# Leibniz Legible — https://leibnizlegible.com # Page: https://leibnizlegible.com/page/00068082:0004 # Permalink to this reading: https://leibnizlegible.com/page/00068082:0004?run=73 # Title: Leibniz-Handschriften zur Mathematik LH 35, 7, 11 # Folio 2v, page id 00068082:0004 # Original at the GWLB: https://digitale-sammlungen.gwlb.de/resolve?id=00068082&page=4 # Source image: https://digitale-sammlungen.gwlb.de/content/00068082/jpgs/default/00000004.jpg # Model: FoNDUE-GD_v2_ft_Leibniz, run 73, 2026-08-27T15:28:38Z — 170 lines, status machine # Lines: 170 recognised, mean confidence 0.78 # 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. des raitons l’Europe raisennable, ou l’indien informé de ce qu’il y a de plus consideroble dans nos creames et practiques cum quadruto ametri seu cregmscripto incommen farabilia sint Octogonum sedecangulum, Brangulum, ec quam et omnuo soligonum quodlunque, quod bilecando fit, quaeritur an hinc demonstrari possit, apsum sirculum qui est ultimus horum polysguncram etse inconmmensurabilem quadrato dametpi etunc quantitas- Si circulus est quadrato diametri commensurabilis 1- + 1 - 2 + - + - = etc multiplicata per aliquem numerum, integrum, dabit numerum integrum, seu e - e + e - e + e dc poterit esse numeus integer posito e esse integuum; seu 2e + 3C + 2C etc. erit numoius integer e cum quilibet horum sis. fractus, seu in integris exprimatur per seriem infinitam, necesse foret omnia destrui additione seu abire in o 8 1o. 9 u 10. 5 1. 7 1on6 10.3 1. 4 1o03 ont 10. 10r0 Io+I 10t2 1013 1otq ton hons hor ton 3 le nadi1 1 ago iost Ddt ocst nomt unno pAe aequ i0 hoco roreoo uoreoeo rovroromo B tonus aequ 10 200 ot A+B aequ militer 1ost 10r8. C . . a9. + + 100o + E0 + 8 + 203 etc 10 1odo 1000or 3 3r 41 15 19dc+ + eu pro iculorit si debeamus aodere L + + + + + 1 (5, 25 2g 59q euit + + dic + u + i + i ec + L sed inciiculo summaaddendu destructio illa divisore G81 oetb 6obi existente decimali oaa que procedit 1 C 1000eoo - 10-3 1 + 1 + 3 10 10 - 7 1 1 1 a L1o25 16-9 10- 13 Hec summa tauto propius accedit Circulo, quanto altior quantitus est numerus e 3 +3 103 + 10 125 i aegu 10 7 oe 1 3 pxrarise osisiarsi ideoir 1029 59 1 10C + 7e 1e hc Et pro quantiale quae magnitudini cicculi in tantum accedat, in quantum 1 + d + 11 + 1 10 a Sc U O 1te + 112 etC 10 numeius e assumitur magur, habebitur: 1+1=171 = 1+ 14 1 +1 aequ. 0 - 3 + 5. - 7 1 +9 P. 11 +13 ∞ 15. 11 Xa19+ 21Vc ag. -3+5= 7 + 9 = 1+ 13 15 4 11 19 + 21 Ec 345 - 7 + 9 - 11 + 13 - 15 + 17 - 19 + 21 dc 3+ 5t - 7 + 9 - 15t + et - 15 + 15 - 19 121 hc +2 + 2 +2 + 2 dc.) se psum 10 16 +32 + 48+64 + 80 48 10 98 + 366. + 866. + 1586 H, 040 2.43 La-3 sum de sum o4 x + 3. R ix + 3 (x. (X, posito X esse numeros naturales utile autem erit rem ita institui ut per 10, inveniantur omnes summae protermini se constat autem alunde quae sit quorum denominatores sunt infra 10; per 10 omnes quorum denominatores sint infra 100 ita porro. per 10 omnes quorum denominatores, sunt infra 1000. Ditems 2= item rono- qu s 1 Et ita terminus ultimus addendorum, O, est 10-9 100-90 summae autem omnium X, X, X, erc. praecedentium semper in caleulo sunt anterendae. (1 egx posito X termino ultimo seu sX aego fX- t + si ego (xt + x. jam fx + sai aequ X Superest ut quaeraumus summas omnium hA, X, X, et. maximo oem adhibemus. (X sii aequ et (X- (X-, aequ. X etC. (N - 2sX + Si aequ SX - 25X + X. Ergo per 1 et 2 fiet sx agu X + Y seu B apo AX+ et TX - (X - 1, ai Jam SX = 1 aequ. SX - 51. Ergo per 1 et 10 erit si aque Manifestum est, essex (X = sX1 aq. X - 491 1X + 5 X 1 X r 198Gden 3 scarear X SX. agb. sX 4GXL 6 SX- 4 sx + Srop s 4s+ (6. 3, X , 3. nda -n - a XEx 1 ∞) y 2 2 S aqu. X3+ B- s ausi item SX aeq Sx3SX + 3 Sx - si aequ sX a 35X 4 L. ) X L X. Ergo per 12 et 3 erit Et ita habetur progressio in infinitum qua a similiter sx-1 aequ (x sive D aequ. X + 6C - + B+ . A Lceno) quod in nostro se invicem derivantur. Daequ. X + 6C - 4B+ 14. E aequ. X + 15 D - 15C + 5B - 1A. Et ita porro et eodem modo olinuando: E sive Sxt aequ. X +15D - 45C + 5B - 1 A adtoque per sere et casu sufficit nec opres est rem reduci ad ipsas potentias Aago X Baego X + 1A C ag. 1X + 3B - 1A Baequ AIX At aX. Caequ. 21 t 3. Ox + 3i x .2.3 AX = 153, 2 1X = 15. 6. 3+ X 15. 6.9. X 4 +X - 15. 3. 4. 1X 44 15. 2+ 33 17 2. 3 2. 3X + 69. 2, 2 eti Daeg. 3. 2. 1X + 6. 2. 1 X + 631X = 6. 21 X = 3. 4. 1 + - 3 . 1X 1. 2. 3. 4 F5. 2. 1X de summis potentiarum qu -3 16-7 aqu 144 erc la e est X 9d 3. 7. 11 dc est 4X + 32 diff. 2. f. 53 2e 5. 9. (3dtc est 4X+ 5 16X + 24X + 9 18 diff. 19245 23. 7 64X + (49X + 108X + 27 2di 96X g2 +9B 33. 97 S4 x 2+ 24OX + 300X + 1 25) (en 3. 165 X+ 3 4 5. 5 X +4.4. X+64. 3 xt 4+ 3r) Bisserentia ent s isis 2 29Z 491. 22G 125 323 343 12 34. 386 306+ 169 7 169 od 386 . 48 19 88 288 Era rit sum. 4. 473 + 18- 41 Haec (alia scheda accuratius exhibui, et penitus absolvi