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I conversions

 

" = inch

1 " = .083 ft

1/16 " = .16 cm

1/8 " = .32 cm

1/4 " = .64 cm

1/2 " = 1.27 cm

3/8 " = .95 cm

3/4 " = 1.91 cm

5/8 " = 1.59 cm

7/8 " = 2.22 cm

I = confocal conics

       = (x2/(a2 + k)) + (y2/(b2 + k)) + (z2/(c2 + k))

I = current, Amps

     = A

     = Q/t

     = w/V  (Amp)

     = 746 Hp/V ∙ eff (motor)

I = AT/m

       = dq/dt

       = qv/l

I = interest

       = Prt

I = flux density

      = I0e-ax

I = intensity

I = total capital investment in robot and accessories ($)

I1 = P1/E1 (Parallel)

       = √(P1/R1) (Parallel)

       = E1/R1 (Parallel)

       = P1/E1 (Series)

       = √(P1/R1) (Series)

       = k (Series)

       = E1/R1 (Series)

       = P1/E1 (Series Parallel)

       = E1/R1 (Series-Parallel)

IAC = (746 ∙ hp)/eff. ∙ PF. ∙ √#ph. ∙ V   (Amps)

Icoil = A

IE = exciting current

       = IM + IH

IEXP = voltage drop caused by prim. inductive reactance

IEZP = voltage drop from prim. impedance

IH = core loss current

Il = qv

Im = magnetizing current

Im = magnetizing I

      = Iexciting

      = I through generator field windings

I0 = flux density - entrance

IP = I'P + IE

I'P = Is reflected into prim.

        = Ns/NP · Is

        = Is/a

IPRP = resist. volt. drop in phase with IP

IPXP = induct. react. volt drop from IP

IPZP = IPRP + IPXP

        = actual prim. volt drop

IReq. = (746 ∙ hp)/(V ∙ eff)  (DC amps)

Is = 2nd current

        = Es/((Rs + Rl) + j(Xs + Xl))

IsRs = resist volt. drop in phase with IP

IsXs = induct. react. volt drop from 2nd I flow through 2nd induct react

IsZs = voltage drop across 2nd impedance

        = IsRs + IsXs

IT = PT/EA (Parallel)

      = IA + IB + IC (Parallel)

      = EA/RT (Parallel)

      = P/E (Series)

      = √(P/R) (Series)

      = E/R (Series)

      = PT/EA (Series-Parallel)

      = EA/RT (Series-Parallel)

ITP = IA + IB + IC (Series-Parallel)

ITS = ITP (Series-Parallel)

i = ndiss.

[i] = PPi

     = Mi

     = ni/V

     = Pi/RT

[i](gas) = ni/V

         = Pi /RT

IHp = indicated horsepower

       = 2PaLAN/33000

IMA = ideal mechanical advantage

        = radiuslarge wheel/radiussmall wheel

        = EA/RA

        = EA/RA (levers)

        = ED/RD

        = ED/RD (inclined plane)

        = RadiusE/RadiusR (wheel)

        = # strands minus effort strand if opposite to resistance direction (pulleys)

impedance = Z

in = inch

      = 2.54 cm

      = .0254 m

      = m/39.37

      = yd/36

      = ft/12

      = hand/4

      = mm/.04

      = cm/.39

      = pouce

      = 4 sicilicus

in2 = ft2/144

       = 6.45 cm2

       = cm2/.15

in3 = 16.39 ml

      = ft3/1728

inch = in

       = "

       = 25.4 mm

       = 2.540 centimeters

       = .0833 feet

       = .0254 meters

       = .0278 yards

index of refraction = speed of light in air/speed of light in medium x

indicated horsepower = IHP

infrared = 1012-1014.6 Hz

input arm = effort arm

input work = E ∙ D (pulleys)

         = effort ∙ distance effort moves

Interest = I

Internal Energy = U

        = work + Ht

isos = equal, identical

 

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