The equation needs an answer for it to be an equation in the 1st place. You bring the answer back to equation to show it's complete
The 1st step would be to give an example of the equation to be solved.
The 1st step would have been to show a particular quadratic equation in question.
The 1st and 3rd Equation of motion are the same, the force is zero. Thus 0 =force = Sum forces = action + reaction =0
1st equation: 3x+2y = 2 2nd equation: x-3y = -14 Multiply all terms in the 2nd equation by 3 and subtract it from the 1st equation:- So: 11y = 44 or y = 4 By substitution point of intersection is at: (-2, 4)
what in 1st order?? if you are asking about 1st order chemical equation then there will be only one variable with power 1.
Differential is the 3rd member of the power train The engine is the 1st (powering the vehicle) The transmission is the 2nd member (taking that power and transmitting through various gear ratios to the differential) The differential takes that adjusted power to the drive wheels
The equation needs an answer for it to be an equation in the 1st place. You bring the answer back to equation to show it's complete
The order in which you should solve an equation to get the right answer. Use P.e.m.d.a.s. or : (1st)Parentheses, (2nd) Exponents, (3rd) Multiplication, (4th) Division, (5th) Addition, and (6th) Subtraction
The 1st step would be to give an example of the equation to be solved.
this can be done using 3 op-amps in series.inthe 1st one connect a capacitor for feedback with a key across its end to charge and discharge it.in 2nd cnect capacitor across 2-6 and across its ends connect batery with akey in sereis.in 3rd just connect r for feedbak.conect o/p of final to 1st opamp through R.take o/p across final 6and ground
The 1st step would have been to show a particular quadratic equation in question.
There are several advantages to using the state space representation compared with other methods. Some of these are: the ability to easily handle systems with multiple inputs and outputs; the system model includes the internal state variables as well as the output variable; the model directly provides a time-domain solution, which ultimately is the thing of interest; the form of the solution is the same as for a single 1st-order differential equation; the effect of initial conditions can be easily incorporated in the solution; the matrix/vector modeling is very efficient from a computational standpoint for computer implementation
The 1st and 3rd Equation of motion are the same, the force is zero. Thus 0 =force = Sum forces = action + reaction =0
1st equation: 3x+2y = 2 2nd equation: x-3y = -14 Multiply all terms in the 2nd equation by 3 and subtract it from the 1st equation:- So: 11y = 44 or y = 4 By substitution point of intersection is at: (-2, 4)
1st equation: 5x +7y +29 = 0 or 5x +7y = -29 2nd equation: 11x -3y -65 = 0 or 11x -3y = 65 Times all terms in the 1st equation by 11: 55x +77y = -319 Times all terms in 2nd equation by 5: 55x -15y = 325 Subtract the 2nd equation from the 1st equation: 92y = -644 or y = -7 By means of substitution point of intersection is made at: (4, -7)
-- Take the equation -- Set either 'x' or 'y' equal to zero -- Solve the resulting equation for the remaining variable -- If the remaining variable is then also zero, then the origin is on the graph of the function If the graph is a straight line ('x' and 'y' appear in the equation only to the 1st power), then the equation has to be in the form of a simple ratio ... like (y = Kx) or (x = Ky) or (xy = K) or (x/y = K) ... in order to go through the origin.