71results about How to "Easy to implement modularity" patented technology

The invention provides an integrated flexible rotating joint which comprises a shell and a joint main body located in the shell. The integrated flexible rotating joint is characterized in that the joint main body comprises a plurality of circuit boards; a plurality of mounting planes are formed on the inner circumference of the shell; the circuit boards are respectively mounted on the mounting planes. In the integrated flexible rotating joint, the circuit boards are arranged on the inner circumference of the shell, and the space in the shell is smartly utilized, so that the whole joint structure is very compact, the modularization is easily realized, and the assembling and disassembling are convenient.

The invention discloses a low-grade heat energy driven electrode liquid self-circulating hydrogen production method, and belongs to the technical field of new energy. Low-grade heat energy serves as driving force, and continuous hydrogen production is achieved through the concentration change of a working solution. The low-grade heat energy driven electrode liquid self-circulating hydrogen production method comprises the steps: firstly, the low-grade heat energy is converted into chemical potential energy of the working solution through a low-temperature multi-effect distillation method; thenthe chemical potential energy is converted into the potential difference between two electrodes of a cell stack based on the reverse electrodialysis principle; and then hydrogen and oxygen are produced through a reduction reaction or an oxidation reaction occurring on the hydrogen production electrode and the oxygen production electrode in the same electrode liquid. The waste solution losing partof the chemical potential energy is recycled after flowing out from the cell stack, and then regenerated under driving of the low-grade heat energy; the electrode liquid is self-circulated between a hydrogen production electrode liquid cavity and an oxygen production electrode liquid cavity in the two ends of the cell stack; the low-grade heat energy can be continuously, efficiently and steadily converted to be utilized; a hydrogen production system does not need to operate at the high temperature and high pressure, mechanical moving parts are few, and capacity configuration is flexible; and the single-type electrode liquid is adopted and is in an electrolyte closed cycle, and long-time operation can be achieved only by supplying deionized water.

The invention provides a gear-shifting driving device which comprises an executing mechanism, a rack and a gear shell. The executing mechanism can be driven by a driving mechanism, the rack is linkedwith the executing mechanism, and at least one end of the rack can recoverably deform; the rack comprises a connecting part which is connected with the executing mechanism through a connecting piece,the gear shell is provided with an induction gear, the induction gear is engaged with the rack, and the gear shell is provided with a rail groove containing the rack; and the rail groove is provided with a straight rail section and a take-up and releasing section, the deformation recoverable end of the rack can slide into or out of the take-up and releasing section, and the length of projection ofthe take-up and releasing section on the extending line in the length direction of the straight rail section is smaller than that of a rail. The gear-shifting driving device can be suitable for an existing automatic gearbox with a known structure, and the gear-shifting driving device can achieve the gear-shifting function which is the same as that of an electronic gear shifter as well without technical transformation.

The invention discloses a voltage source inverter parallel control system. The voltage source inverter parallel control system comprises a plurality of voltage source inverter modules connected in parallel; each voltage source inverter module comprises a voltage source, a three-phase inverter main circuit and an LC filter circuit which are connected sequentially; the voltage source inverter modules are further connected to a load with a switch; the system further comprises a current acquiring module, a first voltage acquiring module, a second voltage acquiring module, a reference signal computing module, a phase synchronizing module and a voltage reference signal generating module, as well as a control module used for controlling the switch of the three-phase inverter according to the voltage reference signal, filter inductive current, and a pulse control signal generated according to voltage and carrier voltage output by the voltage source inverter modules. The voltage source inverter parallel control system has higher stability and reliability.