The angle of refraction of the light in turpentine will be .
Explanation:
Given:
The refractive index of the turpentine is.
The refractive index of the water is .
The angle that the light makes with the surface of the turpentine is .
Concept:
As the light is incident on the surface of the turpentine at the air-turpentine interface, the light gets refracted from the surface. The refraction of light occurs due to change in the refractive index at the air-turpentine surface.
The angle of the refracted ray after undergoing refraction is given by the Snell's law.
Here, is the refractive index of first medium, is the refractive index of second medium, is the angle of incidence and is the angle of refraction.
The angle of incidence is the angle made by the light from the normal to the surface. So, in this case, the angle of incidence will be i.e. .
Substitute the values in above expression.
Thus, The angle of refraction of the light in turpentine will be .
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1. How does the reflection differ from refraction and diffraction brainly.com/question/3183125
2. The reason for the refraction of light at air water interface brainly.com/question/3095091
3. Approximate length of the unsharpened pencil brainly.com/question/6140057
Answer Details:
Grade: High School
Subject: Physics
Chapter: Refraction
Keywords:
thin layer, turpentine, Snell's law, refraction, air, interface, normal, incident, light, refracted, refraction, refraction angle.
Answer:
16.6 degrees
Explanation:
We can solve the problem by using Snell's law for refraction:
where:
is the index of refraction of the first medium (air)
is the angle of incidence
is the index of refraction of the second medium (turpentine)
is the angle of refraction of light in turpentine
By re-arranging the equation and using the numbers, we find
O A. Nitrogen, N
O B. Aluminum, Al
O C. Phosphorus, P
D. Boron, B
The elements that would form positive ions with a +3 charge are aluminum (Al) and boron (B).
Based on their locations on the periodic table, the two elements that would form positive ions with a +3 charge are aluminum (Al) and boron (B).
When an element gains or loses electrons to form an ion, it takes on a charge that corresponds to the number of electrons gained or lost. Aluminum, located in Group 13 of the periodic table, tends to lose its three valence electrons to form an ion with a +3 charge. Likewise, boron, located in Group 13 as well, will also lose its three valence electrons to achieve a +3 charge.
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Answer:
i think it would be B. Aluminum, Al and D. Boron, B
Explanation:
since they're both in group 13 and they forms a 3+ ion
Considering the definition of percentage by mass, the percent by mass of 5.0 g of iron (II) sulfate dissolved in 75.0 grams of water is 6.25 %.
The percentage by mass expresses the concentration and indicates the amount of mass of solute present in 100 grams of solution.
In other words, the percentage by mass of a component of the solution is defined as the ratio of the mass of the solute to the mass of the solution, expressed as a percentage.
The percentage by mass is calculated as the mass of the solute divided by the mass of the solution, the result of which is multiplied by 100 to give a percentage. This is:
In this case, you know:
Replacing:
Solving:
percent by mass= 6.25 %
Finally, the percent by mass of 5.0 g of iron (II) sulfate dissolved in 75.0 grams of water is 6.25 %.
Learn more:
Hello!
What the percent by mass of 5.0 g of iron (II) sulfate dissolved in 75.0 g of water?
We have the following data:
m1 (solute mass - iron II sulfate) = 5.0 g
m2 (solvent mass - water) = 75.0 g
m (solution mass) = m1 + m2 = 5.0 + 75.0 = 80.0 g
%m/m (percent mass by mass) = ?
We apply the data to the formula
Answer:
The percent by mass of solute and mass solution of Iron II Sulfate is 6.25%
_______________________
Answer: The answer is c
Explanation:
B) f = mgsin(?)
C) f > mgcos(?)
D) f = mgcos(?)
E) f > mgsin(?)
When the block is at rest, the static frictional force is equal to the horizontal component of the block's weight (F = mgsin(θ)).
The static frictionalforce on the body at rests is determined by applying Newton's second law of motion.
F = ma
where;
If the block is at rest, then the net horizontal force on the block is zero.
Thus, when the block is at rest, the static frictional force is equal to the horizontal component of the block's weight.
Learn more here:brainly.com/question/13758352
Answer:
Option B
Explanation:
For a system of block on inclined ramp shown in the attached image. From the attached image, the Normal force N, weight mg and frictional force f act on the block. The sum of vertical forces should be zero just as sum of vertical forces should be zero when the system is in equilibrium condition.
Taking sum of forces along the inclined plane we deduce that
[tex]f=mgsin \theta[tex]
Therefore, option B is the correct option.