# Leibniz Legible — https://leibnizlegible.com # Page: https://leibnizlegible.com/page/00068195:0029 # Permalink to this reading: https://leibnizlegible.com/page/00068195:0029?run=74 # Title: Leibniz-Handschriften zur Mathematik LH 35, 12, 2 # Folio 15r, page id 00068195:0029 # Original at the GWLB: https://digitale-sammlungen.gwlb.de/resolve?id=00068195&page=29 # Source image: https://digitale-sammlungen.gwlb.de/content/00068195/jpgs/default/00000029.jpg # Model: FoNDUE-GD_v2_ft_Leibniz, run 74, 2026-09-06T16:05:13Z — 38 lines, status machine # Lines: 38 recognised, mean confidence 0.90 # 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. res Numeri qui sint Summa duorum torum Differentia eorundem Duplum Rectangulum sub Lateribus untra Bas in vel Cathetum) verbo latu circa primitivi Cathetum vel Basin) rectum) Cujuscumue Triangulum rectangulum Numericum voco, cujus ni tria latera omnia in numeris integris exprimi possunt. Latera, inquam, id est hypotenusa sive subtendens angulum rectum; et et duo latera irca rectum, quorum l alterutrum basis, alterum cathetus vocatur Triangulum rectangulum Numericum primitivum est, cujus latera non habent mensuram communem Theorema Monadicum Solus. Numerorum (: untate najium) Binarius latus Frianguli Rectanguli Numerici esse non potest: cateri omnes possunt. d est quonium quadati sunt pur uinet es dasunt divisa per maximam quam habent communem ineu Micmgut. potenusam rectanguli Numerici AC, 1. CbX. BE, y. yy aequ. 1 = xX seu y aequ. si -xx hyaequ. a aquta ix aqtx, itia, i-Xx aequ. 1+X, 1+ x1+ YX, 1-1x. et ila porro. posito Z esse inffinitur =finitum hoc modo: yy aequ . - XX aequ. 1+ X, 1+ YX, 1+ VX, 1+, 1+X, et. 1S- S Est autem 1 - x aqu 1 - (Z) X Ergo si Z infinita fit = aequ. 0. c inde sieb: IZ(x aequ. Fo(X aequ. 1. Ergo = YX aequ. 1 - 1 aequ. 0. non quod omnino sit 0 sed quod sit quantitas in finitesina ergo _2 lg aequ. 1 x + 11t ed + Cit s 8c