the two protons in a helium nucleus repel each other electrically. why, then, does the nucleus not fly apart?

If the body temperature was 10°C, the approximate time of death would be between 12 and 36 hours, depending on the surroundings and other variables.

However, it's crucial to note that the time of death can be influenced by several factors like the environment, clothing, and the person's physical state. The time of death can also be estimated by measuring the body temperature, also known as algor mortis.

After death, the body temperature decreases at a rate of roughly 1.5°C per hour, though this might change depending on the surroundings and other variables. It is impossible to pinpoint the exact time of death if the body temperature was 10°C, although it may indicate that death happened several hours earlier because the body temperature will continue to drop after death.

However, other techniques, like lividity, rigor mortis, and inspection of the stomach contents, are more accurate, hence it is not advised to utilize this method alone to establish the time of death. For a more precise estimation of the time of death, a forensic specialist should be consulted.

Learn more about time of death here:

https://brainly.com/question/16390042

#SPJ1

I'm gonna have to guess B) Automation sorry if I get it incorrect

A volcano erupts when there is an accumulation of magma in the magma chamber. The volcano spews out lava, pyroclastic debris, and magma. Because heat is discharged to the Earth's surface, it is connected to the thermal energy within the planet.

To know more about thermal energy

https://brainly.com/question/24766342

#SPJ4

Answer:

thunder storms

Explanation:

i took t

Answer:

B

Explanation:

heating increases the temperature, increase in temperature increases number of collisions hence increases pressure,volume still remains because there is no addition

Heating increases the temperature, increase in temperature increases the number of collisions hence increasing pressure, volume still remains because there is no addition

The answer is option B.

Due to the fact the frequency of collisions depends on the temperature, A is virtually now not steady. Instead, A will increase slightly with temperature as the extended kinetic energy of molecules at higher temperatures reasons them to move barely faster and for that reason go through more collisions consistent with unit time.

The extent of the fuel consequently turns large because the temperature of the fuel will increase. As the number of gas particles increases, the frequency of collisions with the partitions of the box ought to grow.

Learn more about kinetic energy here: https://brainly.com/question/25959744

#SPJ2

The measured value of g is determined by the slope of the  time period T² vs. l graph (acceleration due to gravity).

Time period the amount of time that a behavior lasts or a condition persists. Depending on the type of activity or situation under consideration, it may be measured in seconds or in millions of years.

the duration T as determined by the formula T = 2π √(l/g). The pendulum's length, l, is indicated here.

The result of squaring both sides is  T² = 4π² l/g

42 and g are constants, thus

⇒ T² = ml

The slope of the T² vs l graph in this case is m. The slope's value is m =  4π²/g

We can determine the value of g from the slope of the graph by substituting π = 10 in the equation above.

g = 40/m

To learn more about Time period from given link

https://brainly.com/question/28570026

#SPJ1

The difference between the momentum before and after the bounce was 1.407 kg/s.

initial energy = mg(3) J = 29.4J

After bouncing ,energy = mg(2) =19.6J

Ball's change in energy = 29.4J - 19.6J = 9.8J

This energy is dissipated in the form of heat energy or sound energy.

work done during the bounce = 9.8J

change in momentum = mvf-mvi

29.4 = 1/2m\(vi^{2}\)

vf =7.668m/s

19.6J =1/2m\(vf^{2}\)

vf=6.261m/s

Change in momentum = m(vf-vi) = 1kg x (-1.407m/s) = -1.407

Learn more about momentum here:

https://brainly.com/question/24030570

#SPJ4

The definition of frequency, expressed in hertz, is the number of oscillations of a wave per unit of time (Hz). The relationship between frequency and pitch is straightforward. Frequencies between 20 and 20000 Hz are audible to humans.

The number of wave cycles or revolutions per second is known as frequency. The following is the frequency-based formula for period (T): If wavelength and velocity are taken into account for any wave, the Frequency Formula is expressed as. f = v λ

he relationship between these two factors is justified by the fact that the speed at which a wave travels is equal to the product of its frequency and wavelength.

V=fλ

f represent frequency

V= speed

λ = wavelength

by using this formula

λ = v/ f = 2nm

Therefore, 2nm is the wavelength of the wave.

Learn more about wave here:

https://brainly.com/question/25954805

#SPJ4

A gamma ray photon has a higher frequency than a radio photon. Therefore, the gamma ray photon has a shorter wavelength, higher energy, and same speed.

This is because the energy of a photon is directly proportional to its frequency and inversely proportional to its wavelength. Since the gamma ray photon has a higher frequency than a radio photon, it also has higher energy. And since the energy of a photon is inversely proportional to its wavelength, the gamma ray photon must have a shorter wavelength than a radio photon. The speed of light is constant in a vacuum, so both photons travel at the same speed.

Therefore, the correct answer is "a shorter wavelength, higher energy, and same speed."

To learn more about gamma ray visit;

https://brainly.com/question/12528914

#SPJ4

Answer:

2 m/s

Explanation:

Conservation of momentum:

momentum after catch = momentum of system before catch

before catch . momentum = 10 kg * 15 m/s = 150  kg-m/s

after catch   m = 65 + 10 = 75 kg

  75 kg * v = 150 kg-m/s

          v = 2 m/s

Answer: 1820

Explanation:

acellus

Answer:

Mathematical

Explanation:

Because you are comparing the length and width

The solution to the equation is; x =4 and x = 10

In most cases, the goal is to isolate the variable (usually represented by x) on one side of the equation. To do this, you can use inverse operations (e.g., adding, subtracting, multiplying, or dividing both sides of the equation by the same value) to cancel out any other terms.

If the equation contains more than one variable, you will need to repeat the above steps to solve for the other variables.

Now we have that;

(x – 3)^2 = 49

x^2 - 6x + 9 = 49

Learn more about  equation:https://brainly.com/question/29657983?

#SPJ1

Answer:

The centripetal force on body 2 is 8 times of the centripetal force in body 1.

Explanation:

Body 1 has a mass m, and its moving in a circle with a radius r at a speed v. The centripetal force acting on it is given by :

\(F=\dfrac{mv^2}{r}\)

Body 2 has a mass 2m and its moving in a circle of radius 4r at a speed 4v. The centripetal force on body 2 is :

\(F'=\dfrac{2m\times (4v)^2}{4r}\\\\F'=\dfrac{2m\times 16v^2}{4r}\\\\F'=8\dfrac{mv^2}{r}\\\\F'=8F\)

So, the centripetal force on body 2 is 8 times of the centripetal force in body 1.

The minimum force required to start this block moving is 370 N.

The given parameters;

The minimum force required to start this block moving is calculated as follows;

\(F= \mu_s F_n\)

where;

\(F_n\) is the normal force on the block which is equal to the weight of the block

\(F= \mu_s F_n \\\\F= \mu_s W\\\\F = 0.74 \times 500 \\\\F= 370 \ N\)

Thus, the minimum force required to start this block moving is 370 N.

Learn more here: https://brainly.com/question/13877320

Centripetal acceleration, the acceleration of a body traversing a circular path. Because velocity is a vector quantity (that is, it has both a magnitude, the speed, and a direction), when a body travels on a circular path, its direction constantly changes and thus its velocity changes, producing an acceleration.

The magnitude of the acceleration at a new point on the trajectory where the curvature is different from that at point C would not necessarily be the same as the magnitude of the acceleration at point C.

Acceleration is defined as the rate of change of velocity with respect to time. In the context of curved motion, acceleration can be decomposed into two components: tangential acceleration and centripetal acceleration.

Tangential acceleration is responsible for changes in speed, while centripetal acceleration is responsible for changes in direction.

In a curved trajectory, the curvature determines the rate at which the direction of motion is changing. Points with higher curvature will have a greater rate of change in direction, and thus, a higher magnitude of centripetal acceleration.

Consequently, the magnitude of acceleration at the new point with a different curvature would likely be different from that at point C.

It's important to note that the gravitational acceleration (represented by g) is a constant acceleration due to gravity and is not directly related to the curvature of the trajectory.

Therefore, the magnitude of the gravitational acceleration would not necessarily be equal to the magnitude of the acceleration at point C or any other point on the trajectory with a different curvature.

To know more about trajectory  refer here

https://brainly.com/question/28547725#

#SPJ11

Answer.

Conduction

Convection

explanation.

Heat can travel from one place to another in three ways: Conduction, Convection and Radiation. Both conduction and convection require matter to transfer heat. If there is a temperature difference between two systems heat will always find a way to transfer from the higher to lower system.

Answer:

Explanation:

the directions may change

Or they will repel and become opposite sides

Answer:

the fast carbon cycle follows the movement of carbon through living (biotic) components of an ecosystem. This occurs faster because life moves more quickly. The fast carbon cycle focuses primarily on the biosphere, while the slow carbon cycle is more involved with the hydrosphere, lithosphere and atmosphere.

Explanation:

Answer:

975 N

Explanation:

Force = acceleration • mass

Force = 15 m/s/s • 65kg

Force = 975 N

The gravitational force on the object of masses 3.1×10²³ kg and  7.3×10⁵ kg respectively is 8.16×10⁻³ N.

Gravitational force is the most prevalent force in the universe, pulling together on any two objects with mass in the universe.

To calculate the magnitude of the gravitational force, we use the formula below.

Formula:

Where:

From the question,

Given:

Substitute these values into equation 1

Hence, the gravitational force is 8.16×10⁻³ N.

Learn more about gravitational force here: https://brainly.com/question/19050897

#SPJ1

Permeability is a measure of a material's ability to: transmit the fluids.

Measure of the ease of flow of a fluid through a porous solid is known as permeability. Rock may be extremely porous, but if pores are not connected, it will not have permeability.

Permeability is determined by applying head and determining depth of penetration or the amount of liquid or gas passing through sample.

Widely used are permeability μ = B0/H0 (B0 is the magnetic flux density B at the point P and H0 is the magnetic field H ) and differential permeability μd = dB/dH.

To know more about permeability, refer

https://brainly.com/question/14994810

#SPJ4

The belts and zones in the atmospheres of Jupiter and Saturn are atmospheric features with different wind systems, temperatures, and colors. The belts are darker regions on the planet, while the zones are lighter regions.

Saturn and Jupiter have a multilayered, gaseous atmosphere with the majority of their composition being hydrogen and helium. The belts and zones in Jupiter's atmosphere are classified based on their coloration, with white bands being zones and dark bands being belts. Jupiter's atmospheric bands stretch for thousands of kilometers and are separated by wind zones with wind speeds that reach 360 km/h. The zones and belts are caused by convection currents in the atmosphere, with the bands lying on top of powerful rotating flows of gas. As a result, the zones and belts have a high-speed jet stream that separates them. In Saturn's atmosphere, belts and zones are not as noticeable as they are in Jupiter's. Saturn's belts are relatively faint, with its zones being brighter. The reason for this difference is that Saturn's atmosphere has less convection and more uniform cloud cover than Jupiter's. Saturn's atmosphere has a series of bands and belts, with belt and zone winds at different latitudes and altitudes and different colors. Saturn's North Pole is currently home to a huge hexagonal jet stream. It is one of the most striking examples of the belts and zones in Saturn's atmosphere. Both Jupiter and Saturn have belts and zones in their atmospheres that are similar in structure, but they vary in their coloration, widths, and wind systems. The belts and zones in Jupiter's atmosphere are more distinctive than those in Saturn's. Jupiter's belts are generally darker and more noticeable than its zones, while Saturn's belts are fainter and less distinct. Jupiter's atmospheric bands are caused by powerful convection currents that generate high-speed jet streams and separate the bands, while Saturn's bands are more uniform and less turbulent. Jupiter has strong winds and storms, while Saturn's winds are generally weaker than Jupiter's and have fewer storms. Both planets' atmospheres consist primarily of hydrogen and helium, with trace amounts of other elements. Saturn and Jupiter's belts and zones are fascinating features that have been studied extensively, revealing a great deal about their atmospheres and weather patterns. The differences between the belts and zones in the atmospheres of these planets help scientists understand the underlying mechanisms that cause the observed phenomena.

Thus, the belts and zones in the atmospheres of Jupiter and Saturn are complex atmospheric features with varying wind systems, temperatures, and colors. The belts and zones are caused by powerful convection currents in the atmosphere, which generate high-speed jet streams and separate the bands. Jupiter's atmospheric bands are more distinct and noticeable than those of Saturn, while Saturn's belts and zones are fainter and less turbulent. The belts and zones in the atmospheres of these planets are fascinating features that reveal a great deal about their atmospheric composition, dynamics, and weather patterns.

To learn more about uniform cloud visit:

brainly.com/question/33474453

#SPJ11

Yes, hot air balloons float in the air because of the low density of the air inside the balloon.

This can be explained with the help of Archimedes' principle and the ideal gas law. Understand Archimedes' principle - It states that an object immersed in a fluid experiences an upward buoyant force equal to the weight of the fluid displaced by the object. In the case of a hot air balloon, the fluid is the surrounding air.

Apply the ideal gas law - It states that PV = nRT, where P is pressure, V is volume, n is the number of moles of gas, R is the gas constant, and T is temperature. For a hot air balloon, the temperature (T) inside the balloon is higher than the surrounding air, which causes the air molecules inside to spread out and occupy a larger volume (V). This results in a lower density of air inside the balloon.

Relate the concepts - As the density of air inside the balloon decreases due to the increased temperature, the balloon displaces a greater amount of surrounding air. According to Archimedes' principle, this increases the buoyant force acting on the balloon, allowing it to float in the air.

In summary, hot air balloons float in air because the low density of air inside the balloon, caused by increased temperature, results in a greater buoyant force according to Archimedes' principle.

More on density: https://brainly.com/question/13931218

#SPJ11

To a Zerkonian observer, the lights on your starship do not flash simultaneously. The trailing light flashes first.

This is due to the phenomenon of time dilation, predicted by Einstein's theory of relativity. As you, the observer on the starship, are moving away from the planet Zerkon at a high velocity of 0.70c (70% of the speed of light), time appears to be passing slower for you relative to the stationary frame of reference on Zerkon. As a result, the time interval between the flashes of the warning lights, which is one minute in your frame of reference, will be dilated or stretched from the perspective of the Zerkonian observer. The light at the front of your starship, which is moving away from Zerkon, takes longer to reach the observer compared to the light at the trailing end. Therefore, the trailing light will be observed to flash first by the Zerkonian observer. Hence, the correct answer is C. The trailing light flashes first.

To learn more about light

https://brainly.com/question/104425

#SPJ11

the answer is in the photo

hopes it help!

We can determine whether a change is physical or chemical by analyzing the what type of change is occurred. The change in color or formation of new product is a chemical change.

A chemical change is a type of change which include the breaking or making of chemical bonds and the formation of new products which has properties different from the initial substances.

Phase changes, change in size, shape, dissolving, conductivity etc. are  physical changes. They do not involve any change in chemical bonds or the formation of new product.

The change in color indicates the formation of a new product. All the chemical reactions like the corrosion of metals reaction of metals with acids or water etc . are all chemical changes.

Find more on physical changes:

https://brainly.com/question/21509240

#SPJ1

Answer:

Reproducible by other scientists

Explanation:

I just took the test

yesssss I am agree ......

Answer:

Yes, I agree. The pressure exerted upon the floor is larger for high heel shoes than flat shoes, hence causing more damage to the floor.

Explanation:

Pressure is force/area. High heel shoes have a sharp point at which they touch the floor, while flat shoes have a flatter surface at which they touch the floor. Due to you exerting the same force anyway, the area is smaller for high heel shoes.

As you might know, the smaller a denominator is, the larger the number is. As an example, 3/1 is larger than 3/2. 3/1 is 3, and 3/2 is 1.5. Hence, the force is larger for high heel shoes, and it will cause more damage.

Hope this helped!