# Leibniz Legible — https://leibnizlegible.com # Page: https://leibnizlegible.com/page/00068196:0187 # Permalink to this reading: https://leibnizlegible.com/page/00068196:0187?run=74 # Title: Leibniz-Handschriften zur Mathematik LH 35, 13, 1 # Folio 95r, page id 00068196:0187 # Scan: One image of two folio pages side by side, registered by the library under both labels (also fol. 96v); this page is its right half. # Original at the GWLB: https://digitale-sammlungen.gwlb.de/resolve?id=00068196&page=187 # Source image: https://digitale-sammlungen.gwlb.de/content/00068196/jpgs/default/00000187.jpg # Model: FoNDUE-GD_v2_ft_Leibniz, run 74, 2026-09-06T16:05:13Z — 52 lines, status machine # Lines: 52 recognised, mean confidence 0.79 # 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. dy: dx = Xx + gy,: aa sit Y: a = sdz: Z et y: a = sAZR: V dy: dx (= dZ: v7 :, dz. Z) = Z: V () qu 5 aZ. Z + qu Saz. V differentietur aequatio S, tiet Zd (210) = siz. dz + silh, az. seut fiet: ponatur d. 1) esse constans se l(7. v)310 fiet det eleC 14 Hin vo on v +ddZe (Zst + L st per aeq. 5 et 6 tollatur Saz: Z et saz: V 2 (X, Xax + yag = X. + Xyy - y = = X + sxy dy aa aa aa (X dedy : dx) = X dy y xdy : dx -y aa da Z v. = t dd Z SX de = x XC- y posito co = aty: de X3+ sit ceta Y C = ((at + X+), 1 Sit co cd telle YL dc = +X dx: t(C + ). Ergo posito axila + X) datur SX x: +(a X) + 1 = VO ded = d0: 10. Ergo si detur fdx YB datur + (xdO: 10, et viceversa nam est 2x dCd 3 ) = X. C = Sdx VO d XX - 2Xax dy = pdx + ydx solubilis P- 1 ady = ypdr + y 9dx fiat y = v et prodit ae D du = v ptXx + v qx sia C = C 1: n seu aC de _ Vpdx + v odx F sit en -et 1=0 seu e = 1., 1-n et fei acd _, Ln adv = v pax + G dx perto ad =( px +C qux Multiplicetur per Iliter porro adco = coF pdx + co cgdx fiat c0 = y eut deo = Y p dus rf- Y+ o=11I pdx + cd. odx sed hic non possum efficere ut alter terminus sit y, quia si faciat rf-r = 0, evanesert r assumta ad = p dx + ci gdx multiplicetur per ed fiet acd de = pco Ax + C cgdx fiat co = yt, et prodit er+r-1 a( ary odx. Ubi vide nihil prodesse e quia sobi potest adus = ypax + y gdx Solvi poterit proaequatio trium cum ubique ex, detrahi possit membrorum talis, quoties cunque duo termint a duae affectiones ipsius u se habent ut summa et differentia, verb. gr. sit ydus _ = gypdx + y gdx, nam qdx quod solvi potest ro ye ponendo Z fiet dZ = Z plX + Zn: a v du n