member 10 by loading or unloading the transport member 10.
  • the transport member 10 is opened to move downward and through the transmission.
  • D drives the first moving member 20 to move upward; when the weight of the transporting member 10 is smaller than the first moving member 20, the first moving member 20 starts to move downward, and the transporting member 10 is pulled by the transmission D to move upward.
  • the transport member 10 will produce a height displacement due to weight changes caused by material loading or unloading.
  • first moving member 20 of the present embodiment can be used as a carrier of the first magnetic component 30 or integrated with the first magnetic component 30 as a single component.
  • first moving member 20 itself may also be a magnetic component for power generation.
  • the power generation system 1 can reciprocate the first moving member 20 between the first movable position L21 (the second height H2) and the second active position L22 (the first height H1) by the repeated material loading operation, and is disposed at the first
  • the first magnetic component 30 on the moving member 20 accordingly interacts with the first power generating device 40 to generate electrical energy.
  • the transporting member 10 loads the material at a loading position L11, and unloads the material at a discharging position L12, wherein the loading position L11 and the discharging position L12 have a height difference.
  • the height of the loading position L11 (the third height H3) is higher than the height of the discharging position L12 (the fourth height H4).
  • the reference plane G can be the ground or any plane.
  • the bottom of the transport member 10 may be provided with a discharge door 101 for selectively removing materials in the accommodating space.
  • the discharge door 101 can be designed with different structures according to requirements, and the embodiment is not limited.
  • the first power generating device 40 may include a coil 401.
  • the coil 401 may surround a pipe 402 to form a first sensing channel C1, and the first moving member 20 may reciprocate through the first sensing channel. C1.
  • the weight of the empty transport member 10 is smaller than the weight of the first moving member 20 plus the first magnetic component 30, and the overall weight of the transport member 10 filled with the material may be greater than the first moving member. 20 plus the first magnetic The weight of the force assembly 30.
  • the above materials are, for example, metal ball blocks, earth stones or weight items for carrying, etc., and the present embodiment does not limit the material material and shape.
  • the power generation system 1 may be provided with a stop structure (not shown) so that the transport member 10 can stay at the loading position L11 or the unloading position L12 for loading and unloading of materials.
  • the power generation system 1 can release the stop structure to interlock the transport member 10 with the first moving member 20, whereby the first magnetic component 30 will interact with the first power generating device 40 to generate Electrical energy.
  • the first magnetic component 30 and the first power generating device 40 are based on the principle of magnetic energy interchange, and the embodiment does not limit the structure thereof.
  • the real-time position of the first moving member 20 and the transport member 10 may be determined by an additional detector (not shown), so as to control the transport member 10 accordingly.
  • Carry out material filling or material removal For example, when it is detected that the transporting member 10 is located at the loading position L11, the loading of the material can be performed; when the transporting member 10 is detected at the unloading position L12, the material can be removed.
  • the transmission device D may be composed of a rope and a plurality of pulley assemblies as shown in FIG. 1A, but is not limited thereto.
  • the transmission device D2 may also be oil pressure.
  • a mechanism, and the transporting member 10 and the first moving member 20 can be interlocked with each other by the hydraulic mechanism, that is, when the transporting member 10 moves toward the hydraulic mechanism, the first moving member 20 moves away from the hydraulic mechanism. vice versa.
  • the design of the transmission structure such as the pulley block or the hydraulic system in the transmission can change the direction of the applied force, the weight of the load carried, and the moving distance.
  • a higher weight first transport member 20 can be utilized with a lower weight transport member 10 or less material weight using a movable pulley system. Therefore, in FIG. 1A above, the weight relationship and the manner of movement between the transporting member 10 and the first moving member 20 can be adjusted by the design of different transmissions, and the transmission D of FIG. 1A is only the embodiment of the present invention. One, the invention is not limited thereto. As shown in FIG. 1A above, the weight relationship and the manner of movement between the transporting member 10 and the first moving member 20 can be adjusted by the design of different transmissions, and the transmission D of FIG. 1A is only the embodiment of the present invention. One, the invention is not limited thereto. As shown in FIG.
  • the transmission device D3 may include a pulley block and a wedge-shaped structure, and the transporting member 10 and the first moving member 20 are respectively disposed on two sides of the wedge-shaped structure, and the transporting member 10 and The first moving member 20 is connected by a pulley block, whereby the transporting member 10 and the first moving member 20 can pass the weight relationship of each other to correspond to the sliding on the wedge structure; of course, in practical applications, the wedge structure A track may be provided corresponding to the transport member 10 and the first moving member 20, which is not limited herein.
  • the position of the first power generating device 40a and the discharging device in the figure is only an exemplary manner, and is not limited thereto.
  • the transmission device D4 may also be a structure similar to a seesaw.
  • the transport member 10 and the first moving member 20 may be respectively disposed at two ends of the seesaw, respectively.
  • the discharging device and the first power generating device 40b are also disposed adjacent to both ends of the seesaw.
  • the type of the transmission device can be selected according to requirements, and the action paths of the transport member 10 and the first moving member 20 can correspond to vertical up and down movement, oblique movement or curved movement, etc. .
  • the transmission device is inferred by those skilled in the art from the above description, and are not described herein again.
  • the other end of the first moving member 20 may be connected with a sag or spring to provide a force in the opposite direction to the transport member 10 to the first moving member 20, through two opposing forces and a transport member.
  • the weight change of 10 causes the first moving member 20 to reciprocate in a path of motion.
  • the weight or spring may replace the gravity of the foregoing embodiment, and the direction of the force application may be changed by a mechanism such as a rope and a pulley to move the first moving member 20 in a non-vertical direction, such as a horizontal direction or a slope, and the power generating device 40 can be arranged to be placed on its action path for power generation.
  • urging mechanism such as a sag or a spring is only one embodiment of the present invention, and other embodiments will be inferred by those skilled in the art through the disclosure of the above embodiments, and no further details are described herein.
  • the first moving member 20 can reciprocate on a plane or a slope by switching the direction of the force application.
  • the two ends of the first moving member 20 may be respectively connected to the transporting member 10 and the hanging 70 (or the elastic member 80), the transporting member 10 and the hanging member 70 (or the elastic member 80).
  • the force in the opposite direction can be supplied to the first moving member 20, whereby the first moving member 20 can be reciprocated.
  • the first moving member 20 can be a trolley and the resilient member 80 can be spring.
  • the transmissions D5, D6 shown in Figures 1E and 1F are similar to the aforementioned transmissions and will not be described again.
  • the power generation system 1' may further include a second moving member 21, a second magnetic component 31, and a second power generating device 41, and the power generating system 1' may have two transmission devices D, one of which is driven.
  • the device D is connected to the transport member 10 and the first moving member 20, and the other transmission device D is connected to the transport member 10 and the second moving member 21.
  • the second magnetic component 31 is disposed on the second moving member 21.
  • the second power generating device 41 includes a coil 411 and a duct 412.
  • the coil 411 is disposed around the duct 412 to form a second sensing channel C2, and the action path of the second moving member 21 passes through the second power generating device 41.
  • the first moving member 20 and the second moving member 21 can be simultaneously moved by the transport member 10 to perform repeated movement.
  • the manner of moving the first moving member 20 is as described in the above embodiment, and details are not described herein again.
  • the change in weight of the second moving member 21 by the loading and unloading of the material by the transport member 10 corresponds to the third movable position L31 (the position at which the second moving member 21 and the reference surface G are separated from the fourth height H4') and the fourth movable position L32.
  • the reciprocating motion is performed between the position of the second moving member 21 and the reference plane G from the third height H3', wherein the third height H3' is greater than the fourth height H4'.
  • the second moving member 21 While the second moving member 21 is reciprocating, the second magnetic component 31 can interact with the second power generating device 41 to generate electrical energy. Therefore, in the process of loading and unloading the material, the transporting member 10 can simultaneously generate electric energy through the first power generating device 40 and the second power generating device 41. It can be seen from the above that the power generation system 1' can generate a plurality of electric energy by providing a plurality of sets of moving parts, and the structure thereof can be inferred from Fig. 2, and will not be described here.
  • the transporting member 10, the first moving member 20, and the second moving member 21 may be designed to move vertically or vertically depending on the requirements, or may be placed against a specific wall or along a specific track. Move diagonally.
  • the pulley assembly of the transmission D may be provided with a generator wheel (not shown), so that the transport member 10, the first moving member 20 and the second moving member 21 pass each other through the transmission D. When reciprocating in conjunction with the movement, additional power can be generated by the generator wheel.
  • the magnetic component in the embodiment of the present invention can be selectively disposed on the transporting member 10 or on the moving member 20, and the power generating device is configured to be disposed on the moving path of the transporting member 10 or the moving member 20, or both sides of the power generating structure. Increase power generation efficiency.
  • the power generation system 2 can include a transport member 10, a moving member 20, a first magnetic component 30, a first power generating device 40, and a transmission device D.
  • the greatest difference from the foregoing embodiment is that the first magnetic component 30 can be disposed on the transporting member 10, and the first power generating device 40 can be correspondingly disposed on the moving path of the transporting member 10.
  • the power generation system 2 can change the weight of the transporting member 10 by loading or unloading the transporting member 10. When the weight of the transporting member 10 plus the first magnetic component 30 is greater than that of the moving member 20, the moving member 20 can be driven upward through the transmission D. Moving; when the weight of the transport member 10 plus the first magnetic component 30 is smaller than the moving member 20, the moving member 20 can be moved downward by the transmission D.
  • the power generation system 2 can reciprocate the moving member 20 between the first height H1 and the second height H2, and reciprocate the transport member 10 between a third height H3 and a fourth height H4.
  • the first magnetic component 30 disposed on the transport member 10 interacts with the first power generating device 40 to generate electrical energy.
  • the transporting member 10 loads the material at a loading position L11, and unloads the material at a discharging position L12.
  • the distance between the moving member 20 and a reference surface G is defined as the second height H2.
  • the distance of the moving member 20 from the reference plane G is defined as a first height H1, wherein the first height H1 is greater than the second height H2; and the third height H3 is greater than the fourth height H4.
  • the power generation system 2' may further include a second magnetic component 31 and a second power generating device 41.
  • the second magnetic component 31 is disposed on the moving member 20.
  • the second power generating device 41 is disposed on the moving path of the moving member 20.
  • the second power generating device 41 can include a coil 411 and a duct 412.
  • the coil 411 can be disposed around the duct 412 to form a second sensing channel C2.
  • the power generation system 2' can reciprocate the transporting member 10 and the moving member 20 respectively by repeated material loading operations, and when the transporting member 10 and the moving member 20 reciprocate, respectively corresponding to the first sensing channel C1 and The second sensing channel C2, and the first magnetic component 30 disposed on the transport member 10 will interact with the first power generating device 40 to generate electrical energy, and the second magnetic component 31 disposed on the moving member 20 will be associated with The second power generating device 41 interacts to generate electrical energy.
  • electrical energy can be simultaneously generated by the first power generating device 40 and the second power generating device 41.
  • FIG. 5 is a schematic diagram of a third embodiment of a power generation system according to the present invention.
  • the power generation system 3 includes: a transport member 10, a first moving member 20, a first magnetic component 30, a first power generating device 40, a second power generating device 41, a receiving device 50, and a The discharging device 60, a returning device A, a touch device B and a transmission device D.
  • the first moving member 20, the first power generating device 40, the second power generating device 41, and a transmission device D refer to the foregoing embodiment, and details are not described herein.
  • the power generation system 3 can take off the materials removed by the transporting device 10 through the loading device 50, and the materials carried in the receiving device 50 are returned to the discharging device 60 through the returning device A. The material is then reloaded into the transport member 10 by the discharge device 60 to form an actuation cycle.
  • at least a part of the energy used by the loopback device A to perform the returning operation is an external force from an additional input.
  • the external force can be electric power or other natural forces, such as but not limited to The gravity of the material at a high point, of course, can be understood that the external force can also be a mechanical force such as, but not limited to, manual handling.
  • the relationship between the number of actuations of the loopback device A and the number of actuations of the transport member 10 and the first moving member 20 may be varied according to requirements, for example, the transport member 10 and the first moving member 20 may be activated twice or each time. After the number of times, the loopback device A performs a single operation.
  • the discharge control of the discharge device 60 and the discharge control of the transport member 10 may be achieved by detecting the position of the transport member 10 by the touch device B.
  • the loading device 50 includes a collecting trough 501 corresponding to the lower portion of the first power generating device 40 for receiving the material removed by the transporting member 10.
  • the sump 501 may include a discharge door 5011, the discharge door 5011 may be selectively opened, and the bottom of the sump 501 may be inclined (from the discharge door away from the discharge door) The position of 5011 is inclined toward the discharge door 5011; thereby, when the discharge door 5011 is opened, at least a portion of the material located in the collecting tank 501 can be pulled by gravity and moved toward the discharge door 5011. Further, the discharge door 5011 is externally removed.
  • the styles of the collecting trough 501 and the discharging door 5011 shown in the figure of the present embodiment are only one of the exemplary modes, and the practical application is not limited to the embodiment shown in the drawings.
  • the return device A can be disposed adjacent to the loading device 50 to assist in transporting the material carried in the sump 501 back to the discharge device 60.
  • the return device A can be selected according to requirements in practical applications, for example, it can be through a hydraulic system (details will be described in detail later) or it can be through several pulley devices, etc. limit.
  • the discharge device 60 can carry a plurality of materials (not shown), and the discharge device 60 can selectively discharge at least a portion of the material it carries.
  • the discharging device 60 includes a receiving groove 61 and a discharge opening 62 disposed at the bottom of the receiving groove 61.
  • the receiving groove 61 is used for accommodating the material, and the discharging port 62 is provided with a discharging door 621, and the discharging door 621 corresponds to the position setting of the transport member 10.
  • the inner wall of the receiving groove 61 may be inclined, so that the material disposed in the receiving groove 61 can be pulled by gravity when the discharging door 621 is opened, and naturally The discharge door 621 moves.
  • the opening and closing time of the discharging door 621 and the time of each opening and closing can be designed according to actual needs, and there is no limitation thereon.
  • the receiving tank 61 may have a mechanism or a related design for preventing material from being clogged at the discharge opening 62. For example, if the material is solid, a stirring mechanism may be disposed in the receiving tank 61.
  • the triggering device B may be disposed adjacent to the transport member 10 or the first power generating device 40.
  • the touch device B is used to sense the position of the transport member 10 to correspondingly control the opening and closing of the discharge door 621 of the discharge port 62 and the discharge door 101 of the transport member 10 according to the position of the transport member 10.
  • the touch device B can control a plurality of the discharge door and the discharge door through a control device.
  • the touch device B when the touch device B senses the transport member 10 located below the discharge port 62, adjacent to the discharge port 62, the touch device B will correspondingly control the discharge door 621 of the discharge device 60; and when the device B is touched When the transport member 10 is sensed to be located away from the discharge opening 62 (ie, adjacent to the receiving device 50), the triggering device B will correspondingly control the opening of the discharge door 101 of the transport member 10, so that the transport member 10 can The material carried by it is discharged into the collecting tank 501 of the receiving device 50.
  • the sensing mode, the number and the setting position of the touch device B can be selected according to requirements, and there is no limitation thereto.
  • a single touch device B can be disposed on the discharging device 60 and the output device.
  • the port 62 corresponds to one end of the first power generating device 40, and the touch device B can measure the distance between the touch device B and the transport member 10 by means of infrared detection, thereby determining the position of the transport member 10.
  • the adjacent touch device B will be correspondingly touched, and when the transport member 10 is adjacent to the receiving device 50, correspondingly The adjacent touch device B is activated.
  • FIG. 6 is a fourth embodiment of the power generation system of the present invention.
  • the maximum difference between the present embodiment and the foregoing embodiment is that the discharge device 60 of the power generation system 4 can have two discharge ports 62;
  • the first moving member 20 can also have the function of carrying, transporting and unloading materials, that is, the first moving member 20 further includes a discharging door 201.
  • the discharge device 60 may be carried by two discharge ports 62 in turn. The material is discharged, and the material is loaded in the transporting member 10 and the first moving member 20 in turn, and after the transporting member 10 and the first moving member 20 take the materials in turn, the corresponding first power generating device 40 is correspondingly passed.
  • the power generation system 4 proposed in this embodiment may further include the loopback device A and the touch device B as described in the foregoing embodiments.
  • FIG. 7 is a schematic diagram of a fifth embodiment of the present invention.
  • the power generation system 5 includes a transport member 10, a first moving member 20, a second moving member 21, a first magnetic component 30, a second magnetic component 31, a third magnetic component 32, and a The first power generating device 40, a second power generating device 41 and a third power generating device 42, a receiving device 50, a discharging device 60 and a transmission device D.
  • the difference between the embodiment and the foregoing embodiment is that the moving path of the transporting member 10, the first moving member 20 and the second moving member 21 may correspond to the first power generating device 40 and the second power generating device 41 respectively.
  • the third power generating device 42 is configured to carry out the loading and unloading of the material by the relative movement of the discharging device 60 and the receiving device 50, and the first moving member 20 and the second moving member 21 are simultaneously reciprocated.
  • the first power generating device 40, the second power generating device 41, and the third power generating device 42 can simultaneously generate electric energy, and the power generating performance of the overall power generating system can be effectively improved.
  • the third power generating device 42 may include a coil 421 and a duct 422.
  • the coil 421 may be disposed around the duct 422 to form a third sensing channel C3.
  • the third sensing channel C3 can be correspondingly passed to enable the third power generating device 42 to generate electric energy correspondingly.
  • the returning device A includes a first hydraulic device 10', a second hydraulic device 20', a return hydraulic device 30', and a lower receiving groove 40'.
  • the first hydraulic device 10', a second hydraulic device 20', and a return hydraulic device 30' are arranged side by side, and the lower receiving groove 40' is disposed between the first hydraulic device 10' and the second hydraulic device 20'. .
  • the first hydraulic device 10' includes a first piston 11' and a carrier 12' disposed at the top end of the first piston 11'.
  • the carrier 12' can be raised or lowered by the first piston 11'.
  • the first piston 11' can lift the above-mentioned carrier 12' to a first upper portion H11, and can lower the above-mentioned carrier 12' to a first lower portion H12 (as shown in Fig. 11).
  • the first height H11 of the embodiment may be the highest position at which the first piston 11' rises the loading platform 12'; the first lower portion H12 may be the lowest position at which the first piston 11' lowers the arrival of the loading platform 12' .
  • the second hydraulic device 20' is connected to the first hydraulic device 10' by the first line P1, and the first line P1 can be A control valve V1 is provided.
  • the second hydraulic device 20' of this embodiment may be a telescopic multi-section hydraulic device, but is not limited thereto, and may be, for example, a ladder truck, which is inclined and fitted with a multi-section hydraulic device.
  • the second hydraulic device 20' includes a second piston 21' and a transport groove 22' provided at the top end of the second piston 21'.
  • the transport slot 22' is movable between the first lift position H21 (shown in Figure 9) and the second lift position H22 (shown in Figure 11).
  • the height of the second lifting position H22 is lower than the position of the lower receiving groove 40'.
  • the first lifting position H21 is higher than the first height H11 of the stage 12'.
  • the bottom 221 of the transport slot 22' may be sloped.
  • the return hydraulic device 30' includes a third piston 31' and a liftable force receiving portion 32' coupled to the third piston 31'.
  • the return hydraulic device 30' is connected to the second hydraulic device 20' by the second pipe P2, and is connected to the first hydraulic device 10' by the third pipe P3; the second pipe P2 is provided with a control valve V2, and the third The line P3 is provided with a control valve V3.
  • the return hydraulic device 30' is for temporarily storing the working fluid F' for returning to the first hydraulic device 10' when appropriate.
  • the lower receiving groove 40' is placed on one side of the first hydraulic device 10' and is fixed at a buffering position Hf which is lower than the first lower portion H12.
  • the lower receiving groove 40' is for temporarily receiving the material S fed from the carrying table 12' of the first hydraulic device 10' and, if appropriate, transferring it to the carrying groove 22' of the second hydraulic device 20'.
  • the carrier 12' of the first hydraulic device 10' may be used to receive the material S from the collecting tank 501; specifically, the aggregate of FIG.
  • the tank 501 may have a discharge door 5011 that allows at least a portion of the material in the sump 501 to be removed into the deck 12' of FIG.
  • the collecting trough 501 shown in FIG. 5 may directly be the carrying platform 12' of the first hydraulic device 10'; that is, the collecting trough 501 shown in FIG. 5 may be directly disposed in FIG. On the first piston 11'.
  • the loading platform 12' when the loading platform 12' carries the quantitative material S, and the control valve V1 of the first pipeline P1 is opened, the loading platform 12' will be lowered by the first high point H11 due to gravity.
  • the first lower portion H12, and the working fluid F' originally located in the first hydraulic device 10' will flow from the first hydraulic device 10' to the second hydraulic device 20', so that the transport tank 22 carrying the material S is accordingly ', raised from the second lifting position H22 to the first lifting position H21 near the discharge device 60 (shown in Figure 5).
  • the transporting groove 22 ′ when the transporting groove 22 ′ is located lower than the lower accommodating groove 40 ′ and a part of the bottom surface thereof abuts against the force receiving portion 32 ′, the transporting groove 22 ′ is located at a third position.
  • the lifting position H23, the third lifting position H23 is higher than the second lifting position H22, and the material in the lower receiving groove 40' can be discharged to the conveying groove 22'.
  • the control valve V3 can be kept closed to fix the conveying groove. 22' location.
  • control valve V3 of the third line P3 will be controlled to be opened, so that the force receiving portion 32' will be pressed downward by the carrying groove 22', thereby being placed in the return hydraulic device 30'.
  • the working fluid F' can flow into the first hydraulic device 10' through the third pipe P3, and the carrying platform 12' originally located at the first lower portion H12 is moved up to the first high point H11, so that the returning device A (shown in Figure 5) will revert to a state similar to that of Figure 8, which in turn completes a cycle of operation.
  • control valves V1 - V3 can be opened and closed according to the work demand, so that the transport tank 22' can be fed to a high position and cooperate with the feeding and unloading of the loading table 12' to complete the process of material circulation and distribution.

Abstract

Ce système de production d'électricité comprend: un appareil de transmission (D), un élément de transport (10), un premier élément mobile (20), un premier composant magnétique (30) et un premier appareil de production d'électricité (40). L'élément de transport (10) dispose d'un espace de réception pour transporter un matériau. L'appareil de transmission (D) est relié à l'élément de transport (10) et au premier élément mobile (20). Le premier élément mobile (20) est pourvu du premier composant magnétique (30). Le premier élément mobile (20) peut se déplacer en va-et-vient entre une première hauteur et une seconde hauteur sous l'effet du changement de poids causé par le chargement ou le déchargement de matériau de l'élément de transport (10). Le premier appareil de production d'électricité (40) est disposé sur le chemin d'action du premier élément mobile (20) et peut interagir avec le premier composant magnétique (30) pour produire de l'électricité. Ainsi, l'élément de transport (10), tout en chargeant ou en déchargeant le matériau, permet au premier appareil de production d'électricité (40) de produire de l'électricité de manière écologique.
PCT/CN2016/089632 2016-07-11 2016-07-11 Système de production d'électricité WO2018010061A1 (fr)

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PCT/CN2016/089632 WO2018010061A1 (fr) 2016-07-11 2016-07-11 Système de production d'électricité

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Application Number Priority Date Filing Date Title
PCT/CN2016/089632 WO2018010061A1 (fr) 2016-07-11 2016-07-11 Système de production d'électricité

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WO2018010061A1 true WO2018010061A1 (fr) 2018-01-18

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CN113909971A (zh) * 2021-10-26 2022-01-11 湖北宜昌精森机械有限公司 一种金属制品加工装置

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CN202991370U (zh) * 2012-08-16 2013-06-12 温锡钦 新型水力活塞泵势能转换装置
CN203548087U (zh) * 2013-07-19 2014-04-16 北京京东方光电科技有限公司 一种卸料口
CN103867408A (zh) * 2014-03-24 2014-06-18 天津大学 依托山体的重力储能系统
CN203685499U (zh) * 2014-01-07 2014-07-02 赵楠 一种电梯用能量回收装置

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DE10037678A1 (de) * 2000-07-28 2002-02-14 Mathieu Ernst Ulrich Mechanisches Hubspeicherwerk
CN201012243Y (zh) * 2007-01-21 2008-01-30 刘念龙 直线发电机在健身器械上的应用
CN202991370U (zh) * 2012-08-16 2013-06-12 温锡钦 新型水力活塞泵势能转换装置
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CN113909971A (zh) * 2021-10-26 2022-01-11 湖北宜昌精森机械有限公司 一种金属制品加工装置
CN113909971B (zh) * 2021-10-26 2023-12-12 湖北宜昌精森机械有限公司 一种金属制品加工装置

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