Answer:To solve the system of equations using substitution, we'll start by solving one equation for one variable, and then substitute that expression into the other equation.
Let's solve the second equation, y = 3x - 7, for y:
y = 3x - 7 (Equation 2)
Now, we can substitute this expression for y in the first equation, 2x + y = 3:
2x + (3x - 7) = 3
Combining like terms, we have:
5x - 7 = 3
Adding 7 to both sides of the equation, we get:
5x = 10
Dividing both sides of the equation by 5, we have:
x = 2
Now that we have the value of x, we can substitute it back into one of the original equations to find the value of y. Let's use Equation 2:
y = 3x - 7
Substituting x = 2, we have:
y = 3(2) - 7
Simplifying the expression, we get:
y = 6 - 7
y = -1
Therefore, the solution to the system of equations is x = 2 and y = -1.
We can also check this solution by substituting the values of x and y back into both original equations to make sure they satisfy both equations.
A pooling equilibrium exists as long as the number of Type H customers in the market is relatively low.
True or False
A pooling equilibrium exists as long as the number of Type H customers in the market is relatively high.
True or False
Brainly Ginny character avatar
AI-generated answer
A pooling equilibrium exists when all customers, regardless of their type, are offered the same product or service. In a pooling equilibrium, the market does not differentiate between different customer types.
Given the statement "A pooling equilibrium exists as long as the number of Type H customers in the market is relatively low," we can analyze its truthfulness:
If the number of Type H customers in the market is relatively low, it means that there are fewer customers of Type H compared to other types. In this scenario, it is more likely that the market will offer a single product or service that caters to the majority of customers, including non-Type H customers. Therefore, it is true that a pooling equilibrium is more likely to exist when the number of Type H customers is relatively low.
On the other hand, if the number of Type H customers in the market is relatively high, it means that there is a significant presence of Type H customers. In this case, the market might be inclined to offer specialized products or services that specifically cater to the needs and preferences of Type H customers. This would result in a segmentation or differentiation of the market, which contradicts the concept of a pooling equilibrium. Therefore, it is false to say that a pooling equilibrium exists when the number of Type H customers is relatively high.
To summarize:
- A pooling equilibrium is more likely to exist when the number of Type H customers in the market is relatively low. (True)
- A pooling equilibrium is less likely to exist when the number of Type H customers in the market is relatively high. (False)
what is the combined version of the equations 5.2*10^6 and 2.47*10^8
Brainly Ginny character avatar
AI-generated answer
To find the combined version of the given equations 5.2*10^6 and 2.47*10^8, we need to add or subtract the numbers and keep the same power of 10.
The numbers in scientific notation have two parts: the coefficient and the power of 10. In this case, we have:
5.2 * 10^6 and 2.47 * 10^8
To combine them, we need to make sure that the powers of 10 are the same. We can do this by adjusting the coefficients.
First, let's adjust the coefficient of 5.2*10^6. We can do this by multiplying it by 10^2:
5.2 * 10^6 * 10^2 = 5.2 * 10^(6+2) = 5.2 * 10^8
Now that we have adjusted the coefficient of 5.2*10^6, we can combine it with 2.47*10^8:
5.2 * 10^8 + 2.47 * 10^8 = (5.2 + 2.47) * 10^8 = 7.67 * 10^8
Therefore, the combined version of the equations 5.2*10^6 and 2.47*10^8 is 7.67*10^8.
Answer:
n o
Step-by-step explanation:
Answer:
Yes.
Step-by-step explanation:
A whole number is a number greater than or equal to zero that does not have any fractions and/or cannot be written with a fractional component. It can also be defined as an integer, though it should be noted that integers include negative numbers. 3, 5, 14, 2, and 0 are all whole numbers and are also all integers. 1.5, 16.32, and -4.598 are not whole numbers and are thus not integers.
The average distance between a star and Earth is typically measured in astronomical units (AU), which is the average distance between Earth and the Sun. To calculate the distance in AU, divide the star's distance in kilometers or miles by the average distance between Earth and the Sun.
The average distance from the Earth to a star is typically measured in astronomical units (AU). An astronomical unit is defined as the average distance between the Earth and the Sun, which is about 149.6 million kilometers or 93 million miles.
To calculate the distance to a star in AU, you need to determine the star's distance in kilometers or miles and then convert it to AU. For example, if a star is 900 million kilometers away, you divide that distance by the average distance between the Earth and the Sun to get the distance in AU. In this case, the star would be approximately 6 AU away from Earth.
It's important to note that the distances between stars and Earth are incredibly vast, so even a distance of a few AU is still very far.
#SPJ12
Answer:
B
Step-by-step explanation:
Answer:
c
Step-by-step explanation:
7,200 ft2
b.
50 ft
c.
300 ft
d.
200 ft
Answer:
300ft
Step-by-step explanation: