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erastovalidia [21]
4 years ago
5

In the context of dialectics in interpersonal relationships, _____ is the desire to do things independent of one’s partner.

Physics
1 answer:
sukhopar [10]4 years ago
4 0

Answer:

Autonomy

Explanation:

Dialectics theory represents a relationship that define one communication between individuals. This theory is mainly focused on the struggle that occurs in a relationship.

In dialectics theory, autonomy is a term used to indicate one desire to be with another person but remain apart. autonomy is referred to as the control of one's life without being with them.

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Which conditions are usually the effect of a low air pressure system? clear, dry weather cloudy, wet weather cold, dry weather h
qaws [65]
Your answer is hot dry waether
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3 years ago
A person driving her car at 43 km/h approaches an intersection just as the traffic light turns yellow. She knows that the yellow
siniylev [52]

Answer:

If she hits the brakes, she will travel 13m before stopping. If she hits the gas, she will travel 28 before the light turns red. She should try to stop

Explanation:

To know how far she will travel before stopping, we need to use a kinematic formula which initial final velocity (Vf), initial velocity (V0), acceleration (a) and distance traveled(x):

V_{f}^{2}=V_{0} ^{2} +2ax

The moment in which she stops is when the final velocity equals zero. In this case, initial velocity is 43km/h=12m/s, and its maximum deceleration is -5.4m/s^2. Plugging in these values and solving for x:

0^2=(12m/s)^2+2(-5.4m/s)x\\x=13m

She will travel 13m before stopping

If she hits the gas, we need another kinematic formula, which relates distance traveled, initial speed, time (t) and acceleration.

x=v_{0}t+0.5a*t^2

If we know her car can accelerate from 43km/h=12m/s to 70km/h=19m/s in 8.1 s, we can know its acceleration:

a=\frac{19m/s-12m/s}{8.1s}=0.86m/s^2

In this case, the time before the light turns red is 2.0s. Plugging in all those values:

x=12m/s*2s+0.5*0.86m/s^2*(2s)^2=28m

If she hits the gas, she will travel 28m before the light turns red. She won't even reach the intersection, so she would try to stop.

5 0
3 years ago
Small pockets of synovial fluid that reduce friction and act as a shock absorber where ligaments and tendons rub against other t
Aloiza [94]

Answer:

bursae.

Explanation:

7 0
3 years ago
Which choice has a negative charge?<br> neutrons<br> electrons<br> protons<br> nucleus
coldgirl [10]

Option B

Electrons has a negative charge

<u>Explanation:</u>

Electrons are the negatively charged shreds of an atom. Collectively, the positive charge of the protons in the atomic nucleus are neutralized by each of the electrons of an atom engenders a negative charge. Electrons are notably meager associated with all of the distinct components of the atom.

Electrons enclose the nucleus. Because electrons travel so speedily, it is improbable to discern where they are at a distinct instant in time. Electrons perform a dominant position in whole chemical bonds.

5 0
4 years ago
Read 2 more answers
A light ray passes from air through a glass plate with refractive index 1.60 into water. The angle of the refracted ray in the w
german

Answer:

The angle of the incident ray at the air-glass interface is 62.86°

Explanation:

Given that,

Refractive index of glass =1.60

Angle = 42°

We need to calculate the angle of the incident ray at glass-water interface

Using Snell's law

n_{2}\sin\theta_{2}=n_{3}\sin\theta_{3}

Where, n_{2} = refractive index of glass

n_{3} = refractive index of water

\theta_{3} = angle of refraction

Put the value into the formula

1.6\sin\theta_{2}=1.33\sin42

\sin\theta_{2}=\dfrac{1.33\sin42}{1.6}

\theta_{2}=\sin^{-1}(\dfrac{1.33\sin42}{1.6})

\theta_{2}=33.8^{\circ}

We need to calculate the angle of the incident ray at the air-glass interface

Using Snell's law

n_{1}\sin\theta_{1}=n_{2}\sin\theta_{2}

Where, n_{1} = refractive index of air

n_{2} = refractive index of glass

\theta_{1} = angle of incident

Put the value into the formula

1\sin\theta_{1}=1.6\sin33.8

\theta=\sin^{-1}(1.6\sin33.8)

\theta=62.86^{\circ}

Hence, The angle of the incident ray at the air-glass interface is 62.86°

6 0
3 years ago
Read 2 more answers
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