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76_SolarForecast: contrib 1.6.0
git-svn-id: https://svn.fhem.de/fhem/trunk@28281 2b470e98-0d58-463d-a4d8-8e2adae1ed80
This commit is contained in:
nasseeder1
parent
8bf0d9bcbb
commit
1d20bd26f4
@ -122,7 +122,7 @@ BEGIN {
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# Versions History intern (Versions history by Heiko Maaz)
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my %vNotesIntern = (
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"0.1.12" => "13.12.2023 extend possible number of bats from 9 to 12 ",
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"0.2.0" => "15.12.2023 extend possible number of batteries up to 14 ",
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"0.1.11" => "28.10.2023 add needed data format to commandref ",
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"0.1.10" => "18.10.2023 new function pseudoHexToText in _callManufacturerInfo for translate battery name and Manufactorer ",
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"0.1.9" => "25.09.2023 fix possible bat adresses ",
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@ -176,6 +176,7 @@ my %fns2 = ( #
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1 => { fn => \&_callAlarmInfo }, # alarmInfo
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2 => { fn => \&_callChargeManagmentInfo }, # chargeManagmentInfo
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3 => { fn => \&_callAnalogValue }, # analogValue
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);
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##################################################################################################################################################################
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@ -194,11 +195,11 @@ my %fns2 = ( #
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# CID2: Kommando spezifisch, hier 93H
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# LENGTH: LENID + LCHKSUM -> Pylon LFP V2.8 Doku
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# INFO: muß hier mit ADR übereinstimmen
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# CHKSUM: 32+30+30+42+34+36+39+33+45+30+30+32+30+42 = 01E5H -> modulo 65536 = 01E5H -> bitweise invert = 1111 1110 0001 1010 -> +1 = 1111 1110 0001 1011 -> FE1BH
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+39+33+45+30+30+32+30+41 = 02F1H -> modulo 65536 = 02F1H -> bitweise invert = 1111 1101 0000 1110 -> +1 = 1111 1101 0000 1111 -> FD0FH
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 20 0B 46 93 E0 02 0B FE 1B
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# 7E 32 30 30 42 34 36 39 33 45 30 30 32 30 42
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# ~ 20 0A 46 93 E0 02 0A FD 0F
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# 7E 32 30 30 41 34 36 39 33 45 30 30 32 30 41
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#
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my %hrsnb = ( # Codierung Abruf serialNumber, mlen = Mindestlänge Antwortstring
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1 => { cmd => "~20024693E00202FD2D\x{0d}", mlen => 52 },
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@ -209,10 +210,13 @@ my %hrsnb = ( # Codierung
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6 => { cmd => "~20074693E00207FD23\x{0d}", mlen => 52 },
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7 => { cmd => "~20084693E00208FD21\x{0d}", mlen => 52 },
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8 => { cmd => "~20094693E00209FD1F\x{0d}", mlen => 52 },
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9 => { cmd => "~200A4693E0020AFE1D\x{0d}", mlen => 52 },
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10 => { cmd => "~200B4693E0020BFE1B\x{0d}", mlen => 52 },
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11 => { cmd => "~200C4693E0020CFE19\x{0d}", mlen => 52 },
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12 => { cmd => "~200D4693E0020DFE17\x{0d}", mlen => 52 },
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9 => { cmd => "~200A4693E0020AFD0F\x{0d}", mlen => 52 },
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10 => { cmd => "~200B4693E0020BFD0D\x{0d}", mlen => 52 },
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11 => { cmd => "~200C4693E0020CFD0B\x{0d}", mlen => 52 },
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12 => { cmd => "~200D4693E0020DFD09\x{0d}", mlen => 52 },
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13 => { cmd => "~200E4693E0020EFD07\x{0d}", mlen => 52 },
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14 => { cmd => "~200F4693E0020FFD05\x{0d}", mlen => 52 },
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);
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# ADR: n=Batterienummer (2-x), m=Group Nr. (0-8), ADR = 0x0n + (0x10 * m) -> f. Batterie 1 = 0x02 + (0x10 * 0) = 0x02
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@ -221,10 +225,10 @@ my %hrsnb = ( # Codierung
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# LENGTH: LENID + LCHKSUM -> Pylon LFP V3.3 Doku
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# LENID = 0 -> LENID = 0000B + 0000B + 0000B = 0000B -> modulo 16 -> 0000B -> bitweise invert = 1111 -> +1 = 0001 0000 -> LCHKSUM = 0000B -> LENGTH = 0000 0000 0000 0000 -> 0000H
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# wenn LENID = 0, dann ist INFO empty (Doku LFP V3.3 S.8)
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# CHKSUM: 32+30+30+41+34+36+35+31+30+30+30+30 = 0185H -> modulo 65536 = 0185H -> bitweise invert = 1111 1110 0111 1010 -> +1 = 1111 1110 0111 1011 -> FE7BH
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+35+31+30+30+30+30 = 0263H -> modulo 65536 = 0263H -> bitweise invert = 1111 1101 1001 1100 -> +1 = 1111 1101 1001 1101 = FD9DH
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 20 0A 46 51 00 00 empty FE 7B
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# ~ 20 0A 46 51 00 00 empty FD 9D
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# 7E 32 30 30 41 34 36 35 31 30 30 30 30 - -
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#
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my %hrmfi = ( # Codierung Abruf manufacturerInfo, mlen = Mindestlänge Antwortstring
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@ -236,10 +240,12 @@ my %hrmfi = ( # Codierung
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6 => { cmd => "~200746510000FDA7\x{0d}", mlen => 82 },
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7 => { cmd => "~200846510000FDA6\x{0d}", mlen => 82 },
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8 => { cmd => "~200946510000FDA5\x{0d}", mlen => 82 },
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9 => { cmd => "~200A46510000FE7B\x{0d}", mlen => 82 },
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10 => { cmd => "~200B46510000FE7A\x{0d}", mlen => 82 },
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11 => { cmd => "~200C46510000FE79\x{0d}", mlen => 82 },
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12 => { cmd => "~200D46510000FE78\x{0d}", mlen => 82 },
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9 => { cmd => "~200A46510000FD9D\x{0d}", mlen => 82 },
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10 => { cmd => "~200B46510000FD9C\x{0d}", mlen => 82 },
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11 => { cmd => "~200C46510000FD9B\x{0d}", mlen => 82 },
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12 => { cmd => "~200D46510000FD9A\x{0d}", mlen => 82 },
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13 => { cmd => "~200E46510000FD8F\x{0d}", mlen => 82 },
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14 => { cmd => "~200F46510000FD8E\x{0d}", mlen => 82 },
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);
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# ADR: n=Batterienummer (2-x), m=Group Nr. (0-8), ADR = 0x0n + (0x10 * m) -> f. Batterie 1 = 0x02 + (0x10 * 0) = 0x02
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@ -248,10 +254,10 @@ my %hrmfi = ( # Codierung
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# LENGTH: LENID + LCHKSUM -> Pylon LFP V3.3 Doku
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# LENID = 0 -> LENID = 0000B + 0000B + 0000B = 0000B -> modulo 16 -> 0000B -> bitweise invert = 1111 -> +1 = 0001 0000 -> LCHKSUM = 0000B -> LENGTH = 0000 0000 0000 0000 -> 0000H
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# wenn LENID = 0, dann ist INFO empty (Doku LFP V3.3 S.8)
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# CHKSUM: 30+30+30+41+34+36+34+46+30+30+30+30 = 0191H -> modulo 65536 = 0191H -> bitweise invert = 1111 1110 0110 1110 -> +1 = 1111 1110 0110 1111 -> FE6FH
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# CHKSUM (als HEX! addieren): 30+30+30+41+34+36+34+46+30+30+30+30 = 0275H -> modulo 65536 = 0275H -> bitweise invert = 1111 1101 1000 1010 -> +1 = 1111 1101 1000 1011 -> FD8BH
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 00 0A 46 4F 00 00 empty FD 9A
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# ~ 00 0A 46 4F 00 00 empty FD 8B
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# 7E 30 30 30 41 34 36 34 46 30 30 30 30 - -
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#
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my %hrprt = ( # Codierung Abruf protocolVersion, mlen = Mindestlänge Antwortstring
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@ -263,16 +269,18 @@ my %hrprt = ( # Codierung
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6 => { cmd => "~0007464F0000FD95\x{0d}", mlen => 18 },
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7 => { cmd => "~0008464F0000FD94\x{0d}", mlen => 18 },
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8 => { cmd => "~0009464F0000FD93\x{0d}", mlen => 18 },
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9 => { cmd => "~000A464F0000FE6F\x{0d}", mlen => 18 },
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10 => { cmd => "~000B464F0000FE6E\x{0d}", mlen => 18 },
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11 => { cmd => "~000C464F0000FE6D\x{0d}", mlen => 18 },
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12 => { cmd => "~000D464F0000FE6C\x{0d}", mlen => 18 },
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9 => { cmd => "~000A464F0000FD8B\x{0d}", mlen => 18 },
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10 => { cmd => "~000B464F0000FD8A\x{0d}", mlen => 18 },
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11 => { cmd => "~000C464F0000FD89\x{0d}", mlen => 18 },
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12 => { cmd => "~000D464F0000FD88\x{0d}", mlen => 18 },
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13 => { cmd => "~000E464F0000FD87\x{0d}", mlen => 18 },
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14 => { cmd => "~000F464F0000FD86\x{0d}", mlen => 18 },
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);
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# CHKSUM: 32+30+30+41+34+36+39+36+45+30+30+32+30+41 = 01E6H -> modulo 65536 = 01E6H -> bitweise invert = 1111 1110 0001 1001 -> +1 = 1111 1110 0001 1010 -> FE1AH
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+39+36+45+30+30+32+30+41 = 02F4H -> modulo 65536 = 02F4H -> bitweise invert = 1111 1101 0000 1011 -> +1 1111 1101 0000 1100 = FD0CH
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 20 0A 46 96 E0 02 0A FE 1A
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# ~ 20 0A 46 96 E0 02 0A FD 0C
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# 7E 32 30 30 41 34 36 39 36 45 30 30 32 30 41
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#
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@ -285,16 +293,18 @@ my %hrswv = ( # Codierung
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6 => { cmd => "~20074696E00207FD20\x{0d}", mlen => 30 },
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7 => { cmd => "~20084696E00208FD1E\x{0d}", mlen => 30 },
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8 => { cmd => "~20094696E00209FD1C\x{0d}", mlen => 30 },
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9 => { cmd => "~200A4696E0020AFE1A\x{0d}", mlen => 30 },
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10 => { cmd => "~200B4696E0020BFE18\x{0d}", mlen => 30 },
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11 => { cmd => "~200C4696E0020CFE16\x{0d}", mlen => 30 },
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12 => { cmd => "~200D4696E0020DFE14\x{0d}", mlen => 30 },
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9 => { cmd => "~200A4696E0020AFD0C\x{0d}", mlen => 30 },
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10 => { cmd => "~200B4696E0020BFD0A\x{0d}", mlen => 30 },
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11 => { cmd => "~200C4696E0020CFD08\x{0d}", mlen => 30 },
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12 => { cmd => "~200D4696E0020DFD06\x{0d}", mlen => 30 },
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13 => { cmd => "~200E4696E0020EFD04\x{0d}", mlen => 30 },
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14 => { cmd => "~200F4696E0020FFD02\x{0d}", mlen => 30 },
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);
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# CHKSUM: 32+30+30+41+34+36+34+34+45+30+30+32+30+41 = 01DFH -> modulo 65536 = 01DFH -> bitweise invert = 1111 1110 0010 0000 -> +1 = 1111 1110 0010 0001 -> FE21H
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+34+34+45+30+30+32+30+41 = 02EDH -> modulo 65536 = 02EDH -> bitweise invert = 1111 1101 0001 0010 -> +1 1111 1101 0001 0011 = FD13H
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 20 0A 46 44 E0 02 0A FE 21
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# ~ 20 0A 46 44 E0 02 0A FD 13
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# 7E 32 30 30 41 34 36 34 34 45 30 30 32 30 41
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#
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@ -307,16 +317,18 @@ my %hralm = ( # Codierung
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6 => { cmd => "~20074644E00207FD27\x{0d}", mlen => 82 },
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7 => { cmd => "~20084644E00208FD25\x{0d}", mlen => 82 },
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8 => { cmd => "~20094644E00209FD23\x{0d}", mlen => 82 },
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9 => { cmd => "~200A4644E0020AFE21\x{0d}", mlen => 82 },
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10 => { cmd => "~200B4644E0020BFE1F\x{0d}", mlen => 82 },
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11 => { cmd => "~200C4644E0020CFE1D\x{0d}", mlen => 82 },
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12 => { cmd => "~200D4644E0020DFE1B\x{0d}", mlen => 82 },
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9 => { cmd => "~200A4644E0020AFD13\x{0d}", mlen => 82 },
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10 => { cmd => "~200B4644E0020BFD11\x{0d}", mlen => 82 },
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11 => { cmd => "~200C4644E0020CFD0F\x{0d}", mlen => 82 },
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12 => { cmd => "~200D4644E0020DFD0D\x{0d}", mlen => 82 },
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13 => { cmd => "~200E4644E0020EFD0B\x{0d}", mlen => 82 },
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14 => { cmd => "~200F4644E0020FFCFE\x{0d}", mlen => 82 },
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);
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# CHKSUM: 32+30+30+41+34+36+34+37+45+30+30+32+30+41 = 01E2H -> modulo 65536 = 01E2H -> bitweise invert = 1111 1110 0001 1101 -> +1 = 1111 1110 0001 1110 -> FE1EH
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+34+37+45+30+30+32+30+41 = 02F0H -> modulo 65536 = 02F0H -> bitweise invert = 1111 1101 0000 1111 -> +1 1111 1101 0001 0000 = FD10H
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 20 0A 46 47 E0 02 0A FE 1E
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# ~ 20 0A 46 47 E0 02 0A FD 10
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# 7E 32 30 30 41 34 36 34 37 45 30 30 32 30 41
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#
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@ -329,16 +341,18 @@ my %hrspm = ( # Codierung
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6 => { cmd => "~20074647E00207FD24\x{0d}", mlen => 68 },
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7 => { cmd => "~20084647E00208FD22\x{0d}", mlen => 68 },
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8 => { cmd => "~20094647E00209FD20\x{0d}", mlen => 68 },
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9 => { cmd => "~200A4647E0020AFE1E\x{0d}", mlen => 68 },
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10 => { cmd => "~200B4647E0020BFE1C\x{0d}", mlen => 68 },
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11 => { cmd => "~200C4647E0020CFE1A\x{0d}", mlen => 68 },
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12 => { cmd => "~200D4647E0020DFE18\x{0d}", mlen => 68 },
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9 => { cmd => "~200A4647E0020AFD10\x{0d}", mlen => 68 },
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10 => { cmd => "~200B4647E0020BFD0E\x{0d}", mlen => 68 },
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11 => { cmd => "~200C4647E0020CFD0C\x{0d}", mlen => 68 },
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12 => { cmd => "~200D4647E0020DFD0A\x{0d}", mlen => 68 },
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13 => { cmd => "~200E4647E0020EFD08\x{0d}", mlen => 68 },
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14 => { cmd => "~200F4647E0020FFD06\x{0d}", mlen => 68 },
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);
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# CHKSUM: 32+30+30+41+34+36+39+32+45+30+30+32+30+41 = 01E2H -> modulo 65536 = 01E2H -> bitweise invert = 1111 1110 0001 1101 -> +1 = 1111 1110 0001 1110 -> FE1EH
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+39+32+45+30+30+32+30+41 = 02F0H -> modulo 65536 = 02F0H -> bitweise invert = 1111 1101 0000 1111 -> +1 1111 1101 0001 0000 = FD10H
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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# ~ 20 0A 46 92 E0 02 0A FE 1E
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# ~ 20 0A 46 92 E0 02 0A FD 10
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# 7E 32 30 30 41 34 36 39 32 45 30 30 32 30 41
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#
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@ -351,10 +365,12 @@ my %hrcmi = ( # Codierung
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6 => { cmd => "~20074692E00207FD24\x{0d}", mlen => 38 },
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7 => { cmd => "~20084692E00208FD22\x{0d}", mlen => 38 },
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8 => { cmd => "~20094692E00209FD20\x{0d}", mlen => 38 },
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9 => { cmd => "~200A4692E0020AFE1E\x{0d}", mlen => 38 },
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10 => { cmd => "~200B4692E0020BFE1C\x{0d}", mlen => 38 },
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11 => { cmd => "~200C4692E0020CFE1A\x{0d}", mlen => 38 },
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12 => { cmd => "~200D4692E0020DFE18\x{0d}", mlen => 38 },
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9 => { cmd => "~200A4692E0020AFD10\x{0d}", mlen => 38 },
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10 => { cmd => "~200B4692E0020BFD0E\x{0d}", mlen => 38 },
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11 => { cmd => "~200C4692E0020CFD0C\x{0d}", mlen => 38 },
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12 => { cmd => "~200D4692E0020DFD0A\x{0d}", mlen => 38 },
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13 => { cmd => "~200E4692E0020EFD08\x{0d}", mlen => 38 },
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14 => { cmd => "~200F4692E0020FFD06\x{0d}", mlen => 38 },
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);
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# ADR: n=Batterienummer (2-x), m=Group Nr. (0-8), ADR = 0x0n + (0x10 * m) -> f. Batterie 1 = 0x02 + (0x10 * 0) = 0x02
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@ -363,10 +379,10 @@ my %hrcmi = ( # Codierung
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# LENGTH: LENID + LCHKSUM -> Pylon LFP V3.3 Doku ---- --------------
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# LENID = 02H -> LENID = 0000B + 0000B + 0010B = 0010B -> modulo 16 -> 0010B -> bitweise invert = 1101 -> +1 = 1110 -> LCHKSUM = 1110B -> LENGTH = 1110 0000 0000 0010 -> E002H
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# wenn LENID = 0, dann ist INFO empty (Doku LFP V3.3 S.8)
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# CHKSUM: 32+30+30+41+34+36+34+32+45+30+30+32+30+41 = 01DDH -> modulo 65536 = 01DDH -> bitweise invert = 1111 1110 0010 0010 -> +1 = 1111 1110 0010 0011 -> FE23H
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# CHKSUM (als HEX! addieren): 32+30+30+41+34+36+34+32+45+30+30+32+30+41 = 02EBH -> modulo 65536 = 02EBH -> bitweise invert = 1111 1101 0001 0100 -> +1 1111 1101 0001 0101 = FD15H
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#
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# SOI VER ADR CID1 CID2 LENGTH INFO CHKSUM
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||||
# ~ 20 0A 46 42 E0 02 0A FE 23
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# ~ 20 0A 46 42 E0 02 0A FD 15
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# 7E 32 30 30 41 34 36 34 32 45 30 30 32 30 41
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||||
#
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my %hrcmn = ( # Codierung Abruf analogValue
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||||
@ -378,10 +394,12 @@ my %hrcmn = ( # Codierung
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||||
6 => { cmd => "~20074642E00207FD29\x{0d}", mlen => 128 },
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7 => { cmd => "~20084642E00208FD27\x{0d}", mlen => 128 },
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8 => { cmd => "~20094642E00209FD25\x{0d}", mlen => 128 },
|
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9 => { cmd => "~200A4642E0020AFE23\x{0d}", mlen => 128 },
|
||||
10 => { cmd => "~200B4642E0020BFE21\x{0d}", mlen => 128 },
|
||||
11 => { cmd => "~200C4642E0020CFE1F\x{0d}", mlen => 128 },
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12 => { cmd => "~200D4642E0020DFE1D\x{0d}", mlen => 128 },
|
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9 => { cmd => "~200A4642E0020AFD15\x{0d}", mlen => 128 },
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10 => { cmd => "~200B4642E0020BFD13\x{0d}", mlen => 128 },
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11 => { cmd => "~200C4642E0020CFD11\x{0d}", mlen => 128 },
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12 => { cmd => "~200D4642E0020DFD0F\x{0d}", mlen => 128 },
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13 => { cmd => "~200E4642E0020EFD0D\x{0d}", mlen => 128 },
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14 => { cmd => "~200F4642E0020FFD0B\x{0d}", mlen => 128 },
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);
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@ -437,8 +455,8 @@ sub Define {
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($hash->{HOST}, $hash->{PORT}) = split ":", $args[2];
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$hash->{BATADDRESS} = $args[3] // 1;
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if ($hash->{BATADDRESS} !~ /[1-9]|1[0-2]$/xs) {
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return "Define: bataddress must be a value between 1 and 12";
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if ($hash->{BATADDRESS} !~ /^([1-9]{1}|1[0-4])$/xs) {
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return "Define: bataddress must be a value between 1 and 14";
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}
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my $params = {
|
||||
@ -1515,7 +1533,7 @@ The data format must be set on the RS485 gateway as follows:
|
||||
|
||||
<b>Limitations</b>
|
||||
<br>
|
||||
The module currently supports a maximum of 8 batteries (master + 7 slaves) in one group.
|
||||
The module currently supports a maximum of 14 batteries (master + 13 slaves) in one group.
|
||||
<br><br>
|
||||
|
||||
<a id="PylonLowVoltage-define"></a>
|
||||
@ -1535,7 +1553,7 @@ The module currently supports a maximum of 8 batteries (master + 7 slaves) in on
|
||||
Device address of the Pylontech battery. Several Pylontech batteries can be connected via a Pylontech-specific
|
||||
Link connection. The permissible number can be found in the respective Pylontech documentation. <br>
|
||||
The master battery in the network (with open link port 0 or to which the RS485 connection is connected) has the
|
||||
address 1, the next battery then has address 2 and so on.
|
||||
address 2, the next battery then has address 3 and so on.
|
||||
If no device address is specified, address 1 is used.
|
||||
</li>
|
||||
<br>
|
||||
@ -1706,7 +1724,7 @@ Das Datenformat muß auf dem RS485 Gateway wie folgt eingestellt werden:
|
||||
|
||||
<b>Einschränkungen</b>
|
||||
<br>
|
||||
Das Modul unterstützt zur Zeit maximal 8 Batterien (Master + 7 Slaves) in einer Gruppe.
|
||||
Das Modul unterstützt zur Zeit maximal 14 Batterien (Master + 13 Slaves) in einer Gruppe.
|
||||
<br><br>
|
||||
|
||||
<a id="PylonLowVoltage-define"></a>
|
||||
@ -1726,7 +1744,7 @@ Das Modul unterstützt zur Zeit maximal 8 Batterien (Master + 7 Slaves) in einer
|
||||
Geräteadresse der Pylontech Batterie. Es können mehrere Pylontech Batterien über eine Pylontech-spezifische
|
||||
Link-Verbindung verbunden werden. Die zulässige Anzahl ist der jeweiligen Pylontech Dokumentation zu entnehmen. <br>
|
||||
Die Master Batterie im Verbund (mit offenem Link Port 0 bzw. an der die RS485-Verbindung angeschlossen ist) hat die
|
||||
Adresse 1, die nächste Batterie hat dann die Adresse 2 und so weiter.
|
||||
Adresse 2, die nächste Batterie hat dann die Adresse 3 und so weiter.
|
||||
Ist keine Geräteadresse angegeben, wird die Adresse 1 verwendet.
|
||||
</li>
|
||||
<br>
|
||||
|
||||
@ -6449,7 +6449,7 @@ sub _batSocTarget {
|
||||
#######################################
|
||||
my $pvfctm = ReadingsNum ($name, 'Tomorrow_PVforecast', 0); # PV Prognose morgen
|
||||
my $pvfctd = ReadingsNum ($name, 'RestOfDayPVforecast', 0); # PV Prognose Rest heute
|
||||
my $pvexpect = $pvfctm > $pvfctd ? $pvfctm : $pvfctm;
|
||||
my $pvexpect = $pvfctm > $pvfctd ? $pvfctm : $pvfctd;
|
||||
|
||||
my $batinstcap = CurrentVal ($hash, 'batinstcap', 0); # installierte Batteriekapazität Wh
|
||||
my $needcharge = $batinstcap - ($batinstcap / 100 * $batcharge); # vorläufige benötigte Ladeenergie (Wh) bis 100% SOC
|
||||
@ -6475,6 +6475,7 @@ sub _batSocTarget {
|
||||
|
||||
my $careSoc = $maxsoc - ($days2care * $batSocChgDay); # Pflege-SoC um rechtzeitig den $maxsoc zu erreichen bei 5% Steigerung pro Tag
|
||||
$target = $careSoc < $target ? $target : $careSoc; # resultierender Target-SoC unter Berücksichtigung $caresoc
|
||||
$target = sprintf "%.0f", $target;
|
||||
|
||||
## pvHistory/Readings schreiben
|
||||
#################################
|
||||
|
||||
Loading…
x
Reference in New Issue
Block a user