what is the simplified form of this expression?(-3x2 x 5) − (4x2 − 2x) a. -x2 3x − 11 b. 7x2 3x − 5 c. -7x2 3x 5 d. x2 − x 5

Answer:

Step-by-step explanation:

1) Angle 1 = 95   Angle 2 = 95

2) Angle 1 = 108 Angle 2 = 72

3) Angle 1 = 58  Angle 2 = 58

4) Angle 1 = 40  Angle 2 = 40

The probability that 3 of those vehicles will be trucks is 0.300.

In this problem, the number of trials n = 10 since 10 vehicles passed by. The probability of success p = 20% = 0.2 since that is the probability that any vehicle passing by is a truck.

The probability of observing 3 trucks in 10 vehicles is a binomial probability,

which is given by the formula:P(X = k) = {n\choose k}p^k(1-p)^{n-k} where X is the number of successes (in this case, trucks), k is the number of successes we want (3 in this case), n is the number of trials (10 in this case), and p is the probability of success (0.2 in this case).So we have: P(X = 3) = {10\choose 3}0.2^3(1-0.2)^{10-3}= 0.300

Therefore, the probability that 3 of those vehicles will be trucks is 0.300.

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Therefore , (dy)/(dx) = (3x² + 4x - 3)/(2x^(3/2))` is the derivative of the function y = x² + 4x + 3/ √x.

Given: y = x² + 4x + 3/ √x

To find: dy/dxSolution:

Let’s first write the given function y = x² + 4x + 3/ √x as y = x² + 4x + 3x^(-1/2)dy/dx of y = x² + 4x + 3x^(-1/2)

Now, we find the derivative of each term of y using the rules of differentiation.

[tex]`(dy)/(dx) = (d)/(dx)(x^2) + (d)/(dx)(4x) + (d)/(dx)(3x^(-1/2))[/tex]`On simplifying, we get:
[tex]`(dy)/(dx) = 2x + 4 - (3/2)x^(-3/2)`[/tex]
`(dy)/(dx) = 2x + 4 - (3/(2√x))`
`(dy)/(dx) = 2x + 4 - (3√x)/(2x)`
Hence, option (c) is the correct answer.
`(dy)/(dx) = (3x² + 4x - 3)/(2x^(3/2))` is the derivative of the function y = x² + 4x + 3/ √x.

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Answer:

A)

Step-by-step explanation:

The correct answer is A. "a" is the initial value and "b" is the growth factor.

In an exponential function of the form y = ab^x, the initial value, represented by "a," determines the y-value when x = 0. It is the starting point or the y-intercept of the graph.

The growth or decay factor, represented by "b," determines the rate at which the function grows or decays as x increases. If the graph of the exponential function is increasing, it means that the values of y are getting larger as x increases. This can only happen if the growth factor "b" is greater than 1.

Therefore, option A correctly identifies that "a" is the initial value, and "b" is the growth factor, indicating that as x increases, the function's values grow exponentially.

Answer:

[tex]15x^3-38x^2+9x+18[/tex]

Step-by-step explanation:

[tex](5x-6)(3x^2-4x-3)\\(5x)(3x^2)+(5x)(-4x)+(5x)(-3)+(-6)(3x^2)+(-6)(-4x)+(-6)(-3)\\15x^3-20x^2-15x-18x^2+24x+18\\15x^3-38x^2+9x+18[/tex]

The probability that a randomly chosen buyer is an adult or purchased a clock scented like cotton candy is 1, which is equivalent to 100%.

To find the probability that a randomly chosen buyer is an adult or purchased a clock scented like cotton candy, we can use the concept of probability union.

Let A be the event that a buyer is an adult and C be the event that a buyer purchased a clock scented like cotton candy.

We are given:

P(A) = 0.9 (probability that a buyer is an adult)

P(C) = 0.9 (probability that a buyer purchased a clock scented like cotton candy)

P(A and C) = 0.8 (probability that a buyer is an adult and purchased a clock scented like cotton candy)

The probability of the union of two events A and C is given by:

P(A or C) = P(A) + P(C) - P(A and C)

Substituting the given values:

P(A or C) = 0.9 + 0.9 - 0.8

P(A or C) = 1.8 - 0.8

P(A or C) = 1

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The given differential equation e(dy/dx) + 3y = x^2y is a non-homogeneous and non-separable equation. Therefore, option (d) is the correct answer.

To classify the given differential equation, we examine its form and properties. The equation e(dy/dx) + 3y = x^2y is a first-order linear differential equation, which can be written in the standard form as dy/dx + (3/e)y = x^2y/e. A homogeneous differential equation is one in which all terms involve either the dependent variable y or its derivatives dy/dx. A non-homogeneous equation contains additional terms involving the independent variable x.

A separable differential equation is one that can be expressed in the form g(y)dy = f(x)dx, where g(y) and f(x) are functions of y and x, respectively. In the given equation, we have terms involving both y and dy/dx, as well as a term involving x^2. Therefore, it is a non-homogeneous equation. Furthermore, the equation cannot be rearranged to the form g(y)dy = f(x)dx, indicating that it is non-separable. Hence, the given differential equation e(dy/dx) + 3y = x^2y is classified as a non-homogeneous and non-separable equation. Therefore, option (d) is the correct answer.

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Answer:

x = 8

m<a = 30

Step-by-step explanation:

6x - 18 + 14x + 38 = 180

20x +20 = 180

20x +20 -20 = 180- 20

20x =160

20x / 20 = 160/ 20

x = 8

m<a = 6x-18

        => 6*8 -18 = 48-18 = 30

m<a = 30

The given Cauchy problem involves a wave equation with a source term F(x, t). The initial conditions are u(x, 0) = f(x) and u₁(x, 0) = g(x).

The given Cauchy problem is a second-order partial differential equation (PDE) known as the wave equation. It is given by the equation Utt - 4uxx = F(x, t), where u represents an unknown function of two variables x and t.

The initial conditions are u(x, 0) = f(x), which specifies the initial displacement, and u₁(x, 0) = g(x), which represents the initial velocity. Here, f(x) = 3 - x and g(x) = x².

The term F(x, t) = -4e^(-nt) represents the source term that affects the wave equation.

To solve this Cauchy problem, various techniques can be employed, such as the method of characteristics or separation of variables. These techniques involve transforming the PDE into a system of ordinary differential equations and applying appropriate boundary conditions to obtain a solution that satisfies the given initial conditions.

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The simplified expression becomes 3(x⁻⁴)/(4y²) / (27x-4y³)¹/³, where all exponents are positive. To simplify the expression (3x⁻⁴4y⁻²) / (27x-4y³)¹/³, we can start by simplifying the numerator and denominator separately.

By applying exponent rules and simplifying the terms, we can then combine the simplified numerator and denominator to obtain the final simplified form of the expression.

Let's simplify the numerator and denominator separately. In the numerator, we have 3x⁻⁴4y⁻². To simplify this expression, we can apply the exponent rule for division, which states that xⁿ / xᵐ = xⁿ⁻ᵐ. Applying this rule, we can rewrite the numerator as 3(x⁻⁴)/(4y²).

Next, let's simplify the denominator, which is (27x-4y³)¹/³. We can rewrite this expression as the cube root of (27x-4y³).

Now, combining the simplified numerator and denominator, we have (3(x⁻⁴)/(4y²)) / (cube root of (27x-4y³)). To simplify further, we can apply the exponent rule for cube roots, which states that (aⁿ)¹/ᵐ = aⁿ/ᵐ. In our case, the cube root of (27x-4y³) can be written as (27x-4y³)¹/³.

Therefore, the simplified expression becomes 3(x⁻⁴)/(4y²) / (27x-4y³)¹/³, where all exponents are positive.

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(a) b(4; 8, 0.25) ≈ 0.029

(b) Calculate b(6; 8, 0.55) using the binomial probability formula.

(c) Calculate the sum of probabilities for P(3 ≤ x ≤ 5) using the binomial probability formula.

To compute the binomial probabilities directly using the formula b(x; n, p), we can use the following approach:

(a) To calculate b(4; 8, 0.25), we substitute the values into the formula:

b(4; 8, 0.25) = C(8, 4) * (0.25)^4 * (1 - 0.25)^(8-4)

Using the formula for combinations (C(n, r) = n! / (r! * (n - r)!)), we can simplify:

C(8, 4) = 8! / (4! * (8 - 4)!) = 70

Substituting the values, we get:

b(4; 8, 0.25) = 70 * (0.25)^4 * (0.75)^4 = 0.029

Therefore, b(4; 8, 0.25) is approximately 0.029.

(b) Similarly, to calculate b(6; 8, 0.55):

b(6; 8, 0.55) = C(8, 6) * (0.55)^6 * (1 - 0.55)^(8-6)

Using the formula for combinations:

C(8, 6) = 8! / (6! * (8 - 6)!) = 28

Substituting the values, we get:

b(6; 8, 0.55) = 28 * (0.55)^6 * (0.45)^2

Therefore, b(6; 8, 0.55) is the value obtained by evaluating this expression.

(c) To calculate P(3 ≤ x ≤ 5), we need to sum the probabilities for x = 3, 4, and 5:

P(3 ≤ x ≤ 5) = b(3; 8, 0.25) + b(4; 8, 0.25) + b(5; 8, 0.25)

Using the formula as described above, we can calculate each term individually and sum them to obtain the final result.

Please note that the specific values of b(x; n, p) and P(3 ≤ x ≤ 5) depend on the values of n and p given in the question.

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From the graph of 5 galaxies and using the values of the Hypothetical Galaxy (HC), the RV (Recession Velocity) is 3.1167 x 10^4 km/sec and D (Distance) is 415 Mpc (megaparsecs).

The relationship between Recession Velocity (RV) and Distance (D) in cosmology is described by Hubble's Law, which states that the recessional velocity of galaxies is directly proportional to their distance from us. This relationship is known as the Hubble constant, denoted as H, and is typically expressed in units of km/sec/Mpc.

In this case, the values of RV and D obtained from the graph indicate the observed recession velocity and distance of the Hypothetical Galaxy (HC) respectively. The RV value of 3.1167 x 10^4 km/sec represents the velocity at which the Hypothetical Galaxy is receding from us, while the D value of 415 Mpc corresponds to its distance from us.

Regarding the statement about the universe contracting, it is not possible to infer the contraction or expansion of the universe solely based on the RV and D values provided. The contraction or expansion of the universe is determined by studying the overall dynamics and behavior of galaxies on much larger scales.

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The equation of the circle with center (4, 9) and radius 4 is (x - 4)^2 + (y - 9)^2 = 16.

The general equation of a circle with center (h, k) and radius r is given by:

(x - h)^2 + (y - k)^2 = r^2

In this case, the given center is (4, 9) and the radius is 4. Plugging these values into the equation, we have:

(x - 4)^2 + (y - 9)^2 = 4^2

Simplifying, we get:

(x - 4)^2 + (y - 9)^2 = 16

Therefore, the equation of the circle with center (4, 9) and radius 4 is (x - 4)^2 + (y - 9)^2 = 16.

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The solution to the equation e^(13x-1) = (e^11)^x is x = -1/108.

To solve the equation e^(13x-1) = (e^11)^x, we begin by simplifying the equation using the properties of exponents.

First, we apply the property (a^b)^c = a^(b*c), which states that raising a power to another power is equivalent to multiplying the exponents. By applying this property to the right side of the equation, we get e^(11x*11).

Since both sides of the equation have the same base (e), we can equate the exponents. This gives us the equation 13x - 1 = 11x*11.

To solve for x, we want to isolate the x term on one side of the equation. We subtract 11x from both sides, which gives us 13x - 11x = 1.

Simplifying the left side by combining like terms, we have -108x = 1.

To solve for x, we divide both sides of the equation by -108. This gives us x = 1/(-108), which simplifies to x = -1/108.

Therefore, the solution to the equation e^(13x-1) = (e^11)^x is x = -1/108.

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To show that for sufficiently large m, X/m follows an approximate normal distribution with mean 1 and variance 2/m, we can make use of the Central Limit Theorem.

The Central Limit Theorem states that the sum or average of a large number of independent and identically distributed random variables, regardless of their individual distribution, tends to follow a normal distribution.

Let's consider X as the sum of m independent X² random variables, each with a mean of 1 and a variance of 2:

X = X₁ + X₂ + ... + Xₘ,

where each Xᵢ has a mean of 1 and a variance of 2.

Now, divide X by m:

X/m = (X₁ + X₂ + ... + Xₘ) / m.

Since X₁, X₂, ..., Xₘ are independent, we can apply the properties of means and variances to X/m:

Mean of X/m:

E(X/m) = E(X₁/m + X₂/m + ... + Xₘ/m) = (E(X₁) + E(X₂) + ... + E(Xₘ)) / m = (1 + 1 + ... + 1) / m = m/m = 1.

Variance of X/m:

Var(X/m) = Var(X₁/m + X₂/m + ... + Xₘ/m) = (Var(X₁) + Var(X₂) + ... + Var(Xₘ)) / m² = (2 + 2 + ... + 2) / m² = (2m) / m² = 2/m.

By the Central Limit Theorem, when m is sufficiently large, the distribution of X/m will approach a normal distribution with mean 1 and variance 2/m. Therefore, we can say that for sufficiently large m, X/m ~ approximately normal (1, 2/m).

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The proof that set  F ⊆ K[x]\{0} is "Grobner-System" if only if there exists  polynomial f ∈ F​​​​​​​ which divides any polynomial in F is shown below.

If "set-F" is a Grobner system, it means that there is a polynomial in "F" that can divide every other polynomial in F. In simpler terms, if we have a collection of polynomials and there is one particular polynomial in that collection that can evenly divide all the other polynomials, then that collection is a Grobner system.

On the other hand, if there is a polynomial in the collection that can divide every other polynomial in the collection, then the collection is also a Grobner-system.

Therefore, a set of polynomials is a Grobner-system if and only if there exists a polynomial in that set that can divide all the other polynomials in the set.

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The given question is incomplete, the complete question is

Prove that the set F ⊆ K[x]\{0}  is a Grobner system if and only if there exists a polynomial f ∈ F​​​​​​​ that divides any polynomial in F.

To evaluate the definite integral ∫[2 to 4] (54y^2 / (4 - 6y)) dy, we first need to perform partial fraction decomposition on the integrand.

The integrand can be expressed as: 54y^2 / (4 - 6y) = A / (4 - 6y)

To find the value of A, we can multiply both sides of the equation by the denominator (4 - 6y): 54y^2 = A(4 - 6y)

Expanding the right side: 54y^2 = 4A - 6Ay

Now, let's equate the coefficients of y on both sides: 0y = -6Ay --> A = 0

Therefore, the partial fraction decomposition of the integrand is: 54y^2 / (4 - 6y) = 0 / (4 - 6y) = 0

Now, using the Trapezoidal rule with n = 4 steps, we can approximate the definite integral.

The Trapezoidal rule formula for approximating an integral is given by:

∫[a to b] f(x) dx ≈ h/2 * [f(a) + 2 * (f(x₁) + f(x₂) + ... + f(xₙ-1)) + f(b)]

where h = (b - a) / n is the step size, n is the number of steps, and x₁, x₂, ..., xₙ-1 are the intermediate points between a and b.

In this case, a = 2, b = 4, and n = 4. h = (4 - 2) / 4 = 2 / 4 = 1/2

Using the formula, the approximation of the definite integral is:

∫[2 to 4] (54y^2 / (4 - 6y)) dy ≈ (1/2) * [0 + 2 * (0 + 0 + 0) + 0]

Simplifying further:

∫[2 to 4] (54y^2 / (4 - 6y)) dy ≈ 0

Therefore, the approximate value of the definite integral using the Trapezoidal rule with n = 4 steps is 0.

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To find the probability that an individual man's step length is less than 2.1 feet, we can use the standard normal distribution. We need to standardize the value using the z-score formula: z = (x - μ) / σ, where x is the given value, μ is the mean, and σ is the standard deviation.

Substituting the values into the formula, we get z = (2.1 - 2.4) / 0.4 = -0.75. Using a standard normal distribution table or calculator, we can find the corresponding probability. The probability is approximately 0.2266 when rounded to four decimal places.

To find the probability that the mean of the sample taken is less than 2.1 feet, we need to consider the distribution of sample means. The mean of the sample means is equal to the population mean, which is 2.4 feet in this case. The standard deviation of the sample means, also known as the standard error, can be calculated by dividing the population standard deviation by the square root of the sample size. In this case, the standard error is 0.4 / sqrt(82) = 0.044. We can then use the standard normal distribution to find the probability. We need to standardize the value using the z-score formula, similar to Step 1. Substituting the values, we get z = (2.1 - 2.4) / 0.044 = -6.8182. Using the standard normal distribution table or calculator, the probability is practically zero (very close to 0) when rounded to four decimal places.

The probability that an individual man's step length is less than 2.1 feet is approximately 0.2266. The probability that the mean of the sample taken is less than 2.1 feet is practically zero.

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The function f(x) = 3.4e^x represents an exponential growth curve. The graph will be an increasing curve that approaches a horizontal asymptote as x approaches negative infinity.

The function has a y-intercept at (0, 3.4), and the curve will rise steeply at first and then flatten out as x increases. The exponential function f(x) = 3.4e^x can be graphed by plotting several points and observing its behavior. The scale and intercepts can be labeled to provide a clear representation of the graph.

To start, we can calculate a few key points to plot on the graph. For example, when x = -1, the value of f(x) is approximately 3.4e^(-1) ≈ 1.184. When x = 0, f(x) = 3.4e^0 = 3.4. As x increases, the value of f(x) will continue to grow rapidly. Next, we can label the x and y axes on graph paper or a template. The x-axis represents the horizontal axis, while the y-axis represents the vertical axis. The scale can be determined based on the range of values for x and y that we are interested in displaying on the graph.

Plotting the points calculated earlier, we can observe that the graph starts at the y-intercept (0, 3.4) and rises steeply as x increases. As x approaches negative infinity, the graph gets closer and closer to a horizontal asymptote located at y = 0. This represents the saturation or leveling off of the exponential growth. To ensure accuracy, it is recommended to label the key points, intercepts, and asymptotes on the graph. This will provide a clear visual representation of the function f(x) = 3.4e^x and its characteristics. Finally, a photograph or screenshot of the graph can be taken and submitted to complete the task.

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To calculate the t-value for an independent samples t-test, we need the means, sample sizes, and pooled variance.

Given:

For the group with pets:

Sample size (n1) = 10

Mean (M1) = 8

For the group without pets:

Sample size (n2) = 10

Mean (M2) = 3.5

Pooled variance (s^2p) = 45

Therefore, the t-value for the independent samples t-test is approximately 1.50.

To calculate Cohen's d as an effect size, we can use the formula:

d = (M1 - M2) / sqrt(spooled)

Substituting the given values:

d = (8 - 3.5) / sqrt(45)

d = 4.5 / sqrt(45)

d ≈ 0.67

Therefore, Cohen's d as an effect size is approximately 0.67.

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To determine the number of liters to drain and replace with 100% antifreeze, we need to calculate the amount of antifreeze in the current solution and compare it to the desired strength.

Let's start by calculating the amount of antifreeze in the current solution. The radiator currently holds 20 liters of a 20% antifreeze solution, which means there are 20 * 0.20 = 4 liters of antifreeze in the radiator.

Now, let's denote the number of liters to be drained and replaced with 100% antifreeze as "x". When "x" liters are drained, the amount of antifreeze remaining in the solution is (20 - x) * 0.20. After adding "x" liters of 100% antifreeze, the total amount of antifreeze becomes 4 + x.

To achieve the desired 40% antifreeze solution, we set up the equation:

(4 + x) / (20 - x + x) = 0.40.

Simplifying the equation, we have:

(4 + x) / 20 = 0.40,

4 + x = 8,

x = 4.

Therefore, 4 liters of the current solution should be drained and replaced with 4 liters of 100% antifreeze to achieve the desired strength of 40%.

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If A and B are independent events, then A and B are also independent events.

Given that A and B are independent events, we want to show that A and B are also independent events.

If A and B are independent events, then:

P(A and B) = P(A) × P(B)Where P(A) denotes the probability of the event A, P(B) denotes the probability of the event B, and P(A and B) denotes the probability that both events A and B occur simultaneously.

Now, we want to show that A and B are also independent events.

Let's consider the probability that both events A and B occur simultaneously: P(A and B).

Since A and B are independent events, the probability that both events occur simultaneously is:

P(A and B) = P(A) × P(B)

We already know that A and B are independent events, and by definition of independence of events:

If A and B are independent events, then the occurrence of A has no effect on the probability of B, and the occurrence of B has no effect on the probability of A.

Therefore, we can conclude that if A and B are independent events, then A and B are also independent events.

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To determine the probability that a person who supports the racetrack lives in the town, we need to calculate the conditional probability.

The conditional probability is the probability of an event occurring given that another event has already occurred. In this case, we want to find the probability that a person lives in the town given that they support the racetrack.

Let's denote the events as follows:

A: Person lives in the town

B: Person supports the racetrack

We are given the following information:

P(A ∩ B) = 3690 (number of people who support the racetrack and live in the town)

P(B) = (3690 + 2460) (total number of people who support the racetrack)

The probability that a person who supports the racetrack lives in the town can be calculated using the conditional probability formula:

P(A | B) = P(A ∩ B) / P(B)

Substituting the given values, we have:

P(A | B) = 3690 / (3690 + 2460)

Simplifying the expression:

P(A | B) = 3690 / 6150 ≈ 0.6

Therefore, the probability that a person who supports the racetrack lives in the town is approximately 0.6 or 60%.

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To express the expression 1 log(cx) + 3 log(cy) - 5 log(cx) as a single logarithm, we can use the properties of logarithms. Specifically, we can use the properties of addition and subtraction of logarithms.

The properties are as follows:

log(a) + log(b) = log(ab)

log(a) - log(b) = log(a/b)

Applying these properties to the given expression, we have:

1 log(cx) + 3 log(cy) - 5 log(cx)

Using property 1, we can combine the first two terms:

= log(cx) + log(cy^3) - 5 log(cx)

Now, using property 2, we can combine the last two terms:

= log(cx) + log(cy^3/cx^5)

Finally, using property 1 again, we can combine the two logarithms:

= log(cx * (cy^3/cx^5))

Simplifying the expression inside the logarithm:

= log(c * cy^3 / cx^4)

Therefore, the expression 1 log(cx) + 3 log(cy) - 5 log(cx) can be simplified as log(c * cy^3 / cx^4).

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The minimum selling price per television in negotiating a price for the special order should be $174.

To determine the minimum selling price per television for the special order, we need to consider the relevant costs associated with producing and selling the televisions.

The direct materials cost per television is $75, the direct labor cost is $55, and the manufacturing overhead cost is $44 (75% variable and 25% unavoidable fixed). These costs amount to $174 per television.

In addition to the production costs, there is a selling cost of $12 per television for shipping the special order. Therefore, the total cost per television for the special order is $174 + $12 = $186.

Since the regular selling price for the televisions is $220, Farnsworth should negotiate a minimum selling price per television of at least the total cost per television for the special order, which is $186.

Therefore, the minimum selling price per television should be $174.

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Among the given expressions, the one that could be the possible leading term for the polynomial function graphed below is -18x¹⁴.

The leading term of a polynomial function is the term containing the highest power of the variable. Among the given expressions, the one that could be the possible leading term for the polynomial function graphed below is -18x¹⁴.

The degree of a polynomial function is the highest degree of any of its terms.

If a polynomial has only one term, then the degree of that term is the degree of the polynomial and is also called a monomial.

For example, consider the given function:Now, observe the degree of the function, which is 14, as the highest exponent of the function is 14.

Thus, the term containing the highest power of the variable x is -18x¹⁴.

Therefore, among the given expressions, the one that could be the possible leading term for the polynomial function graphed below is -18x¹⁴.

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The task is to find a cofunction that has the same value as csc 15°. We need to select the correct choice and provide the angle measure in degrees that completes the choice.

The given options are: A. csc 15° = sin __° B. csc 15° = cot __° C. csc 15° = tan __° D. csc 15° = sec __° E. csc 15° = cos __°.

The reciprocal of the sine function is the cosecant function. Since the cosecant of an angle is equal to 1 divided by the sine of that angle, we can find the cofunction by taking the reciprocal of the given expression.

Csc 15° = 1 / sin 15°

Therefore, the correct choice is A. csc 15° = sin __°.

To find the value to complete the choice, we need to determine the angle whose sine is equal to the sine of 15°.

Since sine is a periodic function with a period of 360°, we can find an angle with the same sine value by subtracting 360° from it.

In this case, the angle would be 180° - 15° = 165°.

Thus, the completed choice is A. csc 15° = sin 165°.


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The function y₁ (t) = eat is a solution to the differential equation y''-y-72y = 0. On the other hand, the function y(t) = e-8 is not a solution to the differential equation.

To verify that the given functions are solutions to the differential equation y''-y-72

y = 0, we must substitute them into the differential equation and check if they satisfy it.

i) y₁ (t) = eat

We can find the first and second derivatives of y₁(t) as follows:

y₁(t) = eat

⇒ y₁'(t) = aeat

⇒ y₁''(t) = aeat

Thus, substituting these expressions into the differential equation, we get:

(aeat) - (eat) - 72(eat) = 0

⇒ (a-1-72)eat = 0

For the above equation to be true for all values of t, we must have:

a - 1 - 72 = 0

⇒ a = 73

Therefore, y₁(t) = eat is a solution to the differential equation,

provided a = 73.

ii) y(t) = e⁻⁸

Using the same method as above, we can find the first and second derivatives of y(t):

y(t) = e⁻⁸

⇒ y'(t) = -8e⁻⁸

⇒ y''(t) = 64e⁻⁸

Substituting these expressions into the differential equation, we get:

(64e⁻⁸) - (e⁻⁸) - 72(e⁻⁸) = 0

⇒ (-9e⁻⁸) = 0

The above equation is not true for all values of t.

Hence, y(t) = e⁻⁸ is not a solution to the differential equation.

Therefore, only y₁(t) = eat is a solution to the differential equation, provided a = 73.

Answer:

Thus, the function y₁ (t) = eat is a solution to the differential equation y''-y-72y = 0. On the other hand, the function y(t) = e-8 is not a solution to the differential equation.

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To construct a box plot for the given data, we need to find the five key statistics: minimum, first quartile (Q1), median, third quartile (Q3), and maximum.

These values will determine the positions of the five movable parts of the box plot. To construct the box plot, we start by ordering the data in ascending order: 45, 45, 46, 47, 49, 55, 59, 61, 70, 70, 79, 79. The minimum value is 45, and the maximum value is 79. The median is the middle value of the dataset, which in this case is the average of the two middle values: (55 + 59) / 2 = 57. The first quartile (Q1) is the median of the lower half of the dataset, which is the average of the two middle values in that half: (45 + 46) / 2 = 45.5. The third quartile (Q3) is the median of the upper half of the dataset, which is the average of the two middle values in that half: (70 + 70) / 2 = 70.

Now that we have the five key statistics, we can construct the box plot. The plot consists of a number line where we place the movable parts: minimum (45), Q1 (45.5), median (57), Q3 (70), and maximum (79). The box is created by drawing lines connecting Q1 and Q3, and a line is drawn through the box at the median. The whiskers extend from the box to the minimum and maximum values. Any outliers, which are data points outside the range of 1.5 times the interquartile range (Q3 - Q1), can be represented as individual points or asterisks. In this case, there are no outliers.

In summary, the box plot for the given data will have the following positions for the movable parts: minimum (45), Q1 (45.5), median (57), Q3 (70), and maximum (79).

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The exercise consists of two parts. In the first part, a line integral is solved using Green's theorem. The requirements for this part include creating a drawing of the region in GeoGebra, parameterizing the curve with corresponding intervals, stating the line integral with positive orientation, and resolving the integral.

In the second part, an iterated double integral is solved using Green's theorem and applied to a region of type I or type II. The requirements for this part include creating a drawing in GeoGebra, highlighting the defined functions and intervals for the region, and correctly solving the double integral.

The exercise requires solving a line integral and an iterated double integral using Green's theorem. In the first part, GeoGebra is used to create a visual representation of the region, and the curve is parameterized with appropriate intervals. The line integral is then stated with positive orientation, and the integral is resolved.

In the second part, a drawing is made in GeoGebra to represent the region, emphasizing the parts where the functions are defined and the intervals used. Either a type I or type II region is chosen, and the corresponding functions and intervals are defined. Finally, the double integral is correctly solved using the chosen region and Green's theorem.

Both parts of the exercise require a combination of mathematical understanding and the use of GeoGebra to visualize and solve the given problems.

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