52754.1683 to the nearest thousand,hundredth,hundred,tenth,
whole number

The standard international (SI) unit for mass is the kilogram (kg). It is a fundamental unit of measurement used to quantify the amount of matter in an object.  The standard international (SI) unit for force is the Newton (N)

The mass of the platinum-iridium cylinder known as the International Prototype of the Kilogramme, which is held at the International Bureau of Weights and Measures in France, is what is used to define the kilogramme.

The newton (N), on the other hand, serves as the standard international (SI) unit for force. The force needed to accelerate a one kilogramme mass by one square metre per second is measured in newtons. It is a derived unit that is frequently used to measure a variety of forces, including electromagnetic, mechanical, and gravitational forces.

Sir Isaac Newton, a distinguished scientist who made substantial advances to our knowledge of forces and motion, is honoured by having his name attached to the newton.

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Answer:

3 : Presence of a catalyst and Temperature

4 : correct, nothing needed to change

5 : Le Chatelier's principle states that when an equilibrium system is subjected to a disturbance or stress, it will undergo a shift in the direction that counteracts the impact of the stress, ultimately reestablishing a new state of equilibrium.

The specific heat capacity of the substance is defined as the amount of heat energy supplied to the substance to increase the temperature of the substance by 1°C. The SI unit of specific heat is J/Kg.°C.

The heat energy, q = mC×ΔT, where m is the mass of the substance. C is the specific heat capacity of the material. ΔT is the change in temperature.

From the given,

a) heat supplied, q = 13500J

Initial temperature,T₁ = 15°C

Final temperature, T₂ = 60°C

Specific heat capacity, C=?

q = mCΔT

13500 = C(T₂ - T₁)

13500/(60-15) = C

13500/45 = C

C = 300 J/Kg.°C

Thus, the specific heat capacity is 300J/Kg.°C.

b) mass of the substance = 0.74kg

q = mCΔT

13500 = 0.75×C×(60-15)

13500/(0.75×45) = C

C = 400 J/Kg.°C

Thus, the specific heat capacity with heat energy of 13500 J is 400J/kg.°C.

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The voltage supplied to the wire is 120 volts.

To calculate the voltage supplied to a wire, we can use Ohm's Law, which states that voltage (V) is equal to the product of current (I) and resistance (R). Mathematically, this relationship is expressed as V = I * R.

In this case, the wire has a resistance of 1200 Ω (ohms) and a current of 0.10 amps. We can substitute these values into the formula to find the voltage:

V = I * R

V = 0.10 A * 1200 Ω

V = 120 A * Ω

Therefore, the voltage supplied to the wire is 120 volts.

It's important to note that Ohm's Law holds true for resistors and other components in a circuit that obey Ohm's Law. In real-world scenarios, there may be other factors to consider, such as the presence of non-ohmic devices or components with varying resistance.

Additionally, in an AC (alternating current) circuit, the relationship between voltage, current, and resistance may involve complex quantities and phase differences. However, for a simple DC (direct current) circuit with a linear resistor, Ohm's Law provides an accurate relationship between voltage, current, and resistance.

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The magnitude of the maximum velocity of the mass is 1.43 m/s.

The maximum velocity of the mass will occur when it is at the equilibrium point. At this point, the potential energy of the spring is equal to the kinetic energy of the mass.

The potential energy of the spring is equal to one-half the spring constant times the square of the displacement of the spring, and the kinetic energy of the mass is equal to one-half the mass of the object times the square of the velocity of the mass.

We are given that the spring constant is 11.7 N/m, the displacement of the spring is 0.194 m, and the mass of the object is 0.402 kg. Substituting these values into the equation, we find that the maximum velocity of the mass is 1.43 m/s.

Therefore, the magnitude of the maximum velocity of the mass is 1.43 m/s.

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The final amount of pressure caused by the force is 90 N/m².

Initial amount of force, F₁ = 22 x 10³ N

Initial amount of pressure produced, P₁ = 110 N/m²

Final amount of force exerted, F₂ = 18 x 10³ N

Pressure is defined as the amount of force acting on an object per unit area of the object.

So, we can say that the force and pressure are directly proportional.

F ∝ P

So, F₁/P₁ = F₂/P₂

Therefore, the final amount of pressure caused by the force is,

P₂ = F₂P₁/F₁

P₂ = 18 x 10³x 110/22 x 10³

P₂ = 18/0.2

P₂ = 90 N/m²

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3. Fulcrum left

Explanation:

The x component of the vector is determined as 8.03 m.

The x component of the vector is calculated by applying the following formula as shown below;

Vx = V cosθ

where;

The  x component of the vector is calculated as follows;

Vx = 12.1 m x cos (48.4⁰)

Vx = 8.03 m

Thus, the x component of the vector is determined as 8.03 m.

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The externally applied force is directly proportional to the distance of elongation. F ∝ x, where x is the elongation of materials. F=-kx, where k is the force constant of spring.

From the given,

block 1 is attached to the spring. When there is no force applied, block 1 remains at rest. When the force is applied externally to the spring attached to block 1, it begins to oscillate. While oscillating, block 1 gets displaced to point C.

The net force acts on block 1, and applied force F is acted towards the left and pushes block 1 to move towards the right. The frictional force Ff restricts the motion of block 1, which acts towards the left.

The Normal force Fn acted normally or perpendicular to block 1 and the normal force is acted upwards. The gravitational force Fg, acts downwards to attract block 1. Therefore, the net force acted on block 1 involves applied Force, Frictional force, Normal force, and Gravitational force.

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In order to measure the potential difference across one of the bulbs in the circuit, the voltmeter must be connected in parallel with it. So, option D.

When two points in a circuit have different electric potentials, a voltmeter is a tool or instrument that measures their potential difference.

We are aware that a voltmeter is a tool that measures the same potential drop in all configurations that are in parallel.

The potential difference between two points in a circuit is thus always measured by connecting a voltmeter in parallel across the conductor's ends.

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The spring constant k based on the information is 12.0 N/m.

From the information, a spring stretches 0.294-m when a 0.360-kg mass is gently suspended from it as in Fig. 11–3b. The spring is then set up horizontally with the 0.431-kg mass resting on a frictionless table.

The spring constant k is the force required to stretch or compress the spring by a unit distance. In this case, the spring is stretched by 0.294 m when a 0.360 kg mass is suspended from it.

This means that the force exerted by the spring is equal to the weight of the mass, which is 0.360 kg x 9.8 m/s^2 = 3.53 N.

Therefore, the spring constant k is:

= 3.53 N/0.294 m

= 12.0 N/m.

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A Thermal energy of the air is 17 J of heat to the surroundings.

Thus, Thermal energy is produced by materials whose molecules and atoms vibrate more quickly as a result of a rise in temperature.

The atoms and molecules that make up matter are always in motion. The increase in temperature caused by heating a substance causes these particles to accelerate and collide.

The energy that arises from a heated substance is referred to as thermal energy. The more the substance's thermal energy and the more its particles travel at higher temperatures.

Thus, A Thermal energy of the air is 17 J of heat to the surroundings.

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The resultant of two displacement vectors having opposite directions is the difference of the two displacements, having the same direction as the smaller vector.

When two displacement vectors have opposite directions, it means they are pointing in opposite ways. In other words, one vector is in the opposite direction of the other. To find the resultant of these vectors, we need to subtract one vector from the other.

If we consider two displacement vectors, let's say vector A and vector B, and they have opposite directions, we can represent them as A and -B.

To find the resultant, we subtract vector B from vector A: A - (-B) or A + B.

The resultant will have the same direction as the smaller vector. This is because when we subtract a larger vector from a smaller vector, the resultant will have the direction of the smaller vector.

Therefore, the correct option is: "The resultant is the difference of the two displacements, having the same direction as the smaller vector."

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The increase in length of the iron wire when warmed from 20°C to 45°C is approximately 8.25 millimeters. The specific heat capacity of the object is approximately 9.62 J/kg°C. The heat capacity of the object is approximately 1.83 J/°C.

ΔL = L × α × ΔT

Where:

ΔL is the change in length

L is the original length of the wire

α is the coefficient of linear expansion for iron

ΔT is the change in temperature

The coefficient of linear expansion for iron is typically 1.1 x [tex]10^(^-^5^)[/tex] °[tex]C^(^-^1^)[/tex].

Given:

L = 30 m (original length of the wire)

α = 1.1 x [tex]10^(^-^5^)[/tex] °[tex]C^(^-^1^)[/tex] (coefficient of linear expansion)

ΔT = 45°C - 20°C = 25°C (change in temperature)

ΔL = 30 m × (1.1 x [tex]10^(^-^5^)[/tex] °[tex]C^(^-^1^)[/tex]) × 25°C

= 30 m × 1.1 x[tex]10^(^-^5^)[/tex] × 25

= 8.25 x [tex]10^(^-^3^)[/tex] m

2) Q = mcΔT

Where:

Q is the heat energy transferred

m is the mass of the object

c is the specific heat capacity

ΔT is the change in temperature

Given:

Q = 2200 J (heat energy transferred)

m = 190 g (mass of the object)

ΔT = 12°C (change in temperature)

a. Specific heat capacity (c):

one need to rearrange the formula to solve for c:

c = Q / (m × ΔT)

Substituting the given values:

c = 2200 J / (190 g × 12°C)

First, need to convert the mass to kilograms:

m = 190 g = 190 g / 1000 = 0.19 kg

Now can calculate the specific heat capacity:

c = 2200 J / (0.19 kg × 12°C)

= 9.62 J/(kg°C)

b. Heat capacity (C):

The heat capacity is the amount of heat energy required to raise the temperature of the object by 1 degree Celsius.

C = mc

Substituting the given values:

C = 0.19 kg × 9.62 J/(kg°C)

= 1.83 J/°C

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Dimensions are measured using a Vernier Caliper  (option A)

A device renowned for its accuracy in measuring the size of objects, the Vernier caliper functions with two jaws to hold an object steady as its scale offers readings. It can assess both external and internal measurements as well as depth with precision.

The Vernier caliper is made up of two main parts: the main scale and the vernier scale. The main scale is a graduated scale that is used to read the measurement in millimeters. The vernier scale is a smaller scale that is used to read the measurement in fractions of a millimeter.

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Objects 1 and 2 attract each other with an electrostatic force of 36.0 units. If the distance separating Objects 1 and 2 is tripled, then the new electrostatic force will be four units.

Coulomb's law can be expressed as:

F = k × (q1 × q2) / r²

In which:

F = electrostatic force

k = electrostatic constant (k = 9 × 10⁹ N·m²/C²)

q1 and q2 = the charges of the objects

r =  distance between the objects

Let's consider that the initial electrostatic force in between objects 1 and 2 is 36.0 units.

F1 = 36.0 units

Next, if the distance is considered between the objects is tripled, the new distance (r') changes into three times the initial distance (r):

r' = 3 ×  r

To determine the new electrostatic force (F'), replacement r' into Coulomb's law:

F' = k  × (q1  × q2) / (r')²

Place r' = 3r:

F' = k × (q1 × q2) / (3r)²

= k × (q1 × q2) / 9r²

The new force will be one-ninth (1/9) of the initial force since the electrostatic force (F') is directly proportional to (q1 q2) and inversely proportional to r2.

F' = (1/9) ×  F1

= (1/9) × 36.0

= 4.0 units

Thus, objects 1 and 2 attract each other with an electrostatic force of 36.0 units. If the distance separating Objects 1 and 2 is tripled, then the new electrostatic force will be 4 units.

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Mass is the measure of the amount of matter in an object and remains constant regardless of location, measured in units like kilograms or grams, while weight represents the gravitational force exerted on an object, varying with the strength of the gravitational field and measured in units like newtons or pounds.

Mass and weight are distinct concepts in physics, differing in their definitions, units of measurement, how they are measured, and what they depend on. Here's a breakdown of their differences:

Mass:

Definition: Mass refers to the amount of matter in an object. It is an intrinsic property and remains constant regardless of the object's location or gravitational environment.

Units of measurement: The standard unit of mass in the International System of Units (SI) is the kilogram (kg). Other common units include grams (g) and metric tonnes (t).

Measurement: Mass can be measured using various techniques, including balances and scales. These instruments compare the unknown mass to known masses and determine the equilibrium or balance point.

Dependence: Mass is independent of gravity and remains the same regardless of the gravitational force acting on the object.

Weight:

Definition: Weight is the force exerted on an object due to the gravitational pull of a celestial body (usually Earth). It represents the measure of the object's gravitational attraction towards that body.

Units of measurement: The standard unit of weight in the SI system is the newton (N). However, weight is commonly expressed in units of force, such as pounds (lb) or kiloponds (kp).

Measurement: Weight is typically measured using a spring scale or a device known as a weighing scale. These instruments rely on the deformation or stretching of a spring to determine the gravitational force acting on an object.

Dependence: Weight depends on the strength of the gravitational field where the object is located. The weight of an object will vary depending on the celestial body it is interacting with, as gravitational forces differ.

Therefore, mass refers to the amount of matter in an object and is measured in units like kilograms or grams. It remains constant regardless of location and is determined using balances or scales. Weight, on the other hand, represents the gravitational force exerted on an object and is measured in units like newtons or pounds. It varies based on the strength of the gravitational field and is measured using spring scales or weighing instruments.

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Gas and plasma are indeed phases of matter, but they have distinct characteristics and applications.

Gas is a state of matter where particles have high energy and are free to move around, filling the space they occupy. Gaseous substances, like air, are typically composed of neutral atoms or molecules.

Plasma, on the other hand, is an ionized gas consisting of positively and negatively charged particles. It is formed when gas is heated to extremely high temperatures or exposed to a strong electric field. Plasma is found in stars, lightning, and fluorescent lights, and it also plays a crucial role in technologies like plasma TVs and fusion reactors.

The similarity in names can be attributed to the ionized nature of plasma. In plasma, particles become charged, similar to the positive and negative ions found in the human body's blood plasma. Both terms derive from the Greek word "plasma," meaning "something molded or formed."

This connection may have influenced the choice of naming the ionized state of matter and the component of blood plasma using similar terminology.

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The underlined statement refers to the work function of a metal, X, which is a measure of the minimum energy required to liberate an electron from the surface of the metal. In other words, if the energy of the incident light is equal to or greater than the work function, electrons can be ejected from the metal's surface.

(i) To calculate the cutoff wavelength, we can use the equation:

E = hc/λ

where E is the energy of a photon, h is the Planck's constant (6.6 x 10^(-34) J s), c is the speed of light (3.0 x 10^8 m/s), and λ is the wavelength of light.

Since we want to find the cutoff wavelength, we need to determine the energy of a photon that corresponds to the work function of the metal, X. We can use the equation:

E = work function = 2.0 eV = 2.0 x 1.6 x 10^(-19) J

Now we can rearrange the equation to solve for λ:

λ = hc/E

Substituting the values:

λ = (6.6 x 10^(-34) J s) * (3.0 x 10^8 m/s) / (2.0 x 1.6 x 10^(-19) J)

Calculating this expression will give us the cutoff wavelength.

(ii) (a) To calculate the maximum energy of the liberated electrons, we can use the equation:

E = hc/λ

Using the given wavelength of 4.5 x 10^(-7) m, we can substitute it into the equation to find the energy.

(B) To calculate the stopping potential, we can use the equation:

eV_stop = E - work function

where e is the elementary charge (1.6 x 10^(-19) C), V_stop is the stopping potential, E is the energy of a photon corresponding to the given wavelength, and the work function is given as 2.0 eV. Solving for V_stop will give us the stopping potential.

(Y) It seems that there is no specific information or question provided for (Y). Please provide additional context or information for me to assist you further with (Y).

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According to the diagram the equivalent resistance of the group is

40.05 ohms

The equivalent resistance is calculated by investigating the diagram to note that R2 and R3 are in parallel and both are in series to R1

Resistors in parallel is solved by

Resistors in parallel = 1/25.4 + 1/70.8

Resistors in parallel = 0.0535 ohms

Equivalent resistance

Equivalent resistance = Resistors in parallel + Resistor in series

Equivalent resistance = 0.0535 + 40

Equivalent resistance = 40.0535

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Yes, the sum of magnitude of two vectors can be equal to the magnitude of sum of these two vectors.

The sum of two vectors is determined by applying triangle law of vector addition or parallelogram law of vector addition.

The sum of magnitude of two vectors can be equal to the magnitude of sum of these two vectors when two vectors are colinear.

For example, let vector A = ax  and vector B =  dy

The sum of the two vectors is given as;

v = √ (a² + d²)

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The resistance of the second wire is twice the resistance of the first wire R₂ = 2R₁

The resistance of a wire is directly proportional to its length and inversely proportional to the cross-sectional area.

Let:

R₁ = resistance of the first wire

R₂ = resistance of the second wire

L₁ = length of the first wire

L₂ = length of the second wire

r₁ = radius of the first wire

r₂ = radius of the second wire

Given:

L₂ = L₁/2

r₂ = r₁/2

A₂ = A₁/4

Since resistance is inversely proportional to the cross-sectional area, which is proportional to the square of the radius.

Now, we can use the formula for resistance:

R = (ρL) / A

where

ρ is the resistivity,

L is the length,  

A is the cross-sectional area.

For the first wire:

R₁ = (ρL₁) / A₁

For the second wire:

R₂ = (ρL₂) / A₂

Substituting the relationships we derived earlier:

R₂ = (ρ(L₁/2)) / (A₁/4)

R₂ = (ρL₁) / (A₁/2)

R₂ = 2(ρL₁) / A₁

Since ρL₁/A₁ is equal to R₁ (the resistance of the first wire), we can substitute:

R₂ = 2R₁

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Answer:

60 kilometers per hr

Explanation:

Answer:

1.4

Explanation:

We are given,

f=.1 Hz

and

λ= 14

Using the equation for wave speed, we can calculate

v=fλ

=.1 Hz × 14 cm

= 1.4m/s

Hence, the speed of the sound waves in the given medium is 1.4 m/s.