How many orders can you fill in a night assuming you are open 4 hours a night and the order size is 1 dozen cookies?

Therefore, the potential differences between (f, c), (f, e) and (a, e) are 4.14 V, 1.45 V, and 4.5 V, respectively.

Potential difference (also called voltage) is a measure of the electric potential energy per unit charge between two points in an electric circuit. It is usually measured in volts (V) and is denoted by the symbol "ΔV". In simpler terms, it is the difference in electric potential between two points in a circuit, and it is what causes electric charges to move from one point to another. The potential difference between two points can be measured using a voltmeter.

Here,

To solve this problem, we need to apply Kirchhoff's laws, which are the conservation of charge and the conservation of energy. Using the conservation of charge, we know that the sum of the currents entering and leaving a junction must be equal. At junction c, we have:

I1 = I2 + I3 (equation 1)

Using the conservation of energy, we know that the sum of the potential differences around any closed loop in the circuit must be zero. We can choose the loops (a, b, e, f, c, d, a) and (a, e, f, c, a) to obtain the following equations:

Loop 1: 10V - I1R1 - I2R2 - Vef - I3*R4 = 0 (equation 2)

Loop 2: 10V - Vef - I2*R5 = 0 (equation 3)

Now we have three equations (1), (2), and (3) with three unknowns (I1, I2, and I3). Solving for the currents, we get:

I1 = (10 - Vef - I2R2 - I3R4) / R1

Substituting equation 1 into equation 2 and rearranging, we get:

Vef = 10 - I1R1 - I2R2 - I3*R4

Substituting the first equation into the second equation, we get:

Vef = 10 - ((10 - Vef - I3R4) / R1)R1 - I2R2 - I3R4 - I2*R5

Simplifying and solving for Vef, we get:

Vef = (10R1 - R1I2R2 - R1I3R4 - R1I2R5 - R1I3*R4) / (R1 + R4)

Plugging in the values for the resistances and solving for I1, I2, and I3, we get:

I1 = 0.9 A

I2 = 2.07 A

I3 = 0.83 A

To calculate the potential differences between (f, c), (f, e) and (a, e), we can use Ohm's law:

Vfc = I2R2 = 4.14 V

Vfe = Vef - 5V = 1.45 V

Vae = I1R1 = 4.5 V

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vernier caliper is clean and free from any debris or dirt that may affect the accuracy of the measurement.

how to measure a coin using a vernier caliper and an observation table to record the measurements. Instructions:

Ensure that the vernier caliper is clean and free from any debris or dirt that may affect the accuracy of the measurement.

Place the coin on a flat surface and inspect it for any irregularities that may affect the measurement.

Gently pick up the coin and place it in between the jaws of the vernier caliper. The jaws should be placed on opposite sides of the coin and be perpendicular to the coin's surface.

Tighten the jaws of the vernier caliper until they are snug against the coin.

Read the measurement from the scale on the vernier caliper. The scale should be read to the nearest 0.01 mm.

Record the measurement in the observation table below.

Observation table:

Measurement 1 Measurement 2 Measurement 3 A.measurement

Repeat the process at least three times to get an accurate measurement. Record each measurement in the observation table and calculate the average measurement by adding up all the measurements and dividing by the number of measurements taken.

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Answer: Gently reduce pressure on brakes – if on ice, push in the clutch to let the wheels turn freely.

Turn the steering wheel quickly – look and steer in the direction you want to go.

Counter-steer – as the vehicle gets back on course, counter-steer to avoid skidding in the opposite direction.

Explanation:

The total work done by friction on the block (2 kg block starts at rest and is slides down a ramp from a height of 3.0 meters above the ground and reaches the ground with a kinetic energy of 50 J) as it slides down the ramp = 44 J (option 4)

When an external force is applied to a system in a such that one of the components of the force is parallel to the displacement of the system, mechanical energy—the sum of kinetic and potential energy—is transported into or out of the system. Work is the term for the activity of transferring energy.

The change in the block's mechanical energy is what is known as the work done by friction;

ΔME = W

KE - PE = W

(50 - (2 x 3) = W

W = 50 - 6

= 44 J

The question is incomplete, it should be:

A 2.0-kilogram block sliding down a ramp from a height of 3.0 meters above the ground reaches the ground with a kinetic energy of 50 Joules. The total work done by friction on the block as it slides down the ramp is approximately

(1) 6 J

(2) 9 J

(3) 18 J

(4) 44 J

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Answer:

The sailboats average speed was 13 mph.

Explanation:

To calculate the speed of the boat first calculate the total ammountof hours it took the boat to get to its destination. Then divide 144 by that number which comes out to 13.

The average speed of the sailboat is determined as 12 miles per hours.

The average speed of an object in motion is obtained by dividing the total distance traveled by the object with the time spent in the entire journey.

v = total distance/total time

where;

v = 144/12

v = 12 mph

Thus, the average speed of the sailboat is determined as 12 miles per hours.

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Answer: Force = 870 N  

Explanation:

acceleration = a = (final velocity - initial velocity) / time elapsed

a = (0-30)/.005 = -6000 m/s2 (negative sign means the ball is slowing down)

Force = F = mass x acceleration = ma

F = (0.145 kg)(6000 m/s2) = 870 N away from the player throwing the ball

The magnitude of the force on the player catching the ball is equal, 870N.  The mitt acts on the ball with an equal and opposite force (Newton's 3rd Law of Motion)

The magnitude of the average acceleration of the ball during its contact with the wall is  68000 m/s².

When the ball collides with the wall, it experiences a change in momentum. The time interval during which the ball is in contact with the wall is 3.95 ms, or 0.00395 s. Using the principle of conservation of momentum,

We  use the average acceleration formula to find the acceleration of the ball during the collision.Initial momentum of the ball before collision = m₁v₁ = (0.0515 kg)(27.0 m/s) = 1.3905 kg⋅m/s. Final momentum of the ball after collision = m₂v₂ = (0.0515 kg)(-19.0 m/s) = -0.9785 kg⋅m/s

According to the conservation of momentum, the initial momentum is equal to the final momentum, so:m₁v₁ = m₂v₂

1.3905 kg⋅m/s = -0.9785 kg⋅m/s  Solving for the mass, we get: = 0.0515 kg

Using the average acceleration formula: a = Δv/Δt = (v₂ - v₁)/Δt = (-19.0 m/s - 27.0 m/s)/0.00395 s = -16455.7 m/s² Since the acceleration is in the opposite direction to the initial velocity, we take the magnitude to be: |a| = 16455.7 m/s² ≈ 68000 m/s².

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The magnitude of a action potential doesn't really grow as the stimulus intensity is raised. Instead, there is an increase in the frequency or quantity of action potentials.

The strength of a sensory input here to brain is referred to as stimulus intensity.

Thus, the magnitude of a action potential doesn't really grow as the stimulus intensity is raised.

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Answer: Nuclear fusion

Explanation:

Have great day!

:)

Answer:

Nuclear Fusion

Explanation:

Ap3x

After landing on an unfamiliar planet, a space explorer constructs a simple pendulum of length 47.0 cm.

The explorer finds that the pendulum completes 101 full swing cycles in a time of 126 s. To find the acceleration of gravity on this planet, follow these steps:

1. Determine the period (T) of the pendulum: Divide the total time (126 s) by the number of full swing cycles (101).

  T = 126 s / 101 = 1.2475 s

2. Convert the length of the pendulum (L) to meters: 47.0 cm = 0.47 m.

3. Use the formula for the period of a simple pendulum, which relates the period (T), length (L), and acceleration of gravity (g):

  T = 2π * √(L/g)

4. Rearrange the formula to solve for g:

  g = (4π²L) / T²

5. Plug in the values for L and T:

 g = (4π² * 0.47 m) / (1.2475 s)²

6. Calculate the acceleration of gravity on this planet:

  g ≈ 9.77 m/s²

The value of the acceleration of gravity on this planet is approximately 9.77 m/s².

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Answer:

350x^2

Explanation:

I'm assuming you're saying you're using them together, like stacking them on top of each other, so if that's the case then this is a simple multiplication problem, which can be written as 10x(35x). Solve it and you get 350x^2.

Answer:

it is in explanation part

Explanation:

9

7

3

2

5

8

1

11

14

12

13

Answer:  

Explanation:

The wheels on a bicycle have a 10 inch radius. If the bike must travel exactly 2000 inches, the number of revolutions the wheel would make will be 31.85 revolutions.

The perimeter of the circle is called the circumference of circle.

Given, radius of the wheel = 10 inches

Diameter of the wheel = 20 inches

Length required to cover = 2000 inches

For one revolution, distance equal to the circumference moved.

1 rev = π D

1 rev = π * 20

1 rev = 62.8 inches

Number of revolutions to travel 2000 inches is 2000/62.8 = 31.85 rev

Thus, the number of revolutions required are 31.85 rev.

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Answer:

True

Explanation:

Answer: The speed of the object traveling should be met with the opposite reaction, thus making something like a basketball bounce as high as the force applied to the ball, making both surfaces push off each other until kinetic energy ( form of energy that an object or a particle has by reason of its motion) is lost.

Answer:

a) Time = 2.67 s

b) Height = 35.0 m

Explanation:

a) The time of flight can be found using the following equation:

\( x_{f} = x_{0} + v_{0_{x}}t + \frac{1}{2}at^{2} \)   (1)

Where:

\( x_{f}\): is the final position in the horizontal direction = 80 m

\( x_{0}\): is the initial position in the horizontal direction = 0

\(v_{0_{x}}\): is the initial velocity in the horizontal direction = 30 m/s

a: is the acceleration in the horizontal direction = 0 (the stone is only accelerated by gravity)

t: is the time =?  

By entering the above values into equation (1) and solving for "t", we can find the time of flight of the stone:  

\( t = \frac{x_{f}}{v_{0}} = \frac{80 m}{30 m/s} = 2.67 s \)

b) The height of the hill is given by:

\( y_{f} = y_{0} + v_{0_{y}}t - \frac{1}{2}gt^{2} \)

Where:

\( y_{f}\): is the final position in the vertical direction = 0

\( y_{0}\): is the initial position in the vertical direction =?

\(v_{0_{y}}\): is the initial velocity in the vertical direction =0 (the stone is thrown horizontally)            

g: is the acceleration due to gravity = 9.81 m/s²

Hence, the height of the hill is:

\( y_{0} = \frac{1}{2}gt^{2} = \frac{1}{2}9.81 m/s^{2}*(2.67 s)^{2} = 35.0 m \)  

I hope it helps you!

When electrons are lost a positive ion is formed. When electrons are gained, a negative ion is formed. I hope this helps

Answer:

It has 11 electrons 23_11=11

Answer:

Astronauts who are orbiting the Earth often experience sensations of weightlessness. These sensations experienced by orbiting astronauts are the same sensations experienced by anyone who has been temporarily suspended above the seat on an amusement park ride. Not only are the sensations the same (for astronauts and roller coaster riders), but the causes of those sensations of weightlessness are also the same. Unfortunately however, many people have difficulty understanding the causes of weightlessness.

Answer:

draw the two atomic structures and then focus in on the electrons either gaining or losing and draw them with arrows and dots

Explanation:

i got a 5/5

20 characters

For a diatomic gas with Cv = 5R/2, the gamma value of γ is 1.4.

For a diatomic gas, the specific heat at constant volume, Cv, is given by:

Cv = (5/2)R

where R is the gas constant.

The ratio of specific heats, γ (gamma), is defined as:

γ = Cp/Cv

The connection between Cp and Cv for an ideal gas is provided by:

Cp - Cv = R

Therefore, we can find Cp as:

Cp = Cv + R

Substituting the value of Cv, we get:

Cp = (5/2)R + R = (7/2)R

Thus, the specific heat ratio,, is as follows:

γ = Cp/Cv = [(7/2)R] / [(5/2)R] = 7/5 = 1.4

A diatomic gas is a type of gas that consists of molecules composed of two atoms of the same element, such as hydrogen (H2), nitrogen (N2), oxygen (O2), fluorine (F2), chlorine (Cl2), bromine (Br2), and iodine (I2). These molecules have a linear shape and are considered homonuclear diatomic molecules.

Diatomic gases are common in the Earth's atmosphere and are important for various chemical and physical processes. For example, oxygen and nitrogen are essential for life as they are major components of the air we breathe. Chlorine and fluorine are used in the production of many industrial products, while hydrogen is used as a fuel for various applications. Diatomic gases have unique physical and chemical properties, such as specific heat capacity, thermal conductivity, and reactivity, that make them useful for various scientific and engineering applications.

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Complete Question:-

For diatomic gas Cv = 5R/2 therefore for this gas what is the gamma value?

Answer:

The shape of an orbit

Explanation:

Answer:

The geometry of an orbit

Explanation:

AYE PECKS

Answer:

  294.524 m^3

Explanation:

The volume of a cylinder is given by the formula ...

  V = πr^2h

For a radius of 2.5 m and a length of 15 m, the volume is ...

  V = π(2.5 m)^2(15 m) = 93.75π m^3 ≈ 294.524 m^3

The volume is about 294.52 cubic meters.

Answer:

Wouldn't it be 17.5. Force doubles in weight.

Explanation:

Answer:

7.78 min

Explanation:

The maximum weight possible for the flowerpot that the cords can support can be calculated by adding the maximum tension that each cord can hold before it fails. Since each cord can hold no more than 50 N in tension before it fails, the maximum weight possible for the flowerpot that the cords can support is:

Maximum weight = 50 N + 50 N + 50 N + 50 N = 200 N

Therefore, the maximum weight possible for the flowerpot that the cords can support is 200 N.

It is important to note that the maximum weight possible for the flowerpot is dependent on the number of cords that are used to support it. If there are more cords, the maximum weight possible for the flowerpot will be greater. Conversely, if there are fewer cords, the maximum weight possible for the flowerpot will be less.

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Answer:

275000

Explanation:

momentum = mass * velocity

2500*110=275000