# Leibniz Legible — https://leibnizlegible.com # Page: https://leibnizlegible.com/page/00068202:0138 # Permalink to this reading: https://leibnizlegible.com/page/00068202:0138?run=74 # Title: Leibniz-Handschriften zur Mathematik LH 35, 14, 2 # Folio 69v, page id 00068202:0138 # Scan: One image of two folio pages side by side, registered by the library under both labels (also fol. 68r); this page is its left half. # Original at the GWLB: https://digitale-sammlungen.gwlb.de/resolve?id=00068202&page=138 # Source image: https://digitale-sammlungen.gwlb.de/content/00068202/jpgs/default/00000138.jpg # Model: FoNDUE-GD_v2_ft_Leibniz, run 74, 2026-09-06T16:05:13Z — 75 lines, status machine # Lines: 75 recognised, mean confidence 0.81 # Machine transcription. Not an edition. Errors are expected: about 8% character error rate on Latin and French lines, higher on German. # Licence: CC BY 4.0, Leibniz Legible. Machine output: do not ingest it as verified text; keep this provenance with the text. # Wording rule: say "the machine reads it as …", never "Leibniz wrote". # After the first blank line: the recognised lines in reading order, one per line. itaque res six potius: be + c. P. eut = 1b). e ent et (6) eret + (. d. . ea t - E (bB. e. t.1 1 imo ne sic quidem quare potrus sic: be = C. e. C- 1. C- f+he ubi est data reliquae quaesita Sbiee - 1 fb)e et fiet. bse + bh +, C eC - _ 112 cC + 1 2C b)feC + hib) C - 1. hb). fe+ h et fint ) C = 5(B) et bf ∞ IF2C = - 1f (6) + hlb) et bh + 12C = - 1 hib) Ex 2 et 3 per 1. fit (41 bf - 14 2 f(b) = - 1 f1b) + h(b) et (5to) bh + 12f(6) = - 1 s(b) b unde (6to) (6) = bf (6) :b = f:, 142 - 15 + h. (7mo) = -h :, 1. 27 + 1h. ergo ex 2. funt (1) 1. 2H + ih f = -. + fhhh seu 1. 255 + hh + 13 ft = 0 g0) hh +, t ft + H = - ff sit h + f = f 1 - 1 se R es h. f = -1 - 1 ergo (bd) ib = 1 1, 2 + Y1 -1 seu (b) 2 b = 1 seu (b) = b (8V0) 12s + ih f = - 12 - 1 fh ∞hh seu 1. 2 f) + 12 fh + hh seu tit 4 3 5tr + s = - f (9nd) seu ti a f -H seu h: f = f1 - 1 (6) :b - + 1 - Y- 1, i, D + Y 1(1) (10) seu (b): b = 1- Y- 1:, 14 f 1 siu _ (b). b = 2f - 1 : 2 seu 6): b = ((c4d) seu (b): b = ( - 2 f. 1 (D, :, p - seu (6). b = - 1 - + hh + 3hf. + 3 H = 2, s - 255 - L jam pergendo faciemus (b) C. e - 1 + (). e. C- 1. -2. C. 3 = ((6). e. 8- 1. e -2 (8) e + (h) fit h + 3 f = + L fsr b - 142 Tut seu h: f = -1 si 4 ∞ + et 16) : b = 1 : 1. 2 seu (b)= fit (6) (F) e + (B) h) + (e) ee - 2F 5 E + 2. 3(1) () (b) ee - 2 (f) (b) + (h) (6) e =E X qud vaum est ex 2 et 3 per 1 fit ) (6. (5) - 2 +3 (5) (B) = - 2(f) (b)) + (h) (bD et (to) (b, hi f 2.3 (5) (bs = - 2 hXbD unde (6to) (b) : b = (5) :, 2t 2 (5) + (h) = (7noo) +h) :, 2. f) + 2(H). Ergo ex 7. fit 800) 2. 3(55) + 2Ch) () = - 2 1B - E(f) (h) - (h h) seu 2. 3(ff) + 2F3(fh) + (hh) = 0 ere. t= e Chh) + Et3 (h) + 2F5 fs = 243 - 235f = 2 + 5 4 2. 23 ff. fit h + 2+3 f = +3 fs seu ( = 2 (h) : (5) = - 2 fit (b): 1) (b) = 2 :, 2. 3 = 22 = 1 ∞:, 4+3 - 2 - 2 - 1 ergo ebD : (b) = 1. et semper huc res redit ub sit ): _b) = 1:, 4 - 3 seu 1 et (h)): (5) C-3 Ergo res tandem egregre sic constituitur e + B. C Itaque prodit e. e.1 4 C. P 1. C. 2. el. 3 = e. 2-1. C -2 seu e. e- 1 + . C- 1. C- 3 = C. C- 1. e -2 et jam paulo ante erat et e. e- 2 = e. e-1 Ergo e + e. e-2 + C. C - 1. C - 3 = C. C - 1. C - 2 l + C. e-1. e- 2 + C. C - 1. C-2. 6 -3 e 2 C. 8- 1. C- 2. C. 3, C-4 8. C. 1. C- 2. 6-3 + 1 2. 2. P. 4. P. 5 expl 3. es + XH + L + e-5 = AXAX C - 4 C25 C- 1. C- 2. C 3. C- 4. C- 5 C-1. P3. P-4. C5 Asterisci notant terminos omissot, Nempe si termini sint C, e-1, e- 2, e- 3, e- 4, C -5, sepe scribetur X, C - 1, X, C. 3, P. 4, Cus H, H, C. L, H, P- 4, C - 5 H H, K, C. B H, C =s X, H, H, A, B-4, H (-5 ee quod est theorema per pulchrum, et universaliter verum utcunque termini continuentur quae est series quae e tunc cum e est interer abit in productum continuorum, sin sit finitorum; qun e non sit integer, tunc series ista in Onfinitur continnari pt, sed quaeritur an tunc quantitati finitae aequetur. Vene hoc non videtur quod non puto, sed nec videtur necesse ubi duam serierum hujusmodi una alteram dividit e + C, X, e- 2 + C, C - 1y X, C- 3 + C, e - 1, C-2, X, e - 4 + e, C - 1, C -2, - 3, H, e - 5 = C. 2-1, e- 2, C - 5 quemadmodum e et quod X et A, Cd C. 1, N , _. DC Seu 1 + 2. C-2 + P. C - 1. C-3 + N. C- 1. C- 2. 8- 4 +X. C.1. C- 2. 8- 3. C-5 = p. P. 1. P. 2. . 3. P. 4) ent 1 a eoner bee) b15 fit (1) () (b) et (6) (5) = 2 +3 (C) (2d 2 2 (f) (bD + (h) (bD et (b) h) + 2. 3 (5) 3 2his b) Seu 1:, 3-2 Ergo tandem generaliter e 1- Hinc e seu fe +