1. A wind power electrical power generation system comprising:
a fluid pump having an input port and an output port;
a rotating blade mechanically connected to the fluid pump, the rotating blade and fluid pump being configured to operate the fluid pump to move fluid from the input port to the output port in response to rotation of the rotating blade;
a proportional flow valve fluidly coupled to the output port of the fluid pump, the proportional flow valve being configured to divert a first portion of the fluid from the output port to a first fluid motor and a second portion of the fluid from the output port to a second fluid motor;
the first fluid motor fluidly being coupled to the proportional flow valve;
the second fluid motor fluidly being coupled to the proportional flow valve and configured in parallel with the first fluid motor;
a first electrical generator mechanically coupled to the first fluid motor;
a second electrical generator mechanically coupled to the second fluid motor; and
a proportional integral controller operatively connected to the proportional flow valve and configured to operate the proportional flow valve with reference to a difference between a set point for a parameter for the first fluid motor and a signal indicative of a current value for the parameter for the first fluid motor to enable the first fluid motor to operate at a predetermined rotational speed in response to the first portion of the fluid from the proportional flow valve while the second fluid motor operates at a varying rotational speed in response to the second portion of the fluid from the proportional flow valve.
2. The system of claim 1 wherein the parameter for the first fluid motor is a rotational speed of the first fluid motor.
3. The system of claim 1 wherein the proportional integral controller is configured to generate a pulse width modulated signal with reference to the difference between the set point for the parameter for the first fluid motor and the signal indicative of the current value for the parameter for the first fluid motor.
4. The system of claim 1 wherein the proportional flow valve diverts fluid flowing from the output of the fluid pump to the first fluid motor and the second fluid motor with reference to a signal received from the proportional integral controller.
5. A wind power electrical power generation system comprising:
a first fluid pump having an input port and an output port;
a first rotating blade mechanically connected to the first fluid pump, the first rotating blade and the first fluid pump being configured to operate the first fluid pump to move fluid from the input port to the output port in response to rotation of the first rotating blade;
a second fluid pump having an input port and an output port;
a second rotating blade mechanically connected to the second fluid pump, the second rotating blade and the second fluid pump being configured to operate the second fluid pump to move fluid from the input port to the output port in response to rotation of the second rotating blade;
a proportional flow valve fluidly coupled to the output port of the first fluid pump and to the output port of the second fluid pump, the proportional flow valve being configured to divert a first portion of the fluid from the output ports of the first fluid pump and the second fluid pump to a first fluid motor and a second portion of the fluid from the output ports of the first fluid pump and the second fluid pump to a second fluid motor;
the first fluid motor fluidly being coupled to the proportional flow valve;
the second fluid motor fluidly being coupled to the proportional flow valve and configured in parallel with the first fluid motor;
a first electrical generator mechanically coupled to the first fluid motor;
a second electrical generator mechanically coupled to the second fluid motor; and
a proportional integral controller operatively connected to the proportional flow valve and configured to operate the proportional flow valve with reference to a difference between a set point for a parameter for the first fluid motor and the second fluid motor, a signal indicative of a current value for the parameter for the first fluid motor, and a signal indicative of a current value for the parameter for the second fluid motor to enable the first fluid motor to operate at a predetermined rotational speed in response to the first portion of the fluid from the proportional flow valve while the second fluid motor operates at a varying rotational speed in response to the second portion of the fluid from the proportional flow valve.
6. The system of claim 5 wherein the parameter for the first fluid motor and the second fluid motor is a rotational speed of the first fluid motor and the second fluid motor.
7. The system of claim 5 wherein the proportional integral controller is configured to generate a pulse width modulated signal with reference to the difference between the set point for the parameter for the first fluid motor and the second fluid motor, the signal indicative of the current value for the parameter for the first fluid motor, and the signal indicative of the current value for the parameter for the second fluid motor.
8. The system of claim 5 wherein the proportional flow valve diverts fluid flowing from the output port of the first fluid pump and the output port of the second fluid pump to the first fluid motor and the second fluid motor with reference to a signal received from the proportional integral controller.
9. The system of claim 5 wherein the output port of the first fluid pump and the output of the second fluid pump are connected in series to the proportional flow valve.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A release system, the release system comprising:
a transceiver module;
a cage to receive the transceiver module, the cage having a locking tab, the cage being adapted to be mounted on a printed circuit board;
an arm assembly, having a first arm and a linking portion connected therewith, the first arm having an inner surface facing the transceiver module and an outer surface corresponding to the inner surface, the first arm having a guiding channel and a slot formed on the surface thereof;
a bail having a top plate and a first plate connected therewith, the first plate having a hook, an axis portion and a mortise, the hook being adapted to be connected with an pull tab, the bail is mounted on the outer surface of the arm assembly and being rotatably coupled to the transceiver module by an axis pin passing through the guiding channel of the arm assembly, the mortise of the bail penetrates through the slot of the first arm; and
a restoration member, the restoration member is connected with the linking portion of the arm assembly and the transceiver module, the restoration member being disposed between the arm assembly and the transceiver module;
wherein, when the release system is in a locked position, the transceiver module is fixed with the locking tab of the cage, while the external force toward forward is applied to the bail, the restoration member provides a resistant force to the arm assembly, the axis portion of the bail rotate to the axis pin and the mortise slide along the slot of the arm assembly, while the mortise contact with a linear surface of the slot, the mortise pushes the arm assembly module and the transceiver forward so as to separate the transceiver from the cage, while the external force is gone, the restoration member provide the resistant force to the bail for the recovery thereof.
2. The release system of claim 1, further comprising:
a locking configuration including a boss disposed on one of the bail and the arm assembly and a dimple disposed on another of the bail and the arm assembly, the dimple being corresponding to the boss for receiving the boss so as to secure the bail in a locked position.
3. The release system of claim 1, wherein the restoration member is a spring.
4. The release system of claim 3, wherein the spring has a first end and a torquing portion connected thereto, the transceiver module has a concave and a positing protrusion, the concave formed on a surface of the transceiver module and the positing protrusion is formed on the bottom of the concave and extends outward therefrom, the positing protrusion passes through the torquing portion of the spring so as to secure the position of the spring, the first end of the spring is connected to the linking portion of the arm assembly for providing a recovery force thereto.
5. The release system of claim 1, the arm assembly further having a bridge connecting the first arm and a second arm, the first arm and the second arm extend rearward from the bridge, the first arm and the second arm having an inner surface facing the transceiver module and an outer surface corresponding thereto, the first arm and the second arm having a guiding channel and a slot formed on the surface thereof respectively, the bridge having at least one linking portion formed on the inner surface thereof.
6. The release system of claim 1, wherein the first arms includes a distal end, the distal end having a wedge element that defines at least a portion of an opening that receives one of the locking tabs therein.
7. The release system of claim 6, wherein the wedge element that contacts one of the locking tabs and pushes the locking tab outward when the bail is moved forward.
8. The release system of claim 6, wherein the wedge elements each comprise an angled or arced surface.
9. The release system of claim 6, wherein, the transceiver module having a fixing slot formed on a flank thereof, when the release system is in a locked position, the wedge element of the arm assembly is disposed in the fixing slot, and the at least one locking tab protrudes into the fixing slot so as to secure the transceiver module, and when the external force is applied to the bail, the arm assembly moves to a forward position in the fixing slot, causing the wedge element to push against the at least one locking tab so as to move the at least one locking tab out of the fixing slot, thereby releasing the transceiver module from the cage.
10. The release system of claim 1, wherein the mortise of the bail is adjacent to a linear surface of the slot of the first arm while the external force is not applied to the bail.
11. The release system of claim 1, wherein the mortise of the bail is a separate part fixed thereon.