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发表于 2010-3-19 23:48:03
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回复 1# yongzhe578
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" f* p! f% F8 U. T( Z8 B0 B5 D "热稳极限" is a kind of conductor property. You should be able to find it from conductor manuals. Try to not exceeding a conductor's "热稳极限" by running a normal power flow analysis and any other contingency analysis. In simple, don't burn your conductor.
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8 F- d9 o7 D! P' j+ q+ k8 \"静稳极限" could be calculated by ignoring any dynamic models like exiter, governor, stabilizer, etc. Typically this value could be calculated without doing a real time simulation and then it could be provided by an on-line analysis software. 8 @ y7 q) D. R
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"动稳极限", similar to "静稳极限", with control devices like exciter modeled. Both "静稳极限" and "动稳极限" apply to small disturbance.
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"暂稳极限" is used to make sure the system will come back to previous stable state or changed stable state after a big disturbance like a fault, generator disconnection, reclosing. It needs a real time simulation and it is not possible for an on-line analysis software to provide such analysis currently. % a5 S+ O0 d! v$ C& A
: N) f4 o- V: Q+ K/ yMost popular stability analysis software should be able to provide these analysis for you. For theoretical understanding, I would recommend you to read page 133 of professor Ni-Yi-Xin's book "Dynamic Power System Theory and Analysis" which could be found here:
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1 X1 e" n0 J p j"倪以信-动态电力系统的理论和分析.高清晰PDF"
9 {) }8 i$ i9 i: |1 C% |1 L) p https://tech.cepsc.com/viewthread.php?tid=39421&extra=&highlight=%B6%AF%CC%AC%B5%E7%C1%A6%CF%B5%CD%B3%B5%C4%C0%ED%C2%DB%BA%CD%B7%D6%CE%F6&page=1 |
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