What energy does a hamburger have when you eat it

Answers

Answer 1
Answer: I'm not sure what you mean...

When you eat a hamburger, you digest it and it turn into energy for your body. This is a chemical reaction

Also, a hamburger is 354 calories. Here is a pic of the nutrition facts:
Answer 2
Answer: it gives you chemical energy.

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In an atom where are the electrons with less energy most likely located?

Answers

We have to be very careful here !

An electron that has any energy can go galavanting around on its own, sight-seeing
and doing its own thing. That's not the situation with the electrons in an atom.  The
energy of every electron in an atom is negative ... it "owes" the atom energy, and
that's why it stays bound to it. You have to pull on the electron ... give it some more
energy ... in order to break it free from the atom.

The electrons that are way out in the outer orbits are the easiest to rip away from the
atom ... they don't "owe" the atom much, their energy is the least negative, and you
don't have to give them much to settle their debt and release them from the atom.

The electrons that are down deep, closest to the nucleus, are the most tightly bound.
They're the ones whose energy is the most negative, and it takes a team of horses to
pull them free of the atom.

I know I'm going to catch flak for this answer, but I do believe it's the most technically
correct one: The electrons with the least energy are the ones whose energy is most
negative ... those in the first orbital, down deep in the atom, close to the nucleus.

.Please explain to me how to find the momentum

Answers

Answer:

momentum = mass x velocity

Explanation:

So ultimately, find the mass of the object (be careful since this is not the same as weight. Weight is your gravitational pull to the earth. This means that your weight different amounts on different planets. But mass stays the same on all planets, it's what most people call their weight.) and then find the velocity (2 meters/second north, etc.)

Now you can apply this to your problem

a cylinder of mass 34.5 kg rolls without slipping on a horizontal surface. At a certain instant, its center of mass has a speed 9.5 m/s. Determine the rotational kinetic energy

Answers

Answer:

\displaystyle 778,40625\:J

Explanation:

\displaystyle (1)/(2)mv^2 = KE

* For cylinders, it is unique. Since you have two circular bases, you take half the mass in the formula:

\displaystyle (1)/(4)mv^2 = KE \n \n (1)/(4)[34,5]9,5^2 = KE → \displaystyle (1)/(4)[34,5][90,25] = 778,40625\:J

I am joyous to assist you anytime.

Answer:

778 J

Explanation:

Rotational energy is:

RE = ½ Iω²

For a solid cylinder I = ½ mr².

Rolling without slipping means ω = v/r.

RE = ½ (½ mr²) (v/r)²

RE = ¼ mv²

Plug in values:

RE = ¼ (34.5 kg) (9.5 m/s)²

RE ≈ 778 J

Round as needed.

For a satellite to stay in orbit around Earth, it has to be moving forward very fast all the time. What force will make it fall to Earth if it goes too slowly?Earth's gravity

the force of friction

the magnetic force from Earth's north pole

the Sun's gravity

Answers


Maintaining an orbit has nothing to do with the satellite's speed.
ANY (tangential) speed is enough to stay in orbit, if the satellite
just stays away from Earth's atmosphere.

If the satellite completely stops moving 'sideways' at all, and just
hangs there, then the forces of gravity between the satellite and
the Earth will pull them together ... the satellite will fall into the
atmosphere and then to the ground.

Most important
Centripetal force which makes it attract towards the earth and makes it able to move around

A unit of power equal to 746 watts is a

Answers

≈ 746 watts is a 1 Horsepower, because that's in the SI base unit. 

A pickup truck and a hatchback car start at the same position. If the truck is moving at a constant 33.2m/s and the hatchback car starts from rest and accelerates at 5m/s/s, how far away do the cars meet up again?

Answers

Answer:

The pickup truck and hatchback will meet again at 440.896 m

Explanation:

Let us assume that both vehicles are at origin at the start means initial position is zero i.e. s_(o) = 0. Both the vehicles will cross each other at same time so we will make equations for both and will solve for time.

Truck:

v_(i) = 33.2 m/s, a = 0 (since the velocity is constant), s_(o) = 0

Using s =s_(o)+v_(i)t+1/2at^(2)

s = 33.2t .......... eq (1)

Hatchback:

a=5m/s^(2), v_(i) = 0 m/s (since initial velocity is zero), s_(o) = 0

Using s =s_(o)+v_(i)t+1/2at^(2)

putting in the data we will get

s=(1/2)(5)t^(2)

now putting 's' value from eq (1)

2.5t^(2)-33.2t=0

which will give,

t = 13.28 s

so both vehicles will meet up gain after 13.28 sec.

putting t = 13.28 in eq (1) will give

s = 440.896 m

So, both vehicles will meet up again at 440.896 m.

Answer:

  • 440.9 m

Explanation:

initial speed of the pickup truck (Up) = 33.2 m/s

acceleration of the pickup truck (ap) = 0

initial speed of the hatchback = 0

acceleration of the hatchback (ah) = 5 m/s^{2}

how far away (s) do the cars meet up again?

from the equations of motion distance covered (s) = ut + 0.5at^(2)

distance covered by the pickup = ut + 0.5at^(2)

where

  • u = initial speed of the pickup = 33.2 m/s
  • t = time it takes
  • a= acceleration of the pickup = 0
  • the distance covered by the pickup (s) now becomes = 33.2t +0.5.(0).t^(2) = 33.2t ...equation 1

       

distance covered by the hatchback = ut + 0.5at^(2)

where

  • u = initial speed of the hatchback = 0 m/s
  • t = time it takes
  • a= acceleration of the hatchback = 5 m/s^{2}
  • the distance covered by the hatchback (s) now becomes = (0)t + 0.5x5t^(2)

        =  2.5t^(2)......equation 2

when the cars meet, they both would have covered the same distance, therefore

  • distance covered by the pickup = distance covered by the hatchback
  • equation 1 = equation 2
  • 33.2t = 2.5t^(2)
  • 33.2 = 2.5t
  • t = 13.28 s

now that we have the time it takes for both cars to meet, we can put the value of the time into equation 1 or equation 2 to get the distance at which they meet

from equation 1

  • distance (s) = 33.2t = 33.2 x 13.28= 440.9 m

from equation 2

  • distance (s) =  2.5t^(2) = 2.5x12.8^(2) = 440.9 m