A scale works best when the object being weighed is stationary. Otherwise the object is shifting and can't be weighed accurately.
No because you always keep an equation in balance when solving it
The complementary function, often denoted in the context of solving differential equations, refers to the general solution of the associated homogeneous equation. It represents the part of the solution that satisfies the differential equation without any external forcing terms. In the context of linear differential equations, the complementary function is typically found by solving the homogeneous part of the equation, which involves determining the roots of the characteristic equation. This solution is then combined with a particular solution to obtain the complete solution to the original non-homogeneous equation.
One solution means there is only one value or set of values for the variable(s) that satisfies the equation or system of equations. It is the point at which the graph of the equation intersects the x-axis, solving for the variable(s) in the equation.
The solution to the Heat equation using Fourier transform is given by the convolution of the initial condition with the fundamental solution of the heat equation, which is the Gaussian function. The Fourier transform helps in solving the heat equation by transforming the problem from the spatial domain to the frequency domain, simplifying the calculations.
The eigenvalues of an electron in a three-dimensional potential well can be derived by solving the Schrödinger equation for the system. This involves expressing the Laplacian operator in spherical coordinates, applying boundary conditions at the boundaries of the well, and solving the resulting differential equation. The eigenvalues correspond to the energy levels of the electron in the potential well.
No because you always keep an equation in balance when solving it
Yes
Ask someone eles.
Solving inequalities and equations are the same because both have variables in the equation.
When solving equations remember that whatever operations are performed on the LHS of the equation must be performed on its RHS to keep the equation in balance.
Whatever is done on one side of the equation must be repeated on the other side of the equation to maintain balance and equality.
Solving an equation with fractions is similar to solving one with whole numbers in that both involve isolating the variable and maintaining balance throughout the equation. However, the presence of fractions often requires additional steps, such as finding a common denominator or multiplying through by that denominator to eliminate the fractions. This can make calculations more complex, but the fundamental principles of equality and operation remain the same in both cases. Ultimately, both types of equations aim to find the value of the variable that satisfies the equation.
Fractions and decimals that represent the same value are equivalent. For example, 1//4 and 0.25 are equivalent.
The idea of balance is crucial in problem-solving when solving equations because it ensures that both sides of the equation remain equal while manipulating the terms. This principle allows us to perform the same operations on both sides without changing the inherent truth of the equation. Maintaining balance helps in isolating the variable and finding its value accurately, ensuring that the solution is valid for the original equation. Ultimately, this approach fosters a systematic method for tackling algebraic problems.
Always keep the equation in balance inasmuch that what is done on the RHS must be done on the LHS of the equation.
Balance the number of atoms for each element on both sides of a chemical equation
Solving an equation with a variable on each side is similar to solving a two-step equation in that both require isolating the variable to find its value. In both cases, you can use inverse operations, such as addition or subtraction, to eliminate terms on one side of the equation. Once you simplify both sides, you may need to perform additional steps to isolate the variable completely, whether it's moving variables or constants. Ultimately, both types of equations aim to achieve the same goal: determining the value of the variable.