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微渦輪發電機運轉模式轉換之動態模擬

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(1)

െᛱⱐᱹヅᑨ⳥ⱧᑁೣⱧဘʠՒ๗ᑁბ

ࣥᆁ壁

೏૒ઝݾՕᖂሽᖲߓ

ၪ ⣬

პྎᔚ࿇ሽᖲิࠠڶৰڍରᕏႚอٵޡ࿇ሽᖲิհᚌរΔࠏڕױࠌشٺڤ ٺᑌऱᗏறΰڕቧ௜ँ௛αΔڂڼ๯ᎁ੡ਢ່ױ౨ګפऱጸۥ౨ᄭհԫΖ،ڶ Կጟሎ᠏ᑓڤΚࡰ୾Εሽጻࠀᜤ֗ڍᖲᑓڤΔ੡Ա౨ଫࠠڼԿጟᑓڤհሎ᠏౨ ԺΔᖲิא P-f Հিᑓڤ൳ࠫਢለࠋऱᙇᖗΔء֮ܛኙຍጟᣊীऱᖲิ܂ሎ᠏

ᑓڤ᠏ངհ೯ኪᑓᚵ։࣫Δ࿨࣠᧩قΔ໢ԫᖲิطࡰ୾ᑓڤ᠏ང੡ሽጻࠀᜤᑓ ڤழΔᄎኙᖲิขسॺൄՕऱᑉኪפ෷ឫ೯ΔۖࠟຝᖲิٵழࠓᜤሽጻழΔኙ ᖲิທګհᓢᚰޓՕΔᓢᚰ࿓৫լ᎝࣍ႚอٵޡ࿇ሽᖲิᔡ࠹Կઌ൷چਚᎽհ णउΖ

〦⼫⥱Řპྎᔚ࿇ሽᖲΕ೯ኪᑓᚵΕሎ᠏ᑓڤ᠏ངΖ

DYNAMIC SIMULATIONS FOR OPERATION MODE TRANSFER OF A MICRO-TURBINE GENERATOR

Chi-Hshiung Lin

Department of Electrical Engineering Kao Yuan University Kaohsiung County, Taiwan 82151,R.O.C.

Key Words: micro-turbine generator; dynamics simulation, operation mode transfer.

ABSTRACT

The micro-turbine generator unit is superior to the traditional synchronous generator unit in many aspects; for example, a variety of fuels (e.g. anaerobic methane) may be used. So it is deemed one of the most promising green power sources. Three modes of operation are available for the unit: island, grid-connected and multi-machine modes. To be able to operate in all three modes, it’s a better choice for the unit to adopt the P-f droop mode of control. For a unit with such a control mode, dynamic simulation analyses for operation mode transfer are made in this paper. It is shown that significant transient power disturbance will be induced when the unit is transferred from the island mode to the grid-connected mode.

When two units simultaneously connect to a grid, the impact on both units will be even more serious. The degree of impact is not less than the impact on a traditional synchronous generator unit that is subjected to a three-phase-to-ground fault.

(2)

ɺȮ  ˛

ᙟထᛩঅრᢝऱ೏ይΔઝݾ٣ၞഏ୮݁ڶ࿇ሽཙזֱ

ூऱઔߒΔࠏڕ֜ၺ౨࿇ሽΕଅԺ࿇ሽΕᗏறሽۃࢨਢპ

ྎᔚ࿇ሽ࿛Ζڇฒڍհ࿇ሽཙזֱூխΔპྎᔚ࿇ሽ๯ᎁ

੡ਢ່ױ౨ګפհጸۥሽᄭհԫΔኙ࣍๺ڍྤऄᄷᒔቃ۷

່೏شሽၦΔԾፋᆵ։ཋऱ࿇୶խഏ୮Δᇘ๻യႃڤ࿇ሽ ᖲڶԫࡳऱܺᣄΔპྎᔚ࿇ሽਢ່ړऱᇞެᙄऄΔۖ׊პ

ྎᔚ࿇ሽᖲิױٵழࠎᚨᑷΕሽࠟጟ౨ᄭΔኙ೏৫೸ᄐ֏

ഏ୮ۖߢΔޓਢॺൄᔞٽ࣍᠔ೃΕள塢Ε塊ᨚΕᄵ৛࿛໱

ࢬΖڂڼΔპྎᔚ࿇ሽآࠐႨؘᓒড࿇୶Δګ੡։ཋڤሽ ᄭ׌ੌհԫΖ

ഏփؾছՈڶዧ࿴౰़ՠᄐֆ׹ދԵპྎᔚ࿇ሽᖲ

ิհၲ࿇Δܓش౰़ش௛ྎᔚᖲݾ๬Δؾছբݙګ 30 kW

֗ 60 kW ࠟጟᖲীΔࠡᗏறױࠌش೏ሒ 7 % H 2 SऱᎨࢤᗏ

௛ࢨ܅ᑷଖΰױ܅ሒ 350 btu/scfαࡑ݃ൽୖ໱ँ௛/ቧ௜ँ

௛ΖᙟထईᏝՂཆ֗٤෺ᄊ֏հყ᝟ᣤૹΔპྎᔚ࿇ሽڇ

؀᨜چ೴ቃ۷ՈᄎດዬഹದΖ 1. െᛱⱐᱹヅ₇⃥ʠከᐉ

ࠢীპྎᔚ࿇ሽߓอڕቹ 1 ࢬقΔ׌૞ץܶ௛ྎᔚ֧

ᚯΕᐒ௛ᑷٌངᕴΕة጖ڤ೏ຒ࿇ሽᖲ֗᙮෷᠏ངᕴΔԫ

౳פ෷પ੡ 25~500 kWΖ

௛ྎᔚ֧ᚯຏൄ੡໢ၗຑ࿨ᚘᜍᖲΕྎᔚᖲ֗࿇ሽᖲ հਮዌΔ़௛طᚘᜍᖲףᚘၞԵᗏᗈ৛ፖᗏற෗ٽᗏᗈΔ ᗏᗈ৛ᙁנ௛᧯ᄵ৫પ 900ƫΔං೯ྎᔚᖲขس᠏ఢᦀ೯

࿇ሽᖲΔྎᔚᖲඈנᐒ௛ᄵ৫પ 600ƫΔᆖᑷڃگᕴቃᄵ ܐ़௛Δ٦ඈ۟ᐒ௛ᑷٌངᕴΖᐒ௛ᑷٌངᕴຏൄ੡௛Ё

ֽੌၦڤΔലژ࣍ᐒ௛հᑷ౨᠏ང੡ᑷֽΔԫ౳ᐒ௛ၞԵ հᄵ৫પ੡ 300ƫΖة጖ڤ೏ຒ࿇ሽᖲຏൄ੡ NdBFe ޗ ᔆΔ᠏ຒڇ 50,000 rpm ۟ 120,000 rpm ၴΔڂڼᙁנሽᚘ

᙮෷ױሒᑇ kHz ؐ׳Ζ᙮෷᠏ངᕴԫ౳ආ AC-DC-AC ਮ ዌΔܛ೏᙮ሽᚘ٣ᖞੌ੡ऴੌሽΔ٦ᆖངੌᕴ᠏ང੡೸ش ߓอ᙮෷ٌੌሽΔۖ׊ຏൄᝫᄎ಻ໂᒵៀंᕴ (Line Filter)

֗ሽ጖եឫៀंᕴ (EMC Filter) ല֊ངᘫंៀೈΖ 2. െᛱⱐᱹヅᑨ₇⃥ʠѭ㔄

პྎᔚ࿇ሽᖲิࠠڶॺൄڍऱᚌរΔࠏڕ᧯ᗨ՛ૹၦ

᎘Κፖࠡה։ཋڤሽᄭઌֺڶઌᅝ՛հ᧯ᗨΔ೏ຒة጖ڤ

࿇ሽᖲΰץܶᖞੌᕴ֗ངੌᕴαհૹၦႛપٵޡ࿇ሽᖲհ

1/5~1/2Δڂڼױڜᇘ࣍ৢືۖլ۾ش़ၴΔ׊լᏁᕡᔚ

ᒣΔᕡᔚᒣ੡೏ਚᎽ෷ցٙΔᏁ૞ᑮᄶ֗ܐথΔۖ׊ॺൄ

ૹΖய෷ॺൄ೏Κᗏற۟ሽԺհ᠏ངய෷ױሒ 25 %~30 %Δ

׊ૉආᐒᑷڃگΔঞᑷΕሽ᜔ࡉհ౨ᄭய෷ױ၌መ 80 %Ζ ኙᛩቼۆ਩՛Κ֚ྥ௛ᖲิڇኔᎾሎ᠏ᒤ໮փΔེ௜֏ढ ΰNOxαհඈ࣋ၦ܅࣍ 10 ppmΖᆖᛎΚߓอګءፖࠡה։

ཋڤሽᄭઌֺΔࠠڶઌᅝᤁञᚌႨΖᗏறڶᐘࢤΚױࠌش

ߧ 1 െᛱⱐᱹヅ₇⃥ከᐉ

ڍጟᙇᖗࢤᗏறΔࠏڕ֚ྥ௛Εׇ≇ΕᅁईΕ޳ईΕ௎ईΕ

಺壄Εسᔆ౨࿛Ζೈڼհ؆Δპྎᔚ࿇ሽᖲߓอڇࢤ౨Ղ ޓࠠڶରᕏႚอٵޡ࿇ሽᖲߓอհᚌរΚ

(ԫ) אངੌᕴ൳ࠫऱᙁנΔ᙮෷᡹ࡳࢤॺൄ೏Δ܅࣍ 0.05 Hz᧢೯Δԫ౳՛ীٵޡᖲ࣍՛ߓอຑ൷ழ᧢೯ၦ೏ሒ

0.2 HzΔՕীٵޡᖲ࣍Օߓอຑ൷ழ᧢೯ၦՈڶ 0.03

HzΖ

(Բ) ٵޡ࿇ሽᖲԫ౳ႛ౨୲ݴլ၌መ 10 %հլؓᘝΔპྎ

ᔚ࿇ሽᖲߓอאᖞੌᕴ֗ངੌᕴሶᠦ೏ຒة጖ڤ࿇ሽ ᖲፖ૤ሉΔڂڼܛࠌ೏ሒ 50 %հ૤ሉլؓᘝΔՈ౨ፂ

਍܅࣍ 3 %հሽᚘᘫंեឫΖ

(Կ) ॺᒵࢤ૤ሉขسհᘫंሽੌ࣐ທګႚอٵޡ࿇ሽᖲิ

հ޳ᖲᆺׂ೏᙮஡೯Δ܀პྎᔚ࿇ሽᖲߓอڶᖞੌᕴ

֗ངੌᕴ܂ሶᠦΔݙ٤լᄎڶ޳ᖲᆺׂ஡೯հംᠲข سΖ

(؄) ႚอٵޡ࿇ሽᖲิ࣐ڂਚᎽሽੌመՕۖᗈᄤᒵഎࢨࠌ

᠏ၗڶށឰհٲᙠΔპྎᔚ࿇ሽᖲߓอط࣍ᆖطངੌ

ᕴ൳ࠫΔױࠌ೏ຒة጖ڤ࿇ሽᖲհਚᎽሽੌૻࠫ࣍ԫ

ࡳᒤ໮փΰԫ౳੡ 1.4~2.0 puαΔڂۖ౨ᝩ܍ຍࠄٲ ᙠΖ

(ն) ೏ຒة጖ڤ࿇ሽᖲࠠڶֺႚอٵޡ࿇ሽᖲޓ೏հඔ೯ ౨Ժΰપ 1.8~2.5 ଍αΔࠏڕ 100 hp ್ሒط 400 kW ೏ ຒة጖ڤ࿇ሽᖲܛױඔ೯ΔۖլທګመՕհሽᚘೂᡩΖ 3. െᛱⱐᱹヅᑨ₇⃥ʠᶇἄ᫠ᗼ

(ԫ) ೯ኪᑓী

პྎᔚ࿇ሽᖲߓอհ೯ኪᑓী२Լڣࠐڇ IEL ႛנ෼

֟ᑇ༓ᒧΔ֮᣸[1]ଈ٣༼נ១໢հᒵࢤ֏პྎᔚ࿇ሽ ᖲᑓীΔᓳຒᕴ֗ྎᔚᖲຟ׽אԫၸ᠏ངࠤᑇ२ۿΔ

࿇ሽᖲאإֺ࣍᠏ຒհტᚨሽᚘ।قΔᖞੌᕴ೗๻੡

ࡳሽੌ૤ሉհԿઌ٤ंᖞੌΔ٦אྤჾ؈ߓอ੡ছ༼

طᖲሽפ෷ຑ࿨ᖲඳߓอፖሽԺߓอΖ

֮᣸[2]א MatLab-Simulink-PSB ৬مݙᖞհპྎᔚ࿇

ሽᖲߓอΔპྎᖲᑓীঞ೶ە௛ྎᔚᖲᑓী৬م

[3~7]Δຒ৫൳ࠫ֗ᗏற൳ࠫ݁ץਔڇփΔ܀ᄵ৫൳ࠫ

ঞ ๯ ࢙ ฃ Δ ࿇ ሽ ᖲ Ε ᖞ ੌ ᕴ ֗ ང ੌ ᕴ ঞ ຟ ආ ش MatLab-Simulink-PSB୚ᇘᑓীΔࠡխངੌᕴհ൳ࠫආ ౧ᐈᓳ᧢ (PWM) ֱڤΔࠀאֺࠏᗨ։൳ࠫᕴ (PI

Controller) ൳ࠫΔᖞ᧯ᑓীբᔞٽᇡา೯ኪ۩੡հᑓ

ᚵ։࣫౨ԺΖ܀ءᑓীႛ৬مࡰ୾ሎ᠏ᑓڤΔٍܛڇ

(3)

ࡐࡳ᙮෷ՀΔ൳ࠫ૤ሉሽᚘΔኙࠡהᑓڤհሎ᠏ࠀྤ

ᑓᚵ౨ԺΖ

֮᣸[8]ഗءՂऎ᦭[2]հᑓীΔ܀ނᄵ৫൳ࠫ౏Եᑓী

փΔࠡᑓীսႛ৬مࡰ୾ሎ᠏ᑓڤΔ൫ངੌᕴհሽᚘ

൳ࠫආش௽ࡳᘫं௣ೈ౧ᐈᓳ᧢(Specific Harmonic Elimination PWM)൳ֱࠫڤΖ

ऴ່ࠩ२༓ڣΔݙᖞऱპྎᔚ࿇ሽᖲߓอ೯ኪᑓীթ ດዬ๯࿇୶נࠐΔ֮᣸[9]ᇡาಘᓵԱ᠏ངሽሁᑓীΔ ࠀ܂Աԫߓ٨೯ኪᑓᚵΔ֮᣸[10]ലპྎᔚᖲΕ࿇ሽ ᖲ֗᠏ངሽሁຟᐊګ MatLab-Simulink-PSB ᑓิΔ௅

ᖕᏁޣ౨৬مࠀᑓᚵլٵणउհ೯ኪ᥼ᚨΔ֮᣸[11]

ঞ࿇୶נ່ݙᖞऱპྎᔚ࿇ሽᖲߓอ೯ኪᑓীΔ౨ట إᑓᚵᖲิհࡰ୾֗ࠀᜤ೯ኪ᥼ᚨΖ

(Բ) ᘫंեឫ

პྎᔚ࿇ሽᖲߓอط࣍ආشངੌᕴലऴੌᢸሽᚘ᠏ང

੡ߓอ᙮෷ሽᚘΔܛࠌբ಻ᆜᒵៀंᕴΔսژڇઌᅝ ᣤૹհᘫंംᠲΖ֮᣸[12]ኔྒྷԫຝ 480 VΕ30 kW პ

ྎᔚ࿇ሽᖲิངੌᕴᙁנհᘫंΔ࿨࣠࿇෼ऴ൷ຑ൷ ழ᜔ሽᚘᘫंեឫ່೏ሒ 2.6 %Δ᜔ሽੌᘫंեឫ່

೏ሒ 67 %Δࠡխ 7 ڻᘫंեឫ່ᣤૹሒ 40 %Ζૉᆖ

᧢ᚘᕴຑ൷ঞሽੌᘫंեឫ່೏ሒ 47 %Δឈྥ૾܅܀

սઌᅝՕΖᘫंեឫᙟ૤ሉ྇᎘ۖყݮᣤૹΔ܀ܛࠌ ᠰࡳሎ᠏Հսڶ 12 %հሽੌᘫंեឫΖ֮᣸[8]༼נא ᙊႚዝጩऄ (Genetic Algorithm) ๻ૠᑓᒫ൳ࠫᕴ (Fuzzy Controller) ൳ࠫ PWM ངੌᕴΔ᎘ሉழࠌ 7 ڻ ᘫंط 20 %૾۟ 5 %ΖլመՂ૪֮᣸ࢬઔߒऱຟਢֺ

ለ۔៱ऱᖲิΔለᄅऱᖲิհᘫंեឫբ޲ຍᏖᣤૹ [13]Ζ

პྎᔚ࿇ሽᖲೈԱኙߓอࣹԵᘫंΔࠡ࿇ሽᖲࡳ՗៥

ิءߪՈٵᑌᔡ࠹ሽੌᘫंհ୭Δڼᘫंطք౧ंᖞ

ੌᕴ֧ದΔᘫंեឫڇຝ։૤ሉՀყݮᣤૹΔڂڼΔ ڇࡰ୾ሎ᠏Հႊ௽ܑࣹრΔშ߻ࡳ՗៥ิᗈᄤΖ׼ԫ

ֱ૿ࠐ઎Δૉ౨૾܅࿇ሽᖲࡳ՗៥ิհሽੌᘫंե ឫΔঞ࿇ሽᖲലױ՛ী֏Δڶܗ࣍࿇ሽᖲհ೏ຒሎ᠏Ζ

֮᣸[14]ܛܓشඔ೯ངੌᕴΔലࠡ๻ૠ੡׌೯ៀंᕴ אލࠫࡳ՗៥ิհሽੌᘫंΔڂ੡ඔ೯ངੌᕴ੡ࡐڶ

಻ໂΔڂڼլᏺףٚ۶ګء੡່ࠡՕᚌរΔ܀ඔ೯ང

ੌᕴ୲ၦႛપᖲิհ 10 %Δޏ࿳౨Ժ࠹ૻΖ֮᣸[15]

ঞݙ٤࣋ඵք౧ंᖞੌᕴۖޏش PWM ᖞੌᕴא྇᎘

࿇ሽᖲࡳ՗៥ิሽੌᘫंեឫΔய࣠ᚌฆΔլመᄎࠌ ګءڂۖ༼೏Ζ

(Կ) פ෷൳ࠫᕴ๻ૠ

։ཋڤሽᄭհפ෷൳ࠫᕴՕຟאࡐࡳऴੌሽᚘᄭհང

ੌᕴ੡๻ૠਮዌΔ֮᣸[16]ֺለԱԿጟࠢীֱڤΔࠡ

ԫ ੡ ኲ ं ᕴ ಻ ٽ ሽ ੌ ൳ ࠫ ሽ ᚘ ᄭ ང ੌ ᕴ հ ਮ ዌ (DC-DC ChopperϟCC-VSI)ΔࠡԲ੡ሴੌ᧯ངੌᕴ಻

ٽᇖᚍᕴհਮዌ (SCR INVϟCompensator)ΔࠡԿ੡إ

࢐౧ᐈᓳ᧢ሽᚘᄭངੌᕴհਮዌ (SPWM-VSI)Δ൳ࠫ

ऄঞഗءՂຟਢᆖط൳ࠫངੌᕴሽੌઌߡ֗Օ՛ࠐ൳

ࠫڶய֗ྤயפ෷Δᔞٽߓอࠀᜤᑓڤሎ᠏Ζ

֮᣸[17]ڇઊฃᘫंΕլؓᘝΕ࿇ሽᖲ೯ኪΕߓอ೯ ኪ֗ආش෻უ֊ངၲᣂᑓڤՀΔ༼נຏشհ൳ࠫᕴᑓ ڤΔࠌངੌᕴհছٻ൳ࠫᕴ֗ڃ඄൳ࠫᕴࠫڤ֏Δࠀ ڇ່৵אլᒔࡳၦലছ૪೗๻ᠾᆙΖ

ഄԫലპྎᔚ࿇ሽᖲᑓী౏Եפ෷൳ࠫᕴ๻ૠृ׽ڶ

֮᣸[1]Δլመڕছࢬ૪ࠡპྎᔚ࿇ሽᖲᑓীႛַ࣍ᄕ ១֏ᑓীΔ܀ଖ൓ࣹრऱਢࠡ൳ࠫᕴհ๻ૠආشٻၦ

൳ࠫΔլٵ࣍ࠡהආొၦ൳ࠫृΖ

פ෷൳ࠫᕴೈՂ૪ආ AC-DC-AC ृ؆ΔՈڶආش

AC-AC ृΖ֮᣸[18]༼נආشٌੌٌ۟ੌ᠏ངᕴ

(Cycloconverter) հਮዌΔࠀאٻၦ൳ֱࠫڤ൳ࠫڶய

֗ྤயפ෷Ζ

֮᣸[19]༼נఢೄ᠏ངᕴ (Matrix Converter) ਮዌΔኙ ԫଡԿઌᙁԵ/ԿઌᙁנߓอΔױࠌش 9 ଡٌੌၲᣂሒ ګΔࠡࠀආش 3 ڻᘫंࣹԵࠌ່Օሽᚘ᠏ང෷ሒ

0.866Δ੡ᆏઊၲᣂ֊ངհૠጩழၴΔආ़ၴٻၦᓳ᧢

(SVM) ֱڤΔࢤ౨֗ய෷݁ᚌ࣍ൄشհ AC-DC-AC

ਮዌΔױ൦֜መᓤᠧΖ (؄) ሎ᠏ᑓڤ֊ང

პྎᔚ࿇ሽᖲߓอլ׽ױ܂੡ֆش్ሽᄭΔٍױ܂੡

ጹ৺ሽᄭࢨໂشሽᄭΔ๺ڍ໱ٽݦඨᖲิٵழࠠڶࠟ

ጟפ౨Δ܀ڼԲृհ൳ࠫഗءՂਢլٵऱΔᅝ܂੡ֆ ش్ሽᄭழΔؘႊፖߓอٵޡΔڼழᖲิႊ੡ڶய/

ྤயפ෷൳ࠫᑓڤ (P-Q Controlled Mode)Δᅝ܂੡ໂ شሽᄭழΔᖲิؘႊ૤ᖜ૤ሉᏁၦ֗֘ᚨ૤ሉ᧢೯Δ ڼ ழ ᖲ ิ ႊ ੡ ࡐ ࡳ ᙮ ෷ ֗ ሽ ᚘ ൳ ࠫ ᑓ ڤ (f-V

Controlled Mode)ΔڂࠟጟᑓڤࢬᏁၦྒྷ֗൳ࠫհ೶ᑇ

լٵΔᖲิԫ౳ྤऄٵழش࣍ࠟጟشຜΖ

֮᣸[20]ԯ༼נԫጟᜤٽ൳ࠫᕴΔࠡփಱሁ੡૤ሉሽ ᚘ൳ࠫΔ؆ಱሁ੡פ෷ᑪੌ൳ࠫΔ؆ಱሁڇߓอࠀᜤ ሎ᠏ழ೯܂Δ൳ࠫངੌᕴ༼ࠎڶய֗ྤயפ෷Δᅝߓ อࠎሽሂๅࠌᖲิݮګࡰ୾ሎ᠏ழΔ؆ಱሁ൳ࠫᕴᙁ נ堷ࡉۖ؈װפشΔڼழ׽ໍփಱሁ೯܂Δܛངੌᕴ

۞೯ط P-Q ൳ࠫᑓڤ᠏ང੡ f-V ൳ࠫᑓڤΖڼীᜤٽ

൳ࠫᕴ౨༼ࠎᖙ܂ᑓڤၴհྤᜓ᠏ང੡ࠡᚌរΔ܀ᖲ

ิፖߓอႊյઌٌངᇷಛΔڂڼؘႊ੡խ؇൳ࠫΔᔞ ٽᖲิႃխ໱ٽΖ

ኙ࣍ᖲิ։ཋ໱ٽΔط࣍ᖲิၴٌངᇷಛլ࣐Δխ؇

൳ࠫࠀլᔞٽΖ֮᣸[21]ԯ༼נᣊۿՕীٵޡᖲิհ Հি൳ࠫᑓڤ (Droop Mode)Δࠌངੌᕴհ൳ࠫ׽Ꮑၦ

ྒྷءߪפ෷֗ሽᚘΕሽੌܛױΔլႊፖࠡהᖲิٌང ᇷ ಛ Δ ۖ ׊ ᖲ ิ ױ ᙟ რ ሎ ᠏ ࣍ ࡰ ୾ ᑓ ڤ (Island Mode)Εሽጻࠀᜤᑓڤ (Grid-connected Mode) ֗ڍᖲ ᑓڤ (Multi-machine Mode)Δլႊᠰ؆൳ࠫ೯܂Ζڼ

ীՀি൳ࠫᑓڤࠠڶፖՕীٵޡᖲิઌٵհ௽ࢤ੡ࠡ

ᚌរΔ܀᙮෷ྤऄፂ਍ࡐࡳΔ׊᥼ᚨለኬྤऄ܂੡ඕ

(4)

Speed/Load Reference

W(xs+1) ys+z

N V

V

V w(xs+1)

⠧ɺ ҤࠣെᛱⱐᑨⱧⳌ/⪭ⰶ࿳Ӽ₇⃥ᑁࠣאᄲ

ᖲิ 1 2 3 4 5 w 25 30 31.09 45 26.02 x 0 0 1.059 1.25 3.213 y 0.05 0.05 3.05 2.5 5

z 1 1 1 1 1

V FD-MAX 1.5 1.75 1.77 1.6 1.34

V FD-MIN -0.1 -0.26 -0.17 -0.1 -0.2

⠧ʷ Ҥࠣെᛱⱐᑨᥣᅆ࿳Ӽ₇⃥ᑁࠣאᄲ

ᖲิ 1 2 3 4 5

K3 0.77 0.68 0.725 0.76 0.716

T 0 0 0 0 0

a 1 1 1 1 1

b 0.05 0.05 0.05 0.05 0.2

c 1 1 1 1 1

Tf 0.4 0.2 0.2 0.2 0.1

Kf 0 0 0 0 0

ECR 0.01 0.01 0.01 0.01 0.01 TCD 0.1 0.2 0.2 0.2 0.2

af -0.299 -0.47 -0.359 -0.316 -0.396 bf 1.3 1.47 1.38 1.316 1.396 cf 1.5 0.5 0.5 0.5 0.5

ტ૤ሉհໂشሽᄭΔڼ੡ࠡ׌૞౒រΖ

Ղ૪Բ֮᣸੡ႛڶհሎ᠏ᑓڤ֊ངઔߒΔ܀ຟ࢙ฃპ

ྎᔚ࿇ሽᖲᑓীΔۖ೗๻ངੌᕴطࡐࡳऴੌሽᚘᄭࠎ ሽΔຍጟ೗๻ࠃኔՂڶࠡ౒؈Δࠏڕპྎᔚ࿇ሽᖲհ ೯ኪ᥼ᚨՈઌᅝݶΔլߠ൓౨࢙ฃࠡ܂شΔۖ׊່ૹ

૞ऱਢڇຍጟ೗๻ՀΔྤऄ൓वሎ᠏ᑓڤ֊ངኙპྎ

ᔚ࿇ሽᖲิհᐙ᥼Ζ (ն) ෗ٽሎ᠏

່२ᖂ੺ດዬᣂࣹპྎᔚ࿇ሽᖲิፖࠡה։ཋڤ࿇ሽ ᖲิհ෗ٽሎ᠏ംᠲΔࠏڕ֮᣸[22]܂ԱԫଡଅԺᖲ

ิፖპྎᔚᖲิ෗ٽሎ᠏ऱଡூઔߒΔ֮᣸[23]֗[24]

ঞ൶ಘᗏறሽۃᖲิፖპྎᔚᖲิ෗ٽሎ᠏ऱ᡹ࡳ৫

ംᠲΔլመຍࠄઔߒຟᝫ׽ਢದޡၸ੄Δᙟထპྎᔚ

࿇ሽᖲิऱګᑵΔ෗ٽሎ᠏ലਢຍԫᏆ഑آࠐऱઔߒ ૹរΖ

ʷȮ₇⃥ᑁࠣ

ء֮א MatLab-Simulink-PSB ኔ෼პྎᔚ࿇ሽߓอհ ᖞ᧯ᑓীΔץਔპྎᔚᖲᑓীΕة጖࿇ሽᖲᑓীΕ᙮෷᧢

ངሽሁᑓীΕ૤ሉᑓীΕៀंᕴᑓীΕऴੌᢸሽᚘ൳ࠫᑓ

ীΕངੌᕴפ෷൳ࠫᑓী࿛Δࠡխ᙮෷᧢ངሽሁΕ૤ሉΕ

ៀंᕴ࿛ڂױආش୚ᇘᑓীΔլ٦ᇡ૪Δࠡהຝ։ঞ։૪ ڕՀΖ

⠧ɿ ᖝᷬೣᱹヅᑨאᄲ

R () 0.17

Ld (mH) 1.9

Lq (mH) 1.9

p 4

λ (wb) 1.629

ߧ 2 ⱧⳌ/⪭ⰶ࿳Ӽ₇⃥ᑁࠣ

ߧ 3 ᥣᅆ࿳Ӽ₇⃥ᑁࠣ

1. െᛱⱐᑨᑁࠣ

პྎᔚᖲᑓীױط؄ଡ׌૞൳ࠫߓอࠐ༴૪Δ։ܑ੡

᠏ຒ/૤ሉ൳ࠫߓอΕᄵ৫൳ࠫߓอΕඔ೯൳ࠫߓอ֗ᗏற

൳ࠫߓอΖࠡխᄵ৫൳ࠫߓอ֗ඔ೯൳ࠫߓอط࣍լڇء

֮൶ಘᒤ໮փΔڂڼլף᠇૪Ζ (ԫ) ᠏ຒ/૤ሉ൳ࠫߓอᑓী

ࠢীპྎᔚᖲհ᠏ຒ/૤ሉ൳ࠫᕴ (Governor) ڶࠟጟ

ীڤΔ։ܑ੡ GE Speedtronic ীڤ֗ Woodward ীڤΖ ء֮ආছृΔڕቹ 2 ࢬقΔᓳᖞ z ױګ੡ Droop ࢨ Isochronousᑓڤሎ᠏ (1ΚDroop ModeΕ0ΚIsochronous

Mode)ΔwΕxΕy ։ܑ੡ᏺ墿֗Ꮖ٣Εᆵ৵ழၴൄᑇΔ

ᙁԵ੡᠏ຒ/૤ሉᏁၦ֗᠏ຒ (N)Δᙁנ੡ᗏறᏁၦ ಛᇆ (VFD)Ζ।ԫࢬ٨੡ 5 ຝࠢীპྎᔚᖲᑓীհ೶

ᑇΔࠡխ 1 ᇆᖲ੡ء֮ઔߒᖲิΖ (Բ) ᗏற൳ࠫߓอᑓী

ࠢীᗏற൳ࠫߓอਮዌڕቹ 3 ࢬقΔᑓী೶ᑇ٨࣍।

ԲΖط᠏ຒ/૤ሉ൳ࠫᕴΕᄵ৫൳ࠫᕴ֗ඔ೯൳ࠫᕴᙁ נհᗏறᏁၦಛᇆ܂ֺለΔط܅ଖᙇᖗၲᣂ࠷ࠡ՛ृ

(5)

ߧ 4 ᳅ᙟ⽣ヅࣱ࿳Ӽ₇⃥ᑁࠣ

ߧ 5 ဘᙟݽ SPWM ʁࠡ࿳Ӽᑁࠣ

੡ᗏறᏁၦಛᇆΔֱჇ 1 ੡ Governor ࢏ᙈΔֱჇ 2 ੡

൳ࠫᎺ೯ኪΔֱჇ 3 ੡ᗏறߓอ೯ኪΔֱჇ 4 ੡ᗏற ߓอհڃ඄ൄᑇΔᖞ᧯ᗏறߓอᙁנ੡ᗏறੌၦ೯ኪ ಛᇆΰwfαΔֱჇ 5 ੡ᗏᗈᕴ࢏ᙈΔֱჇ 6 ੡௛ྎᔚ ᖲ೯ኪΔֱჇ 7 ੡௛ྎᔚᖲ᠏ఢขسࠤᑇΖ

2. ᖝᷬೣᱹヅᑨᑁࠣ

ء֮ආش MatLab-Simulink-PSB ୚ᇘة጖ڤ࿇ሽᖲᑓ

ীΔຍਢԫଡ᠏՗೶ەၗհԲၸणኪᑓীΔ೯ኪֱ࿓ڤڕ ՀࢬقΔ೶ᑇঞ٨࣍।ԿΖ

ሽᖲֱ࿓ڤΚ

q d q d d d d

d pNi

L i L L v R i L

dt

d = 1 +

ΰ1α

q d q d q q q q

q L

pNi pN L i L L v R i L dt

d = 1 λ

ΰ2α

᠏ఢֱ࿓ڤΚ

( )

e 1.5 q d q d q

T = pλi + L L i i

ΰ3α

ᖲඳֱ࿓ڤΚ

(Te DN Tm)

N J dt

d = 1

ΰ4α

dt N

d θ= ΰ5α

ߧ 6 െᛱⱐᑨՒ๗ㅨະ

3. ᳅ᙟ⽣ヅࣱ࿳Ӽ₇⃥ᑁࠣ

პྎᔚ࿇ሽߓอհऴੌᢸሽᚘ൳ࠫፖଅԺ࿇ሽᖲิ

ࢨᗏறሽۃิฃڶլٵΔ৵ԲृՕીຟආشԫ్ࣙᚘڤኲ

ंᕴᓳᖞऴੌᢸሽᚘΔ܀პྎᔚ࿇ሽߓอঞലऴੌᢸሽᚘ ڃ඄۟პྎᔚᖲհ᠏ຒ/૤ሉ൳ࠫᕴΔڕቹ 4 ࢬقΔطპྎ

ᔚᖲհຒ৫൳ࠫፂ਍ऴੌᢸሽᚘհ᡹ࡳΖ 4. ဘᙟݽ࿳Ӽᑁࠣ

੡Ա౨൶ಘٺጟլٵᑓڤհሎ᠏Δء֮ආشՀিᑓڤ հ SPWM ൳ֱࠫڤΔਮዌڕቹ 5 ࢬقΔ൳ࠫᕴᙁנ੡ᓳ᧢

ਐᑇ m ֗ઌߡµΔಬ۟ SPWM ขسᕴขسᤛ࿇౧ंΖઌ ߡµڇإൄणउՀਢط P-f հՀি௽ࢤެࡳΔ܀ਢᅝᖲิ

פ෷ᙁנሒ່ࠩՕૻࠫଖழΔ֊ང່۟Օפ෷൳ࠫᑓڤΖ

ۖᓳ᧢ਐᑇ m ڇإൄणउՀਢطሽᚘ൳ࠫެࡳΔ܀ਢᅝᙁ נሽੌሒ່ࠩՕૻࠫଖழΔ֊ང່۟Օሽੌ൳ࠫᑓڤΖ

ຍጟངੌᕴ൳ࠫᑓڤྤᓵਢڇᖲิࠓᜤሽጻࢨਢڍ ᖲյᜤຟࠠڶ۞೯ٵޡऱפ౨Δڂ੡ SPWM ขسᕴขسհ إ࢐ᓳ᧢ಛᇆڕՀࢬقΔ

[ ]( )t

m

vm = ×sinµ ΰ6α

ᅝࠟᖲࠀᜤሎ᠏ழΔޢԫᖲิࠉࠡՀি௽ࢤ։಻૤

ሉΔૉԫᖲิհ᙮෷೏࣍׼ԫᖲิΔࠡጤሽᚘઌߡ஁ᏺՕΔ ᄎࠌᖲิפ෷ᙁנᏺՕΔڕՀࢬقΔΰ೗๻ EΕV ੡ࠟጤሽ ᚘΔµEΕµV੡ࠟጤሽᚘઌߡΔX ੡ࠟጤၴհሽݼα

[ E V]

X

P= EV sinµ −µ ΰ7α

ࠉᖕՀি௽ࢤΔڼലࠌ᙮෷૾܅Δڂڼࠟᖲല۞೯ٵ ޡΖٵᑌऱΔڇᖲิࠓᜤሽጻழΔᖲิᄎ۞೯ፖሽጻٵޡΔ ڇڍᖲյᜤழΔᖲิၴՈᄎ۞೯ٵޡΖ

ɿȮ⳥ⱧᑁೣⱧဘՒ๗ᑁბӠኔ

1.5

1

0.5

0

1.5

1

0.5

0

1.5

1

0.5

0

0.5

1

0.98

0.96

0.94

time-sec time-sec

time-sec time-sec

0 10 20 30 0 10 20 30

0 10 20 30 0 10 20 30

Fuel Demand Turbine Torque Fuel FlowSpeed

(6)

1500

1000

500

0

-500

2000

1000

0

-1000

-2000

1000

500

0

-500

-1000

1.4 1.2 1 0.8 0.6 0.4

time-sec time-sec

time-sec time-sec

0 0.5 1 1.5 0 0.5 1 1.5

0 0.5 1 1.5 0 0.5 1 1.5

time-sec time-sec

time-sec time-sec

0 0.5 1 1.5 0 0.5 1 1.5

0 0.5 1 1.5 0 0.5 1 1.5

VdcVab (load) Vab (inverter) Modulaton-Index

3 2 1 0 -1 -2 -3

3

2

1

0

-1 2

1

0

-1 -2

1.02 1.015 1.01 1.005 1 0.995

Ia-pu Speed-pu Va-puElectric Power-pu

1 0.5 0 -0.5 -1

lnput :

Signal numbert :

Start time [s] : Number of cycles :

Fundamental frequency [Hz] :

Max Frequency [Hz] :

Frequency axis :

Display style : 0.2 0.2002 0.2004 0.2006 0.2008 0.201 0.2012 0.2014 0.2016

Time (s)

Fundamental (1200Hz) = 0.6556 , THD = 16.67%

FFT window: 2 of 1800 cycles of selected signal

0 1 2 3 4 5 6 7 15

10

5

0

Mag (% of Fundamental)

Frequency (Hz) X 104

0.4 0.2 0 -0.2 -0.4

lnput :

Signal numbert :

Start time [s] : Number of cycles :

Fundamental frequency [Hz] :

Max Frequency [Hz] :

Frequency axis :

Display style : 1.2 1.2002 1.2004 1.2006 1.2008 1.201 1.2012 1.2014 1.2016

Time (s)

Fundamental (1200Hz) = 0.3047 , THD = 22.23%

FFT window: 2 of 1800 cycles of selected signal

0 1 2 3 4 5 6 7 20

15

10

5

0

Mag (% of Fundamental)

Frequency (Hz) X 104

iso_fixfreq_scope2

la

1 0.2 2 Display FFT window

1200

70000

Hertz

Bar (relative to Fund. or DC)

Display Close

iso_fixfreq_scope2

la

1 1.2 2 Display FFT window

1200

70000

Hertz

Bar (relative to Fund. or DC)

Display Close Structure :

Structure :

ߧ 7 ગ஌⳥Ⱨᑁೣʠ₇⃥ከᐉ

ߧ 8 ગ஌ᑁೣ⪭ⰶӡဘᆹʠՒ๗ㅨະŘ(a) ဘᙟݽ ϳȮ(b) ᱹヅᑨϳ

1. െᛱⱐᑨՒ๗ㅨະ

პྎᔚᖲ೯ኪᑓীط᠏ຒ/૤ሉ൳ࠫߓอፖᗏற൳ࠫ

ߓอᑓীᖞٽۖګΔףՂ૤ሉܛױ൶ಘࠡ೯ኪ᥼Δ೯ኪֱ

࿓ڤڕՀΚ

(P P ) DN

dt

H dN = mech elec +

2 ΰ8α

ࠡխ H ੡᠏՗ክၦൄᑇΰ௛ྎᔚᖲΕ࿇ሽᖲ֗ᚘᜍᖲ հ᜔ٽαΕD ੡ॴ؍এᑇΔN ੡᠏ຒΔPmech֗Pelec։ܑ੡

პྎᔚᖲᙁנᖲඳפ෷֗࿇ሽᖲᙁנሽפ෷Ζ

ءઔߒᖲิ H ੡ 8.22 sΕD ੡ 0.1 N-m-s/radΔᑓᚵழ

೗๻ 0 ઞழףԵ໢ۯޡၸ૤ሉሽפ෷Δ15 ઞழ૤ሉ૾੡ 0.5 puΖቹ 6 ੡೯ኪᑓᚵ࿨࣠ΔփܶᗏறᏁၦΕᗏறੌၦΕྎ

ᔚᖲ᠏ఢ֗᠏ຒΔطቹױवΔ᡹ࡳழၴપᏁ 5 ઞؐ׳Ζ 2. ગ஌⳥ⱧᑁೣՒ๗ㅨະ

ቹ 7 ੡൶ಘპྎᔚ࿇ሽᖲࡰ୾ሎ᠏հਮዌቹΔ250

kVA/1200 Hz პྎᔚ࿇ሽᖲิᙁנᆖᖞੌΕៀं৵ಬԵ

ߧ 9 ᱹヅᑨヅᙟᘘഐד㆒⨲Ř(a) ֲⰶԊȮ(b) ֲⰶര

ߧ 10 ࿳Ӽݽʠ MatLab-Simulink-PSB Ễೣ

IGBTิګհངੌᕴΔངੌᕴࡐࡳא 50 Hz ሎ᠏Δطሽᚘᓳ ᖞᕴ൳ࠫڇ 380 V ۯᄷΔᙁנᆖ LC ሽሁៀൾ೏᙮եឫΔ ࠎᚨࠟಱሁٺ 100 kW հ૤ሉΔࠡխԫಱሁطឰሁᕴ൳ࠫΔ ڇ 0.3 ઞழല 100 kW ૤ሉ࠵ೈΔאᑓᚵ૤ሉ᧢೯հ೯ኪ᥼

ᚨΖ

ࡰ୾ᑓڤ૤ሉ֊ངழհ೯ኪ᥼ᚨڕቹ 8 ࢬقΔ(a)੡ང

ੌᕴೡհ᥼ᚨ (ץܶऴੌᢸሽᚘΕངੌᕴᙁנᒵሽᚘΕ૤

ሉሽᚘ֗ PWM հᓳ᧢ਐᑇ)Δ(b)ঞ੡࿇ሽᖲհ᥼ᚨ (ץܶ

AઌሽੌፖሽᚘΕ᠏ຒ֗ሽפ෷)ΔطቹױवΔሽߓอհ᥼

ᚨॺൄݶຒΔ᡹ࡳழၴ᎛᎛՛࣍ᖲඳߓอΔڂڼΔڇ൶ಘ პྎᔚ࿇ሽᖲࡰ୾ሎ᠏೯ኪ᥼ᚨழΔ࢙ฃპྎᔚᖲհ೯ኪ ਢٽ෻ऱΖ

ط࣍ྎᔚᖲ᥼ᚨለኬΔطቹױ઎נΔڇ࠵ሉழΔऴੌ

ሽᚘۯᄷؘ༼೏אᇖᚍᖲሽ౨ၦհؓᘝΔՈڂڼངੌᕴᙁ

1

3

3

Pe f(u) p2f Vabc (pu)

Freq

Freq wt sin_cos

2

0 abc sin_cos abc_to_dq0 Transformation

Vd_ref (pu)

Vq_ref (pu) Selector Vd Vq

P1

Discrete P1 Controller

Vd Vq inverter 0 VO

1 2 m

Vabc_inv hypot modulation index

dqo sin_cos abc Dq0_to_abc Transformation

(7)

1500

1000

500

0

1500

1000

500

0

2000 1000

0

-1000

-2000

1.5

1

0.5

0 0 0.5 1 1.5 2 2.5

VdcVab(load) Vab(inverter)Modulation Index

0 0.5 1 1.5 2 2.5

0 0.5 1 1.5 2 2.5 0 0.5 1 1.5 2 2.5

0 0.5 1 1.5 2 2.5 0 0.5 1 1.5 2 2.5

0 0.5 1 1.5 2 2.5 0 0.5 1 1.5 2 2.5 4

2

0

-2

-4

1.02

1

0.98

Ia-pu Speed-pu

4

2

0

-2

-4

Va-pu

4 3 2 1 0 -1

Electric Power-pu

time-sec

time-sec time-sec

time-sec time-sec

time-sec time-sec

time-sec

52

51.5

51

50.5

50

49.5

49

48.5

48

Frequency-Hz

0 0.5 1 1.5 2 2.5 time-sec

4 3 2 1 0 -1

Electric Power-pu

0 0.5 1 1.5 2 2.5

52

51

50

49

48

Frequency-Hz

0 0.5 1 1.5 2 2.5 time-sec

time-sec

ߧ 11 ગ஌/ʏ⊓⳥ⱧᑁೣⱧဘʠ₇⃥ከᐉ

ߧ 12 ગ஌/ʏ⊓⳥ⱧᑁೣⱧဘʠ MatLab-Simulink- PSBỄೣ

ߧ 13 ગ஌/ヅℐʏ⊓ᑁೣⱧဘᆹʠՒ๗ㅨະŘ(a) ဘ ᙟݽϳȮ(b) ᱹヅᑨϳ

נሽᚘۯᄷՈᇿထ༼೏Δ܀ڼழሽᚘᓳᖞᕴലᓳ᧢ڂᑇط 0.82ᓳ૾੡ 0.62Δࠌ૤ሉሽᚘԫऴፂ਍᡹ࡳΔ࿇ሽᖲֱ૿

ঞطሽפ෷᥼ᚨױ઎נΔڇ༓׏՛࣍ 0.1 ઞփط 0.8 pu ૾

۟ 0.6 pu ֘ᚨ૤ሉհޏ᧢Δ׊ࠀྤ᧩ထऱᑉኪឫ೯ขسΖ

ߧ 14 ગ஌/ヅℐʏ⊓ᑁೣⱧဘᆹᱹヅᑨ⃅㆒᪓Ւ๗ㅨະ

ߧ 15 ᅠ 32 ಙ᳈⤑దᨊᗼʁʠㅨະ

ቹ 9(a)Ε(b)ၞԫޡ᧩ق࠵ೈ૤ሉছ৵հ࿇ሽᖲሽੌं

ݮ֗᙮ᢜ։ؒΔଖ൓ࣹრऱਢΔ࠵ሉ৵հ᜔ሽੌᘫंեឫ

੡ 22.23 %Δۖ࠵ሉছ੡ 16.67 %Δ᧩ྥ࿇ሽᖲ᎘ሉֺૹሉ ࢭ࠹ޓᣤૹऱᘫंեឫΔຍፖᑵवऱࡰ୾ሎ᠏լᔞٽ܂ຝ

։૤ሉሎ᠏෼ွܭٽΖ 3. ગ஌/ヅℐʏ⊓⳥ⱧᑁೣⱧဘ

ڇ൶ಘპྎᔚ࿇ሽᖲࡰ୾/ሽጻࠀᜤሎ᠏ᑓڤ᠏ང ழΔངੌᕴආشՀি൳ࠫᑓڤΔྤሉ᙮෷ (f0) ๻੡ 1.04 puΔՀি෷ (D) ๻੡ 0.04Δሽᚘ൳ࠫᕴհֺࠏൄᑇ (kp)

๻ ੡ 0.4 Ε ᗨ ։ ൄ ᑇ ( ki ) ๻ ੡ 500 Δ א MatLab-Simulink-PSBኔ෼հ൳ࠫᕴڕቹ 10 ࢬقΖߓอਮ ዌঞڇ૤ሉጤฃ܂ଥޏΔ଺ءᆖឰሁᕴࢬ൷հ૤ሉޏ੡ຑ

൷ԫຝ 250 kVAΕ380 V/25 kV ᧢ᚘᕴΔᆖឰሁᕴຑ۟ 10 MVA/25 kV/50 Hz ሽጻΔڕቹ 11 ࢬقΔࠡ MatLab-

Simulink-PSB࿓ڤڕቹ 12 ࢬقΖᑓᚵழឰሁᕴ٣অ਍ၲሁ

ࠌᖲิᗑم᡹ࡳࠎᚨ 100 kW ૤ሉΔ0.3 ઞழឰሁᕴދԵΔ ࠌᖲิፖሽጻࠀᜤሎ᠏Δ2 ઞழឰሁᕴ٦ሂๅΔᖲิ਀༚

ࡰ୾ሎ᠏Ζ

ቹ 13 ᧩قࡰ୾/ࠀᜤሎ᠏ᑓڤ᠏ངհ೯ኪΔ(a) ੡ང

ੌᕴೡհ᥼ᚨΔሎ᠏ᑓڤ֊ངழऴੌሽᚘᑉኪડ૾۟પ

300 VΔ᠏ངཚၴ PWM հᓳ᧢ڂᑇՂ່֒۟ՕૻࠫଖΔڂ

ڼࠌ᥼ᚨழၴࢮऱֺለ९Δ(b) ੡࿇ሽᖲհ᥼ᚨΔڇ֊ང

(8)

MTG1 REC INV

Filter 100kW

MTG2

380V TR

25kV

CBK CBK Grid

REC INV

Filter 100kW 380V

TR 25kV

CBK

52 51 50 49 48

2 1.5 1 0.5 0

Frequency-Hz

time-sec

Electric Power-pu

0 0.5 1 1.5 2 2.5

time-sec

0 0.5 1 1.5 2 2.5

52 51 50 49 48

2 1.5 1 0.5 0

Frequency-Hz

time-sec

Electric Power-pu

0 0.5 1 1.5 2 2.5

time-sec

0 0.5 1 1.5 2 2.5

⠧߈ ʃ׺᳈⤑దʠᕗⰱ

ઌߡ஁() 72 32

Ppeak(pu) 2.05 1.5

fmax

(Hz) 1.2 0.9

ழ࿇ሽᖲᑉኪሽੌપሒ 3 pu ୽ଖΔᑉኪឫ೯ሽפ෷પሒ 2 pu୽ኙ୽ଖΔឫ೯Օ՛પፖႚอٵޡ࿇ሽᖲิᔡ࠹໢ઌ൷ چਚᎽٵ࿛్Δ᧩ߠطࡰ୾ᑓڤ᠏ང੡ሽጻࠀᜤᑓڤኙპ

ྎᔚ࿇ሽᖲิขسॺൄՕऱᓢᚰΔڂڼᚨش࣍ࡰ୾/ሽጻࠀ ᜤᑓڤհᖲิؘႊֺ໢ొ܂ࡰ୾ᑓڤሎ᠏հᖲิࠠڶޓՕ ऱឫ೯୲ݴ౨Ժ๻ૠΖቹ 14 ঞ੡᙮෷᥼ᚨΔطቹױवΔང

ੌᕴၲࡨழא 50.6 Hz ሎ᠏Δ֊ངழ᙮෷ડ૾۟ 49.4 HzΔ հ৵પक़၄ 1.2 ઞթ᡹ࡳ࣍ 50 Hz ፖሽጻٵޡΔ܀ᅝ٦ڻ ᗑمሎ᠏ழΔ᙮෷༓׏مࠥ਀༚᡹ࡳΖ

ࠃኔՂΔࠀᜤขسऱᓢᚰፖࠀᜤᛳၴհሽᚘઌߡ஁ڶ ᣂΔՂ૪ᑓᚵ੡ 72 ৫ሽᚘઌߡ஁հणउΔૉઌߡ஁ଥޏ੡

32৫Δঞ࿇ሽᖲሽפ෷֗ངੌᕴᙁנ᙮෷ڕቹ 15 ࢬقΔ طቹױवΔࠀᜤขسऱᓢᚰ᧢൓ֺለᒷࡉΖ।؄ঞലࠟጟ णउհ࿇ሽᖲᑉኪឫ೯ሽפ෷୽ଖ (Ppeak) ֗ངੌᕴᙁ נ᙮෷່Օޏ᧢ၦ (fmax) ٨।ֺለΔط।ױवΔᑉኪឫ ೯ሽפ෷୽ଖڶ 25 %հ஁ฆΖ

4. ગ஌/ヅℐʏ⊓/घᑨ⳥ⱧᑁೣⱧဘ

੡൶ಘࡰ୾/ሽጻࠀᜤ/ڍᖲሎ᠏ᑓڤհ᠏ང೯ኪΔߓ อਮዌԾฃ܂ޓޏΔڕቹ 16 ࢬقΔೈ଺ࠐհ࿇ሽᖲิ؆Δ ߓอ٦ףԵ׼ԫຝઌٵਮዌհᖲิΔࠟຝᖲิᆖឰሁᕴຑ

൷۟ሽጻΖᄅᖲิՈ܂Հি൳ࠫΔࠡྤሉ᙮෷๻੡ 1.02 puΔՀি෷๻੡ 0.04Ζᑓᚵழࠟຝᖲิٺ۞٣᡹ࡳᗑمሎ

᠏Δ0.2 ઞழࠟᖲຟᆖطឰሁᕴދԵፖሽጻࠀᜤሎ᠏Δ1.1 ઞழሽጻᆖឰሁᕴሂๅΔࠌߓอ᧢ګࠟᖲࠀᜤሎ᠏ਮዌΖ

ቹ 17(a)Ε(b) ։ܑ᧩قࠟຝᖲิհ᙮෷֗ሽפ෷᥼

ᚨΔ࿇ሽᖲิ MTG1 ၲࡨழࠎᚨ 0.6 pu פ෷Δࠀא 50.4 Hz ሎ᠏Δࠀᜤ۟ሽᄭ৵Δࠎᚨפ෷༼೏۟ 1 puΔ׊᙮෷۞೯ ፖሽᄭٵޡ੡ 50 HzΔᅝ᧢ګࠟᖲࠀᜤΔᆖࠟᖲิפ෷։

಻৵᙮෷᡹ࡳ࣍ 50.3 HzΔ࿇ሽᖲิ MTG2 ঞၲࡨא 50.2 Hzሎ᠏Δࠀᜤ۟ሽᄭ৵᙮෷ٵᑌፖሽᄭٵޡ੡ 50 HzΔ֊

ངګࠟᖲࠀᜤ৵ঞٵᑌ᡹ࡳ࣍ 50.3 HzΖլᓵࡰ୾ᑓڤ᠏ང

੡ሽጻࠀᜤᑓڤࢨሽጻࠀᜤᑓڤ᠏ང੡ڍᖲᑓڤΔ᠏ང᡹

ࡳழၴຟՕપڇ 2 ઞאփΖ

௽ܑଖ൓ࣹრऱਢࠟຝ࿇ሽᖲิհሽפ෷Δৰ୲࣐ױ

࿇෼ࠡᑉኪ୽ኙ୽ଖ᎛Օ࣍ 2 puΔ᧩قᅝࠟຝ࿇ሽᖲิٵ ழࠓᜤሽጻழΔኙᖲิທګհᓢᚰ᎛ֺ໢ᖲࠓᜤሽጻழՕ ৰڍΔᓢᚰ࿓৫լ՛࣍ႚอٵޡ࿇ሽᖲิᔡ࠹Կઌ൷چਚ Ꮍհणउΰီൣउۖࡳપ 3 pu~6 pu ୽ኙ୽ଖαΔ᧩قᚨش

࣍ڍᖲ/ሽጻࠀᜤᑓڤհᖲิؘႊڶ່Օऱᓢᚰ୲ݴ౨Ժ հ๻ૠΖ

ߧ 16 ગ஌/ヅℐʏ⊓/घᑨ⳥ⱧᑁೣⱧဘʠ₇⃥ከᐉ

ߧ 17 ᱹヅᑨ⃅ʠ㆒᪓דヅԼ᪓ㅨະŘ(a) MTG1Ȯ(b) MTG2

߈Ȯ⤽⧄⎞⃌⧄

੡Ա౨ଫࠠࡰ୾Εሽጻࠀᜤ֗ڍᖲ࿛ᑓڤհሎ᠏౨ ԺΔპྎᔚ࿇ሽᖲิא P-f Հিᑓڤ൳ࠫਢለࠋऱᙇᖗΔ ء֮ܛኙຍጟᣊীऱპྎᔚ࿇ሽᖲิհሎ᠏ᑓڤ᠏ང܂೯ ኪᑓᚵ։࣫Δ࿨࣠ڶՀ٨༓រଖ൓ࣹრΚ

1. პྎᔚᖲ֘ᚨ૤ሉޏ᧢પᏁ 5 ઞհ᡹ࡳழၴΔۖངੌᕴ ঞ༓׏ᛳၴݙګΔڂڼڇ൶ಘངੌᕴೡհሽԺߓอᑉኪ

᥼ᚨழΔ࢙ฃპྎᔚᖲ֘ᚨਢױ൷࠹ऱΖ

2. طሽጻࠀᜤᑓڤࢨڍᖲᑓڤ᠏ངڃࡰ୾ᑓڤ༓׏ᛳၴݙ ګΔ܀طࡰ୾ᑓڤ᠏ང੡ሽጻࠀᜤᑓڤࢨطሽጻࠀᜤᑓ ڤ᠏ང੡ڍᖲᑓڤΔ᠏ང᡹ࡳழၴঞຟપڇ 1~2 ઞΔڼ ፖპྎᔚᖲ֘ᚨழၴઌֺࠀآࣔ᧩ऱ՛Δڂڼڇ൶ಘሎ

᠏ᑓڤ᠏ངழΔ౨ܡ࢙ฃპྎᔚᖲ֘ᚨଶړڇᢰ੺រՂΖ

(9)

3. ԫ౳ভᎁპྎᔚ࿇ሽᖲิհངੌᕴࠠڶॺൄݶຒऱଯ࿨

(Blocking) ᤛ࿇౨ԺΔڇᖲิᔡ࠹ᒵሁ൷چਚᎽழ౨Օ

༏ލࠫᑉኪפ෷ឫ೯Δڂڼᖲิ౨אለ܅ऱൎ৫ࠐ๻

ૠΖ௅ᖕءᑓᚵ࿨࣠Δຍԫរۿ׏ࠀլݙ٤إᒔΔڇࡰ

୾ሎ᠏ᑓڤՀ૤ሉ֊ངᒔኔլᄎኙპྎᔚ࿇ሽᖲิທګ

᧩ထऱᑉኪפ෷ឫ೯Δ܀໢ԫᖲิطࡰ୾ᑓڤ᠏ང੡ሽ ጻࠀᜤᑓڤழথᄎኙᖲิขسॺൄՕऱឫ೯Δۖࠟຝᖲ

ิٵழࠓᜤሽጻழΔኙᖲิທګհᓢᚰޓՕΔᓢᚰ࿓৫ լ՛࣍ႚอٵޡ࿇ሽᖲิᔡ࠹Կઌ൷چਚᎽհणउΰࠃ ኔՂᓢᚰ࿓৫ႊီࠓᜤᛳၴհઌߡ஁ۖࡳαΔڂڼࠠڶ ᑓڤ᠏ངפ౨հᖲิؘႊֺྤڼפ౨հᖲิࠠڶޓՕऱ ᓢᚰ୲ݴ౨Ժ๻ૠΰࠏڕޓൎႇऱᖲඳൎ৫αΔࠀॺࢬ ڶᖲীհპྎᔚ࿇ሽᖲิຟ౨אለ܅ऱൎ৫ࠐ๻ૠΖ

Ὢ⚦€೧

D ॴ؍এᑇ E ಬሽጤሽᚘ H ክၦൄᑇ id ऴၗሽੌ

iq ٌၗሽੌ

J ክၦ Ld ऴၗሽტ Lq ٌၗሽტ m ᓳ᧢ਐᑇ N ᠏՗᠏ຒ

p ᄕኙ

Pelec ሽפ෷

Pmech ᖲඳפ෷

R ࡳ՗ሽॴ Te ሽ጖᠏ఢ Tm ᖲඳ᠏ఢ vd ऴၗሽᚘ vq ٌၗሽᚘ V ࠹ሽጤሽᚘ

X ሽݼ

θ ᠏՗ߡ৫

λ ጖ຏ

µ ઌߡ

µE ಬሽጤઌߡ µV ࠹ሽጤઌߡ

א≙ᄽ᪇

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