G is always negative when H is negative and S is positive.
A 1000grams make a killogram.
7.8 * (10^(-4))= 0.00078
10, -9 sum is 1 product is -90. any two numbers one positive one negative, positive has to be larger
When you "convert" one quantity to another one, it's always understood thatthe two quantities are equal ... just different ways of writing the same thing.There's no way to "convert" 0.1 g to 200 mg, because those two quantitiesare not equal.1 gram = 1,000 milligrams0.1 g = 100 mg0.2 g = 200 mg
indigo. i always think of it as roy g biv (red, orange, yellow, green, blue, indigo, violet)
G is always positive when enthalpy increases and entropy decreases.
G is always positive when enthalpy increases and entropy decreases.
For triangle G to always be negative, the values of its angles must be such that the sum of the angles is less than 180 degrees, which contradicts the fundamental property of triangles. Additionally, if the triangle is defined in a mathematical context such as in a coordinate plane, the vertices must be positioned in a way that results in a negative area, such as having vertices in a clockwise orientation. However, without more specific context regarding what "triangle G" refers to, a more precise answer cannot be provided.
No, a process with a large negative g does not always proceed rapidly. The rate of a reaction is determined by various factors, not just the change in free energy.
a positive number is always greater than a negative number
The Auxiliary Power Unit (APU) is designed to function during negative G conditions for a limited duration, typically around 30 seconds. This capability allows the APU to provide power and support systems during transient negative G maneuvers. However, prolonged operation in such conditions may lead to performance issues or damage. It's crucial for pilots to be aware of these limitations during flight operations.
The Gibbs free energy change (ΔG) for a reaction is always positive when the reaction is non-spontaneous under the given conditions. This typically occurs at high temperatures for exothermic reactions (where ΔH is negative and ΔS is positive) or when the entropy change (ΔS) is negative while ΔH is positive. In such cases, the term TΔS is not large enough to overcome the positive ΔH, resulting in a positive ΔG.
When H is positive and S is negative
The equation for ∆G is ∆G = ∆H - T∆S H is enthalpy and S is entropySo, ∆G is negative if T∆S is greater than ∆H
negative
When H and S are both positive
negative G