# Leibniz Legible — https://leibnizlegible.com # Page: https://leibnizlegible.com/page/00068196:0751 # Permalink to this reading: https://leibnizlegible.com/page/00068196:0751?run=74 # Title: Leibniz-Handschriften zur Mathematik LH 35, 13, 1 # Folio 378r, page id 00068196:0751 # Original at the GWLB: https://digitale-sammlungen.gwlb.de/resolve?id=00068196&page=751 # Source image: https://digitale-sammlungen.gwlb.de/content/00068196/jpgs/default/00000751.jpg # Model: FoNDUE-GD_v2_ft_Leibniz, run 74, 2026-09-06T16:05:13Z — 45 lines, status machine # Lines: 45 recognised, mean confidence 0.84 # 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. sit Trilineum orthogonium ABCA cujus certrum gravitatis. G augeatur nova B2BrC hona basi parallela B(B) ()C. Cuius centrum gravitatis, sit 19 jungatur G9 et secetur 1G19 in 2G sic ut reciproce secundum a ut ABCA, et B B, (C) B, erit G centrum grabitatis totius A, B2CA. Eodem modo trilineum A2B+ A AP ALB2C A ad datudm B3B, C=CZgna 2B3B3C2C, cujus centrum 29, junctaque 292G rursus secando quaeratur centum commune 3G, patet curvae intero alla 1B2B, 203B sint infinite parva, esse gG rectas gG, tantes ex dio medio puncto ipsius BC e ductas, esse tangentes curvae centrorum GG Hinc si sit trilineum ABC A, et in eolinea centrorum pavitalis AG, transiens per omnia centra trilineorum praecedentium ad eandem curvam et Axem et ex M puncto medio basis ducatur recta ad MG ad centrum trilinei, ea recta curvam AG fanget, videamus an hoc generali calcuo m etiam calculo Einfinite simali perdraliter inveniri possit sit cueo AB, X et BC, y. fiet Area C du cendoad momentum ex axcerit Z Syydx. itaque ex axem normalem FG erit ea v 2 syyix: Sydx. Quaeramus et momentum ex ydx et normali per verticem, quod est Sxydx. Et fiet AF = sxydx: sydx =Z sit AF, Z et FG, v, fi ob 3 28 = sygdx: sydx et Q = sxydx: sydx. Et fiet 2a∞sydx + 9G 2B9 x = gyax. seu fiet yda pydda fit 2d7 = 2dQ sydx + y dx(syydx: sydx) = yydx. seu fiet dD- n. Z Z. v = sju ax. sxydx yyde = ydx (By, ex. sa ), . 1 rursus fs Xsgax = (Xydx fint dx syax + By ax = xy dx seu de sydex + yda (Serexi be h) ey seu Ex = Xydx = ydx (sxydx: Sydx): sydx. Ergo fiet do: X re x (srgix sylX): ali x sstX) (sygax. fu (X) = BM - FG,: FB d FG = V = Esyydx. sy dx X = ( sXyax: Sydx. Ergo dv: dx = 4y - FB = AB - ex t AF = x - Syydx. Sydx 2x) ax -2) dx (Spy ex sy (Xydx: Sisdx, : , 2X ut ante. itaque idem theorema calculo obtinetur, quod ex inspectione y + BM = figurae duximus. sed hoc interest, quod ex calculo aliuo facile animad pertisset