TW209922B - Control circuit for battery set or D.C power source - Google Patents
Control circuit for battery set or D.C power source Download PDFInfo
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A 6 η 6 r Q 'J ^ r^j ^ 五、發明説明(1) 電池組或其他蓄電元件由於具有機動性,廣泛被應用 於各式各樣的器具如電動載具等,然而電池組無論蓄電池、 燃料電池、熱電池或太陽能電池皆具有其物理性基本電壓, 通常吾人藉串並聯以選擇其電壓及容量,並視負載需要, 以階級電壓供應之或以串聯線性元件操控之或以截波開關 操控之,此項設計主要爲揭示一種電瓶組或其他蓄電元件 組或多組獨立直流電源之多階複電壓均匀輸出操控電路, 此系統中進一步藉著線性或截波固態開關元件以使階級電 屋結合線性電壓調整作連槙線性輸出,或由前述截波式固 態開關元件串設於由電瓶組及二極體組所構成之可切換複 電壓輸出之電壓切換開關點之間,形成以固態線性元件作 各階電壓間之電壓調節或以低壓爲谷底,次段高壓爲峰値 之連續Mtt調整輸出電壓之電路者,以供作多階複電壓輸 出或線性輸出或作爲變流器之波形整形或直流波形調整或 直流對直流之切換式變壓輸出者。 圓1爲此項電瓶組或其他蓄電元件組或多組獨立直流 電源之多階複電壓均勻輸出操控電路之基礎電路圓,其主 要構成含: -至少三組之蓄電元件組及至少三組固態開關元件組交 錯順向串聯(圖中以四組蓄電元件B101〜B104及四組固態 開關元件S101〜S104爲例); -組總輸出固態開關元件組與輸出端串聯用以作爲總 開關或由零至最低位階電壓間之線性電壓調節或截波式 PWM電壓調節者; (請先閲讀背而之注意事項#塡寫本頁) 裝· 訂_ 經濟部屮央櫺準局員工消伢合作杜印^ 本紙张尺度逡用中《«家樣毕(CNS)T4規格(2丨0乂297公龙) 81. 7. 20.000^(1!) 經濟部中央標準局貝工消费合作社印製 ; Λ 6 ^_B_6_ 五、發明説明(2) -各固態開關元件分別具驅動電路組D100、D101、D102、 D103、D104,各驅動電路組接受一數位邏輯型態或類比型 態之中央控制單元CCU101所操控,以操控各固態開關元件 組; -組人工或電信號所驅動之操控介面OP101供操控上 述中央控制單元CCU101,以發出對固態開關元件組之操控 信號至各開關元件組所屬驅動電路; -每一蓄電單元之正極與正極間各別並接二極艎CR101、 CR102、CR103,各二極體之導流方向爲能使各蓄電皐元之 正極電流能通往與正輸出端相接之第一蓄電單元正極爲方 向者; -每一蓄電單元之負極與負極間各別並接二極體CR111、 CR112、CR113,各二極體之導流方向爲能使各蓄電單元之 負極電流能通往與負輸出端相接之最末蓄電單元組之負極 者。 藉上述電路之構成,吾可作成下列之操控,以圓1中 所示4組蓄電單元爲例,可作成由零至最大電壓之輸出, 包括: A :等差多階輸出; B:各等差階中之部份輸出; C :以多階複電壓作截波pwM調制線性輸出; D:以多階複電壓作類比調制線性輸出; E:各連續輸出之部份段輸出。 茲依序詳細說明如下: (請先間讀背而之注意事項再填寫本頁) 本紙張尺度遑用中國國家標準(CNS) T4規格(210X297公*) 81. 7. 20.00Uik(II) Α6 __Β6 _ 五、發明説明(3 ) A:等差多階輸出,包括: ①由全部蓄電單元並聯輸出,則此狀態交叉串聯於各蓄電 單元間之固態開關元件呈OFF,而與輸出端串聯之固態 開關元件呈ON,以圖1爲例,如表1所示爲工作表;若 各獨立蓄電單元電壓爲E,則輸出電壓亦爲E。 ' 表 1 (請先閲讀背而之注意事項再填寫本頁) 裝·A 6 η 6 r Q 'J ^ r ^ j ^ V. Description of the invention (1) Due to its mobility, battery packs or other power storage elements are widely used in various appliances such as electric vehicles, etc. However, battery packs Whether batteries, fuel cells, thermal batteries or solar cells have their physical basic voltages, usually we choose their voltage and capacity by series and parallel connection, and depending on the needs of the load, they are supplied with class voltage or controlled with series linear elements or Clamping switch control, this design is mainly to reveal a multi-level complex voltage uniform output control circuit of a battery pack or other storage element group or multiple sets of independent DC power supplies. This system further uses linear or cutting solid state switching elements to The class electric house is combined with linear voltage adjustment for continuous linear output, or the aforementioned chopper-type solid-state switching element is serially connected between the voltage switching points of the switchable complex voltage output composed of the battery group and the diode group, Form a circuit that uses solid-state linear devices for voltage regulation between various voltage levels or uses low voltage as the bottom and continuous high voltage for the secondary high voltage as the peak value to adjust the output voltage. , Orders and complex for long the voltage output or linear output, or as a waveform shaping inverter or DC waveform adjusting the DC or by switching the DC output of the transformer. Circle 1 is the basic circuit circle of the multi-stage complex voltage uniform output control circuit of this battery group or other storage element group or multiple sets of independent DC power supplies. Its main components include:-at least three sets of storage element sets and at least three sets of solid state Switching element groups are staggered and connected in series (in the figure, four sets of storage elements B101 ~ B104 and four sets of solid state switching elements S101 ~ S104 are taken as examples); Those with linear voltage regulation or chopper-type PWM voltage regulation from zero to the lowest level voltage; (please read the back-to-back notes # 塡 write this page) to install and order _ employees of the Central Bureau of Economic Affairs of the Ministry of Economic Cooperation Printed ^ This paper scale is printed in the "« Home Samples (CNS) T4 specification (2 ~ 0 ~ 297 male dragon) 81. 7. 20.000 ^ (1!) Printed by Beigong Consumer Cooperative of the Central Bureau of Standards of the Ministry of Economic Affairs; Λ 6 ^ _B_6_ V. Description of the invention (2)-Each solid-state switching element has a driving circuit group D100, D101, D102, D103, D104, and each driving circuit group accepts a digital logic type or analog type central control unit CCU101 Manipulation to control solid state switches The component group;-The control interface OP101 driven by a group of manual or electric signals is used to control the above-mentioned central control unit CCU101 to send a control signal to the solid-state switching element group to the driving circuit to which each switching element group belongs;-the positive electrode of each power storage unit and Diodes CR101, CR102, CR103 are connected in parallel between the positive poles. The direction of current conduction of each diode is such that the positive electrode current of each power storage element can lead to the positive electrode of the first power storage unit connected to the positive output terminal. -The cathode and cathode of each power storage unit are connected in parallel with the diodes CR111, CR112, CR113 respectively. The direction of the current conduction of each diode is to enable the negative current of each power storage unit to lead to the negative output terminal. Connected to the negative pole of the last power storage unit group. With the configuration of the above circuit, I can make the following operations. Taking the four sets of power storage units shown in circle 1 as an example, the output can be made from zero to the maximum voltage, including: A: equidistant multi-level output; B: each Partial output in the difference order; C: Linear output with multi-stage complex voltage as the cut-off pwM modulation; D: Linear output with multi-stage complex voltage as the analog modulation; E: Partial output of each continuous output. The details are as follows in order: (please read the precautions before filling in this page) This paper uses the Chinese National Standard (CNS) T4 specification (210X297 *) 81. 7. 20.00Uik (II) Α6 __Β6 _ V. Description of the invention (3) A: Equivalent multi-level output, including: ① All power storage units are output in parallel, the solid-state switching element in this state cross-connected between the power storage units is OFF, and the output is connected in series The solid-state switching element is ON. Taking FIG. 1 as an example, the working table is shown in Table 1. If the voltage of each independent power storage unit is E, the output voltage is also E. 'Table 1 (please read the precautions before filling in this page)
開關元件 S101 S102 S103 S104 S100 工作狀態 OFF OFF OFF OFF ONSwitching element S101 S102 S103 S104 S100 Working state OFF OFF OFF OFF ON
②由其中兩組蓄電單元爲一單元相互串聯後再.並聯,或由 其中一半電瓶組相互並聯後再與另一半串聯,使輸出電 壓爲①之2倍者,上述各相互串聯之蓄電單元間之固態 開關元件爲ON之狀態,以圖1爲例,如表2 A所示爲先 串聯再並聯,表2 B爲先並聯再串聯;若各獨立蓄電單 元電壓爲E,則輸出電壓爲2E。 表 2 A •v*"_ 經濟部屮央橾準局员工消t合作杜印製② One of the two sets of storage units is one unit connected in series and then connected in parallel, or one half of the battery groups are connected in parallel and then connected in series with the other half, so that the output voltage is twice that of ①. The solid-state switching element is in the ON state. Taking FIG. 1 as an example, as shown in Table 2 A, it is connected in series and then in parallel, and Table 2 B is connected in parallel and then in series; if the voltage of each independent storage unit is E, the output voltage is 2E . Table 2 A • v * " _ Printed by the Ministry of Economic Affairs of the Central Bureau of the Central Committee of the Ministry of Economic Affairs
開關元件 S101 S102 S103 S104 S100 工作狀態 ON ON OFF ON ON 本紙張尺度边用中國困家標準(CNS)肀4規格(210X297公龙) 81. 7. 20,U00ik (Η) 一 r · Λ 6‘;Q ⑽-。___lll 五、發明説明(4)Switching elements S101 S102 S103 S104 S100 Working state ON ON OFF ON ON The paper size is used in China Sleepy Standard (CNS) Yu 4 specifications (210X297 male dragon) 81. 7. 20, U00ik (Η) 一 r · Λ 6 ' ; Q ⑽-. ___lll 5. Description of the invention (4)
表 2 B 開關元件 S101 S102 S103 S104 S100 工作狀態 0N OFF ON OFF ON ③由其中每三組爲一單元輪流相互串聯,以使輸出爲①之 3倍者,各蓄電單元間之固態開關元件組操控順序如表 3 A〜3 D所示爲週期順序輪流串聯輸出,以使輸出負 荷能由各蓄電單元均勻分擔承載者;若各獨立蓄電單元 電壓爲E,則輸出電壓爲3E。Table 2 B Switching elements S101 S102 S103 S104 S100 Operating status 0N OFF ON OFF ON ③ By three units of which are connected in series with each other in turn, so that the output is 3 times of ①, the solid state switching element group between each storage unit is controlled The sequence is shown in Table 3 A ~ 3 D as the periodic sequential output in series, so that the output load can be evenly shared by the carriers of each storage unit; if the voltage of each independent storage unit is E, the output voltage is 3E.
表 3 A 開關元件 S101 S102 S103 S104 S100 工作狀態 ON ON ON OFF ON (請先閲請背而之注意事項#塡寫本頁) 裝- ,?τ_ 線- 經濟部屮央櫺準局β工消费合作社印^Table 3 A Switching elements S101 S102 S103 S104 S100 Working state ON ON ON OFF ON (please read the notes to the back # 塡 write this page) installed-,? Τ_ line Cooperative print ^
表 3 B 開關元件 S101 S102 S103 S104 S100 工作狀態 OFF ON ON ON ON 本紙张尺度逍用中a國家橒準(CNS)T4規格(210X297公;¢) 81. 7. 20.000ik(ll) ,0⑽ Λ 6 η 6Table 3 B Switching elements S101 S102 S103 S104 S100 Working state OFF ON ON ON ON The paper size is used in a national standard (CNS) T4 specification (210X297; ¢) 81. 7. 20.000ik (ll), 0⑽ Λ 6 η 6
五、發明説明(5) 表 3 CV. Description of Invention (5) Table 3 C
開關元件 S101 S102 S103 S104 S100 工作狀態 0N OFF ON ON ONSwitching element S101 S102 S103 S104 S100 Operating status 0N OFF ON ON ON
表 3 D 開關元件 S101 S102 S103 S104 S100 工作狀態 ON ON OFF ON ON ④全部蓄電單元串聯之最高電壓輸出,如表4所示;若各 獨立蓄電單元電壓爲E,則輸出電壓爲4E。 表.4 (請先閲讀背而之注意事項再塡寫本頁) 經濟部+央標準局员工消费合作社印奴Table 3 D Switching elements S101 S102 S103 S104 S100 Working state ON ON OFF ON ON ④The highest voltage output of all power storage units in series, as shown in Table 4; if the voltage of each independent power storage unit is E, the output voltage is 4E. Table.4 (Please read the precautions before writing this page) Ministry of Economic Affairs + Central Standards Bureau Employee Consumer Cooperative Indo
開關元件 S101 S102 S103 S104 S100 工作狀態 ON ON ON ON ON Β·_各等差階中之部份輸出: 此項方式操控輸出爲非依等差階級而係由其中選取所需 本紙尺度逍用中a S家樣iMCNS)甲<1規格(210x297公tf) 81. 7. 20,00()¾ (li) •'-Λ Γ r* 广 66 經濟部中央標準局员工消费合作社印製 五、發明説明(6) 要特定階級電壓者。 C:以多階複電壓作截波PWM調制線性輸出: 如圓2所示,即以PffM調制由零輸出至最大輸出電壓之 連續可變輸出,此項方式除由零至最低電壓位階由總輸 出固態開關元件作PO調制外,其各輸出爲由相鄰階級 電壓間作週期調變電壓位階,以取得其平均値爲輸出者, 以圖1中4組蓄電單元爲例,其由全部蓄電單元並聯之 最低位階電壓至兩倍最低位階電壓間之關係爲由表1至 表2所示之對固態開關元件操控順序輪流交替構成變階 週期,變階週期中表1之狀態所佔百分比愈高則電壓較 近最低壓段;表2之狀態所佔百分比愈高則較近2倍低 壓段:變階週期由中央控制單元依操控介面之指令及內 儲資料作執行或進一步設置其他含負載電流端壓等回授 檢測元件作成輸出操控參考,以人工或電能介面操控驅 動電路組驅動所屬固態開關元件組,其各位階間之輸出 狀態可參考圖2所示。 D:以多階複電壓作類比調制線性輸出: 如圓3所示,此項方式除由零至最低電壓位階由線性輸 出固態線性元件作類比調整外,其各輸出爲由較高位階 電壓經固態線性元件作調整,以銜接高階與次高階間電 壓値之連續性。 E:各連續輸出之部份段輸出: 此項方式操控輸出爲非連續由零至最大輸出電壓値而係 取其中一段或所需數段或特定電壓位階作混合之輸出者。 (請先閱讀背而之注意事項再填寫本頁) 本紙张尺度逍用中國Η家標準(CNS)甲4規格(2丨0X29’/公龙)Switching element S101 S102 S103 S104 S100 Working state ON ON ON ON ON Part of the output in each equidistance step: This method controls the output to be not based on the equidistance level and to select the required paper size for ease of use a S home sample iMCNS) A < 1 specification (210x297 g tf) 81. 7. 20,00 () ¾ (li) • '-Λ Γ r * Guang 66 Printed by the Employees Consumer Cooperative of the Central Bureau of Standards of the Ministry of Economic Affairs Description of invention (6) Those who require a specific class of voltage. C: Multi-level complex voltage is used as a cut-off PWM modulation linear output: As shown in circle 2, that is, PffM modulation is a continuously variable output from zero output to the maximum output voltage. This method divides from zero to the lowest voltage level from the total In addition to the output solid-state switching element for PO modulation, each output is a voltage level that is periodically adjusted between adjacent class voltages to obtain its average value as the output. Taking the four sets of power storage units in FIG. 1 as an example, all the power is stored The relationship between the lowest level voltage of the parallel connection of the units to twice the lowest level voltage is that the control sequence of the solid state switching elements shown in Table 1 to Table 2 alternates to form a variable order cycle, and the percentage of the state of Table 1 in the variable order cycle is more The higher the voltage, the closer to the lowest voltage section; the higher the percentage of the state in Table 2, the closer to the low voltage section: the step change cycle is executed by the central control unit according to the command of the control interface and the stored data or further set with other loads The feedback detection components such as current terminal pressure are used as output control references, and the drive circuit group is driven by a manual or electrical energy interface to drive the solid state switching element group. The output status of each stage can be referred to 2 shown in FIG. D: Linear output with multi-level complex voltage as analog modulation: As shown in circle 3, in addition to the analog adjustment of linear output solid-state linear components from zero to the lowest voltage level, each output is derived from a higher-level voltage. The solid-state linear device is adjusted to connect the continuity of the voltage value between the high-order and the second-highest order. E: Partial output of each continuous output: This mode controls the output to be discontinuously from zero to the maximum output voltage value, and it takes one of the segments or the required segments or a specific voltage level for mixed output. (Please read the precautions before filling in this page) This paper scale uses the Chinese Η family standard (CNS) A4 specifications (2 丨 0X29 ’/ Male Dragon)
Bl. 7. 20.000¾ (II) Λ 6 Π 6 經濟部屮央橾準局EX工消ίϊ·合作杜印製 五、發明説明(7) 上述各項應用中,如同傳統之電源供給裝置一樣,吾 人可藉輸出端壓及輸出電流値之檢測,以調節截波^出之 脈波寬度比或操控固態線性元件作類比調整,以進一步如 傳統電源供給電路設置具有定電壓或限電壓及定電流或限 電流之功能者。 上述各項電路所述之複電壓均匀輸出操控電路,在實 際應用中,除可直接輸往負載外,並可進一步結合橋式開 關元件組以及藉下列操控程序作交流近似正弦之輸出者, 類似此功能由單一DC電壓轉AC之電路已屬習用,不再重覆, 此處主要爲以本項設計可操控複電壓結合傳統橋式開關電 路作成特定之多階複電壓構成近似正弦交流輸出者,以取 代傳統藉多組變流器及交連變壓器作電壓波形串聯之高成 本低效率方式,其構·成及操控包括如圖4所示由橋式開關 電路及階級電壓同步操控構成電路例,主要爲: -由四組呈橋式連接之閘流體或功率晶體或機電開關元 件所構成之方向交換電路組,其輸出端並聯負載,其輸入 端接往前述電瓶組或其他蓄電元件組或多組獨立直流電源 之多階複電壓均句輸出電力單元pQ, Pg及橋式開關元件爲 接受數位邏輯型態或類比型態之中央控制器ecu所操控, 使其宁二組開關元件SWF 0N電流爲正向通過負載,而於另 一組開關元件SWR ON時電流爲逆向通過負載,而構成一周 期交變功能; 每一方向導流周期包括複電壓電源由零轉低,由低而 高,再由高而低再轉爲零,而後交換方向重覆上述電壓循 (請先閲讀背而之注意事項Λ-塥寫本頁) it 本紙张尺度遑用中a«家樣4規格(2)0X297公;it) 81. 7. 20.000^(11) 0 Λ 6 η 6 經濟部屮央標準局貞工消费合作社印製 五、發明説明(8) 環以獲得近似正弦之交流輸出者。 上述電路亦可由多組電力元件串聯並設有中間串聯抽 頭及藉兩組開關元件以構成橋式電路(如圖5),即採用 • ♦ 雙組電瓶組或其他蓄電元件組或多組獨立直流電源之多階 複電屋均勻輸出操控電路串聯構成Ρ〇(包含第1組電源Ροΐ 及與第1組電源Ροι暇向.串聯之第二組電源P02),並由其中 間串接點抽頭通往負載之一端,上述橋式開關元件可由二 組構成,而其中一組SW?串聯於電源組之正端及另一組SWR 串聯於負端,兩開關元件之另一端再共同通往負載之另一 側,藉著交替導通上述兩開.關而構成對負載電屋極性之交 替,並配合上述每一半週期中相對之直流多階複電壓電源 組呈由低至高再轉低以構成近似正弦之交流輸出者,圖6 爲圖4及圓5之工作‘時態及波形例。 上述電路可爲單組單相或多組呈多相相位差之輸出型 態者,在多相輸出時由上述單相近似正弦變流裝置之電路 多組構成,即具有各別之橋式開關元件組耦合於各別直流 多階複電壓源及輸出端之間並接受CCU之具有相位差之操 控指令所操控者。 此外,由於電力波形依負載需要通常包括三角波形、 方波矽、凹陷波形、微分波形、積分波形等,各有其適用, 吾人可藉中央控制單元對多階複電壓輸出順序狀態加以作 近似所需波形之操控直接作直流脈動輸出或與極性交換之 橋式電路作同步配合之上述特定波形之交流輸出或進一步 藉所串聯線性開關元件修正其輸出波形者。 (請先閲讀背而之注意事項再塡寫本頁) 本紙張尺度逡用中a Η家樣準(CHS)甲4規怙(210X297公;«:) 81. 7. 20,000¾ (||) Λ 6 Π 6 經濟部屮央標準局S3:工消合作杜印製 五、發明説明(9 ) 又,此項系統可作多階複電壓輸出之電力單元pQ除作 爲電源供給亦可供作爲電力蓄儲,因此吾人可將電力單元 組P0之串並聯操控元件採用雙向導通元件,以及調節電壓 電流之固態開關元件亦採用雙向導通元件或逆向設置、以 使此項電瓶組或其他蓄電元件組或多組獨立直流電,源之多 階複電壓均勻輸出操摔霓路具有配合由外部輸入蓄儲電能 作匹配耦合之調整者。 上述電力單元Po並進一步可藉其多階複電屋狀態之改 變以分別接受不同電壓輸入及不同電壓輸出,以構成直流 對直流之變歷器或作爲蓄儲由負載作動能回收發電之再生 回授功能,上述應用中電力單元PG之工作型態包括: ① 呈低壓狀態接受輸入再轉變爲高階聯接狀態之高壓輸出,, 如圖7爲低壓輸入·高壓輸出時態示意圖。 ② 呈高壓狀態接受輸入再轉變爲低階聯接狀態之低壓輸出, 如圖8爲高壓輸入低壓輸出時態示意圖。 ③ 呈同壓輸入同壓輸出,以隔離輸入端及輸出端者,如圖 9爲同壓輸入同壓輸出時態示意圓。 ④ 長時間小電流輸入,短時間大電流輸出,以構成瞬時大 輸出之電力源,如圖1〇爲長時間小電流輸入短時間大電 .流輸出時態示意圖。 ⑤ 短時間大電流輸入,長時間小電流輸出,以在短時間蓄 電供較長時間較低功率用電者,如圖〖丨爲此項短時間大 電流輸入長時間小電流輸出時態示意圖。 ⑥ 電力單元可由電瓶或電容等元件構成電能蓄儲裝置供作 (請先閲讀背而之注意事項再填寫本頁) 裝· 訂- 本紙張尺度边用中a B家標準(CHS) ΊΜ規格(210X297公址) 81. 7. 20.000张(11) 經濟部中央標準局A工消奸合作杜印奴 … A 6 _Π6_ 五、發明説明 (10) 直流輸出輸入之周期交錯操作,與其相對之負載並聯有 蓄儲電能性質之電容或電瓶,以使輸出端能連續供電者, 如圖12爲此項輸出端設有電能蓄儲裝置之輸出時態示意 圖0 ⑦以直流輸入配合橋式開關電路作交流輸出,如前述圓4 〜6所示爲其基礎電路型態者。 又,上述電路爲使輸出側較穩定,吾人亦可進一步在 輸出側加設電能蓄儲裝置,以安定其輸出者。 圖13爲此項輸出側具電能蓄儲裝置之電能轉換電路主 要構成方塊示意圓,主要包括: ——由前述具有雙向串並觫切換is關可作複電壓操控輸出 之電力單元構成Po,再串接雙向分配操控開關SW1301於P 〇及負載端與輸入端之間,切換開關SW1301爲由機電或固 態元件所構成,接受數位邏輯型態或類比型態之中央控制 單元(CCU)所操控,供選擇爲:連接輸入端對電力單元 P〇充電;或連接電力單元對負載作所選擇位階電壓輸出; 或由負載端作電能回授至電力單元;以及在特殊情形下作 輸入端與負載端之直接連接; ——負載端若爲直流負載,則可視需要進一步設置電能蓄 儲裝置ESD,如蓄電池、電容器等;若爲交流輸出,則可 設置由電感L及電容C構成之並聯諧振電能蓄儲裝置ESD, 如圖14爲此項輸出側並聯電感L及電容C構成交流電能蓄儲 裝置之輸出狀態示意圖。 上述電路之多相輸出,則以多組開關分別耦合於各別 (請先閱讀背而之注意事項再塡舄本頁) 本紙張尺度逍用中國國家標準(CNS)肀4規格(210X297公龙) 81. 7. 20.000iic (!!) ί\6β 五、發明説明(u) 電能、蓄儲元件與電力單元Po之間,各開關組並以不同相 差周期順序導通,以使各電力蓄儲電感L及電容C上之電壓 波形呈所設定相位差者。 綜合上述,此項設計主要提供一種電瓶組或其他蓄電 元件組或多組獨立直流電源之多階複電壓均匀輸出操控電 路之創新設計,以及進一步結合線性或截波固態開關元件, 以獲得多階複電壓輸出及階級線性或階級載波式乏低漣波 PVM電壓輸出或緩慢增壓輸出或緩慢減屋輸出及進一步藉 如傳統電源供給裝置加設電壓或電流回授檢測元件作定電 流或限電流或定電壓歲限電壓輸出調節功能,以及進一步 使用雙向型固態開關元件以操控逆向輸入電路,或進一步 配合傳統橋式開關元件所構成之正逆極性輸出介面,而在 每一半週期使電路完成由低而高再回歸低電位之週期輸出, 藉兩者之同步關係以獲得近似正弦之交流輸出者,以及進 一步操控其極性交換週期與每一半週期中複電壓輸出電壓 値關係以構成多階輸出波形之變流器,較傳統以多組變壓 器串聯獲得方式成本低、損失少,故效率較高,此項電路 設計創意新穎,功能確切,請依法核審爲祈。 (請先閲請背而之注意事項#填寫本頁) 丁 經濟部屮央榣準局β工消t合作社印製 ^紙張尺度通用中國B家樣準(挪)〒4規格(210χΜ·ί公放) 81. 7 . 20.000jk(H) 經濟部十央標"局员工沽贽合作社印" A6 •_____B6 五、發明説明(12 ) 圖式簡單說明: 圖1爲本案設計之基礎電路圖。 圖2爲本案設計以多階複铝壓作截波PWM調制線性輸 出之波形例。 圖3爲本案設計以多階複電壓作類比調制線性輸出之 波形例。 圖4爲本案設計藉橋式開關構成DC to AC近似正弦輸 出電路方塊示意圓。 圓5爲本案設計藉雙組直流電及輸出開關交替切換構 成DC to AC近似正弦輸出電路方塊示意圖。 圖6爲本案設計結合橋式開關元件作同步周期之近似 正弦交流輸出之工作時態及波形例。 圖7爲本案設計藉可作多階複電壓輸出入電力單元 P0作低壓充電高壓放電之電壓値示意圖。 圖8爲本案設計藉可作多階複電壓輸出入電力單元 P〇作高壓充電低壓放電之電壓値示意圖。 圖9爲本案設計藉可作多階複電壓輸出入電力單元 Po作同電壓輸出輸入之中介隔離之電壓値示意圖。 圖10爲本案設計藉可作多階複電壓輸出入電力單元 Po作小電流充電大電流放電之電流値示意圖。 圖11爲本案設計藉可作多階複電壓輸出入電力單元 Po作大電流充電小電流放電之電流値示意圖。 圖12爲本案設計藉可作多階複電壓輸出入電力單元 Po及輸出端設有電能蓄儲裝置之電壓値示意圖。 (請先閱讀背面之注意事項再填寫本頁) -装· •打. •綠. 本纸張尺度適用中國B家螵孕(CNS)T4規格(210x297公釐) A6 B6 五、發明説明(13) 圓13爲本案設計輸出側具電能蓄儲裝置之電能轉換電 路方塊示意圖。 圖14爲本案設計輸出側並聯電感及電容構成交流電能 蓄儲裝置之輸出狀態示意圖。 各圖式之件號及符號說明: 圖1 : ΒΙΟΙ、B102、B103、B14 :蓄電元件 S100、S101、S102、S103、S104 :固態開關元件 D100、D101、D102、D103、D104 :驅動電路組 CR101、CR102、CR103、CR111、CR112、CR113 :二極 體 CCU101 :中央控制單元 0P101 :操控介面 圖4 : 經濟部屮央榇;,1局尚工消赍合作社卬" (請先W讀背面之注意事項再填駕本頁) •訂· •線 P0:電力單元 SWF、SWR :開關元件 CCU :中央控制單元 OUTPUT :輸出 圖5 : P〇 :電力單元 Ρ〇1、P〇2 :電源 SWF、SWR :開關元件 CCU :中央控制單元 本纸ft尺度逋用中國國家橒孕(CNS)甲4規格(210x297公釐) Λ 6 Π 6 經濟部屮央櫺準局CX工消奸合作社印奴 五、發明説明(14) OUTPUT :輸出 圖6 : Po:電力單元 SWF、SWR :開關元件 OUTPUT :輸出 圖7、圖8 : P〇 :電力單元 INPUT :輸入 OUTPUT :輸出 VL :低壓狀態 VH :高壓狀態 圖9 : P〇 :電力單元 INPUT :輸入 OUTPUT :輸出 Vo :電力單元PG兩端之電壓 圖10、圖11 : P0:電力單元 INPUT :輸入 OUTPUT :輸出 I L :低電流 I Η :高電流 圖12 : Po:電力單元 (請先閲讀背而之注意事項再塡寫本頁) 裝- 訂_ 線, 本紙尺度逍用中a國家樣孕(CNS) Τ4規格(210X297公龙) 81. 7. 2U,000i(c (II) Λ 6 Ιϊ 6Bl. 7. 20.000¾ (II) Λ 6 Π 6 The Ministry of Economic Affairs, the Central Bureau of Economics and Trade, EX Gongxiao, Co., Ltd. Printed by Du. 5. Description of the invention (7) In the above applications, it is the same as the traditional power supply device. We can use the detection of the output terminal voltage and the output current value to adjust the pulse width ratio of the cut-off ^ or control the solid-state linear element for analog adjustment, so as to further set a fixed voltage or limited voltage and constant current as the traditional power supply circuit Or the function of current limit. The complex voltage uniform output control circuit described in the above circuits, in actual application, can be directly output to the load, and can be further combined with the bridge switching element group and the following control program for AC approximate sinusoidal output, similar This function is a conventional circuit that converts a single DC voltage to AC. It is no longer repeated. The main purpose here is to use this design to control the complex voltage combined with the traditional bridge switching circuit to make a specific multi-order complex voltage to form an approximate sinusoidal AC output. In order to replace the traditional high-cost and low-efficiency way of using multiple sets of converters and cross-connected transformers to connect voltage waveforms in series, its structure, composition and control include a circuit example composed of a bridge switching circuit and step voltage synchronous control as shown in FIG. 4, Mainly:-The direction exchange circuit group composed of four groups of bridge-connected thyristors or power crystals or electromechanical switching elements, the output end of which is connected in parallel to the load, and the input end of the circuit is connected to the aforementioned battery group or other storage element group or more Group of independent DC power supply multi-level complex voltage output sentence power unit pQ, Pg and bridge switching elements are accepted digital logic type or analog type The central controller ecu is controlled to make the current of the two sets of switching elements SWF 0N pass through the load in the forward direction, and when the other set of switching elements SWR is ON, the current flows through the load in the reverse direction, forming a periodic alternating function; each The direction diversion cycle includes the complex voltage power supply changing from zero to low, from low to high, and then from high to low and then to zero, and then the direction of the exchange repeats the above voltage cycle (please read the notes before you read Λ- 塥 本Page) it This paper size is used in a «Home Sample 4 Specification (2) 0X297; it) 81. 7. 20.000 ^ (11) 0 Λ 6 η 6 Printed by Zhengong Consumer Cooperative, Bureau of Standards, Ministry of Economic Affairs 3. Description of the invention (8) Loop to obtain an approximately sinusoidal AC output. The above circuit can also be composed of multiple sets of power elements connected in series with intermediate series taps and two sets of switching elements to form a bridge circuit (as shown in Figure 5), that is, use two sets of battery packs or other storage element sets or multiple sets of independent DC The multi-stage complex power house uniform output control circuit of the power supply is connected in series to form P0 (including the first set of power supply Pοl and the first set of power supply P.I. The second set of power supply P02 connected in series), and the middle point of the tap is connected To one end of the load, the above-mentioned bridge switching element can be composed of two groups, and one group SW? Is connected in series to the positive end of the power supply group and the other group SWR is connected in series to the negative end. The other ends of the two switching elements are connected to the load. On the other side, by alternately turning on the above two switches, the polarity of the load house is alternated, and in conjunction with the relative DC multi-level complex voltage power supply group in each half cycle described above, it changes from low to high and then turns low to form an approximate sine For the AC output, Figure 6 is an example of the working time and waveform of Figure 4 and Circle 5. The above-mentioned circuit can be a single-group single-phase or multiple-group output type with multi-phase phase difference. In multi-phase output, it is composed of multiple groups of circuits of the above-mentioned single-phase approximate sinusoidal converter device, that is, with separate bridge switches The element group is coupled between each DC multi-level complex voltage source and the output terminal and is controlled by the CCU with a phase difference control command. In addition, since the power waveforms usually include triangular waveforms, square wave silicon, recessed waveforms, differential waveforms, integral waveforms, etc. according to the needs of the load, each has its own application. We can use the central control unit to approximate the sequence state of the multi-stage complex voltage output If the waveform control is needed, it can be directly used as a DC pulse output or an AC output of the above-mentioned specific waveform synchronously matched with the bridge circuit of polarity exchange, or the output waveform can be further modified by the linear switching element connected in series. (Please read the precautions first and then write this page) This paper is used in a standard (CHS) A4 standard (210X297; «:) 81. 7. 20,000¾ (||) Λ 6 Π 6 Ministry of Economic Affairs Bureau of Standards S3: Industrial and Consumer Cooperation Co., Ltd. Du Printed V. Description of Invention (9) In addition, this system can be used as a power unit pQ for multi-level complex voltage output. It can also be used as power supply in addition to power supply Storage, so we can use the bidirectional conduction element for the series and parallel control elements of the power unit group P0, and the solid state switching element for regulating voltage and current also adopts bidirectional conduction element or reverse setting, so that this battery group or other storage element group or Multiple sets of independent DC power, multi-level complex voltage uniform output of the source, and the Niu Road have regulators that are matched with the external input storage energy for matching coupling. The above-mentioned power unit Po can further accept different voltage inputs and different voltage outputs through the change of the state of its multi-stage complex electric house to form a DC-DC converter or as a storage for the kinetic energy recovery from the load to generate power regeneration The functions of the power unit PG in the above applications include: ① Accept the input in the low voltage state and then change to the high-voltage output of the high-order connection state, as shown in Figure 7 for the low-voltage input and high-voltage output temporal schematic diagram. ② Accept the input in the high-voltage state and then change to the low-voltage output of the low-order connection state, as shown in Figure 8 for the high-voltage input and low-voltage output temporal schematic diagram. ③ The same pressure input and the same voltage output are used to isolate the input end and the output end, as shown in Figure 9 for the same pressure input and the same pressure output tense schematic circle. ④ Long time small current input, short time large current output, to constitute the power source of instantaneous large output, as shown in Figure 10 is a long time small current input short time large current. Current output temporal schematic diagram. ⑤ Short-time high-current input, long-time small-current output, in order to store electricity in a short time for long-term low-power consumers, as shown in Figure 〖丨 for short-term high-current input and long-term small-current output tense schematic diagram. ⑥ The power unit can be composed of batteries or capacitors and other components to form an electrical energy storage device (please read the precautions before filling out this page) Binding · Order-This paper is used in the standard a B home standard (CHS) ΊΜ specifications ( (210X297 public address) 81. 7. 20.000 sheets (11) Du Yinnu, A work elimination cooperation of the Central Bureau of Standards of the Ministry of Economics ... A 6 _Π6_ V. Description of invention (10) DC output input cycle interleaved operation, parallel to its relative load Capacitors or batteries with electrical energy storage properties, so that the output can be continuously powered, as shown in Figure 12 is the output temporal diagram of the output end with an electrical energy storage device 0 ⑦ DC input with bridge switch circuit for AC The output, as shown in circles 4 to 6 above, is its basic circuit type. In addition, in order to make the output side more stable, we can also install an electric energy storage device on the output side to stabilize its output. Fig. 13 is a schematic diagram of the main structure of the power conversion circuit with an energy storage device on the output side of the block, mainly including:-constituted by the aforementioned power unit with bidirectional serial parallel switching is off and can be used for complex voltage control output Po, and then The two-way distribution control switch SW1301 is connected in series between P 〇 and the load end and the input end. The switch SW1301 is composed of electromechanical or solid-state components, and is controlled by a central control unit (CCU) of digital logic type or analog type. The options are: connecting the input terminal to charge the power unit P〇; or connecting the power unit to the load to select the voltage output of the level; or from the load end to feed back the power unit to the power unit; and under special circumstances as the input end and the load end Direct connection; ——If the load end is a DC load, an electric energy storage device ESD, such as a battery, a capacitor, etc., can be further installed as required; if it is an AC output, a parallel resonance electric energy storage composed of an inductor L and a capacitor C can be set The storage device ESD, as shown in FIG. 14, is a schematic diagram of the output state of the AC electric energy storage device formed by the parallel inductance L and the capacitor C on the output side. The multi-phase output of the above circuit is coupled to each by multiple sets of switches (please read the precautions first and then go to this page). The paper size is free of Chinese National Standard (CNS) 4 specifications (210X297 male dragon) ) 81. 7. 20.000iic (!!) ί \ 6β V. Description of the invention (u) Between the electrical energy, the storage element and the power unit Po, each switch group is sequentially turned on with different phase difference cycles to make each power store The voltage waveforms on the inductor L and the capacitor C show the set phase difference. Based on the above, this design mainly provides an innovative design of a multi-stage complex voltage uniform output control circuit for battery packs or other storage element groups or multiple independent DC power supplies, and further combines linear or chopped solid-state switching elements to obtain multi-level Complex voltage output and class linear or class carrier type low and low ripple PVM voltage output or slowly boosted output or slowly reduced house output and further by using a conventional power supply device to add a voltage or current feedback detection element to set the current or limit the current Or fixed voltage age limit voltage output adjustment function, and further use a bidirectional solid-state switching element to control the reverse input circuit, or further cooperate with the traditional bridge type switching element composed of positive and reverse polarity output interface, and in each half cycle to complete the circuit by Low and high return to the low-potential periodic output, and obtain a nearly sinusoidal AC output by the synchronization of the two, and further control the relationship between the polarity exchange period and the complex voltage output voltage value in each half cycle to form a multi-level output waveform The converter is more traditionally obtained by connecting multiple sets of transformers in series The cost is low and the loss is low, so the efficiency is high. This circuit design is innovative and the function is accurate. Please review and verify according to law. (Please read the back and the precautions # fill out this page) Printed by the Dingyang Bureau of Economics and Technology, Deng, Ministry of Economic Affairs β Gongxiaot Cooperative Society ^ Paper Standard General Chinese B Family Sample Standard (NO) 〒4 specifications (210χΜ (Release) 81. 7. 20.000jk (H) Ten Central Standard of the Ministry of Economic Affairs " Printed by the Bureau ’s Staff Guzhi Cooperative Society " Figure 2 is an example of the waveform of the linear output of the multi-level complex aluminum voltage used as the cut-off PWM modulation. Figure 3 shows an example of the waveform of the linear output with multi-stage complex voltage as analog modulation. Fig. 4 is a schematic circle of DC to AC approximate sinusoidal output circuit block designed by bridge switch in this case. Yuan 5 is a block diagram of a DC to AC approximate sinusoidal output circuit designed by alternating current and output switches of two sets of DC to AC. Fig. 6 is an example of the working time and waveform of the approximate sinusoidal AC output of the synchronous cycle designed by the bridge switching element in this case. FIG. 7 is a schematic diagram of the voltage value of the design of this case, which can be used as multi-level complex voltage output into the power unit P0 for low voltage charging and high voltage discharge. FIG. 8 is a schematic diagram of the voltage value of the design of this case, which can be used as multi-level complex voltage output into the power unit P〇 for high-voltage charging and low-voltage discharge. FIG. 9 is a schematic diagram of the voltage value of the design of this case, which can be used as a multi-level complex voltage output into the power unit Po as an intermediate voltage output input. Fig. 10 is a schematic diagram of the current value of the design of this case, which can be used for multi-level complex voltage output into the power unit Po for small current charging and large current discharge. FIG. 11 is a schematic diagram of the current value of the design that can be used as a multi-stage complex voltage output into the power unit Po for large current charging and small current discharging. Fig. 12 is a schematic diagram of the voltage value of the design of this case, which can be used as a multi-stage complex voltage output into the power unit Po and an electrical energy storage device is provided at the output end. (Please read the precautions on the back before filling out this page)-Installed • • Played. • Green. This paper size is suitable for China ’s B Family Sturgeon (CNS) T4 specifications (210x297 mm) A6 B6 5. Description of the invention (13 ) Yuan 13 is a block diagram of an electric energy conversion circuit with an electric energy storage device designed on the output side of this case. Fig. 14 is a schematic diagram of the output state of the AC energy storage device formed by the parallel inductance and capacitance of the output side designed in this case. Description of part numbers and symbols in each drawing: Figure 1: B101, B102, B103, B14: storage elements S100, S101, S102, S103, S104: solid-state switching elements D100, D101, D102, D103, D104: drive circuit group CR101 , CR102, CR103, CR111, CR112, CR113: Diode CCU101: Central control unit 0P101: Control interface Figure 4: Ministry of Economic Affairs, Central Committee ;, 1 Bureau of Shanggong Consumer Cooperative Cooperative " (please read the back of the first (Notes and then fill in this page) • Ordering • Line P0: power unit SWF, SWR: switching element CCU: central control unit OUTPUT: output Figure 5: P〇: power unit P〇1, P〇2: power supply SWF SWR: Switching element CCU: Central control unit. The paper ft scale uses the Chinese National Pregnancy (CNS) A 4 specifications (210x297 mm). Λ 6 Π 6 CX Gongxiaoyao Cooperative Yinnu Description of the invention (14) OUTPUT: output figure 6: Po: power unit SWF, SWR: switching element OUTPUT: output figure 7, 8: P〇: power unit INPUT: input OUTPUT: output VL: low voltage state VH: high voltage state diagram 9: P〇: power unit INPUT: input OUTPUT: output Vo: power unit P Figure 10 and Figure 11 of the voltage across G: P0: power unit INPUT: input OUTPUT: output IL: low current I Η: high current Figure 12: Po: power unit (please read the precautions before writing the book) Page) Binding-Order _ Line, the paper size is used in a national pregnancy (CNS) Τ4 specification (210X297 male dragon) 81. 7. 2U, 000i (c (II) Λ 6 Ιϊ 6
經濟部中央標準局貝工消赀合作杜印M 2 Ο \j ύ ^ 五、發明説明(15) ESD :電能蓄儲裝置 INPUT :輸入 OUTPUT :輸出 VL :低壓狀態 VH :高壓狀態 Charge & to load: ESD充電及對負載供電中 Discharge to load : ESD對負載放電 圖13 : Po :電力單元 SW1301 :開關 _ ESD :電能蓄儲裝置 CCU :中央控制單元 INPUT :輸入 OUTPUT :輸出 圓14 : Po :電力單元 ESD :電能蓄儲裝置 INPUT :輸入 OUTPUT :輸出 VH :高壓狀態 (請先閲讀背而之注意事項#堝寫木頁) 裝- 訂 本紙张尺度边用中國8家樣準(CNS) f 4規格(210X297公没) 81. 2. 20,000Ministry of Economic Affairs, Central Standards Bureau, Beigong Consumer Cooperation Du Yin M 2 Ο \ j ύ V. Invention description (15) ESD: Electric energy storage device INPUT: Input OUTPUT: Output VL: Low voltage state VH: High voltage state Charge &to; load: Discharge to load during ESD charging and power supply to the load: ESD discharge to load Figure 13: Po: power unit SW1301: switch_ESD: electrical energy storage device CCU: central control unit INPUT: input OUTPUT: output circle 14: Po: Power unit ESD: Electric energy storage device INPUT: Input OUTPUT: Output VH: High voltage state (please read the back-end notes first) # 装 写 木 页) Packing-The size of the paper used in the Chinese standard (CNS) f 4 specifications (210X297 public) 81. 2. 20,000
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TW81106602A TW209922B (en) | 1992-08-20 | 1992-08-20 | Control circuit for battery set or D.C power source |
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TW81106602A TW209922B (en) | 1992-08-20 | 1992-08-20 | Control circuit for battery set or D.C power source |
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TW81106602A TW209922B (en) | 1992-08-20 | 1992-08-20 | Control circuit for battery set or D.C power source |
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Cited By (1)
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TWI395389B (en) * | 2005-10-19 | 2013-05-01 | Ltd Company Tm | Electric power storage system using capacitors and control method thereof |
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Cited By (1)
Publication number | Priority date | Publication date | Assignee | Title |
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TWI395389B (en) * | 2005-10-19 | 2013-05-01 | Ltd Company Tm | Electric power storage system using capacitors and control method thereof |
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