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I learned that momentum is the product of mass and velocity and represents inertia in motion. All objects have mass so if an object is moving, then it has momentum. The symbols of the momentum, mass and velocity in physics is "p"(momentum), "m"(mass) and "v"(velocity)

-Jhuryz Bulahan

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Momentum is the product of mass and velocity and represents inertia in motion. The product of a body's mass and velocity is the object's momentum.  Because momentum is directly related to an object's mass and velocity, a higher mass and velocity object will have more  or greater momentum.

- Janry Pontanoza

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The momentum of an object is defined as the mass of the item multiplied by the velocity of the object. where m denotes mass and v denotes velocity The equation shows that momentum is proportional to an object's mass and directly proportional to its velocity. Both mass and velocity are directly proportional to momentum. The momentum of an item rises proportionately to its mass or velocity. When the mass or velocity is doubled, the momentum is also doubled.

~ Margaret De Guzman

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Momentum is a vector quantity, it is the product of the mass and velocity of an object. Momentum is directly proportional to an object’s mass and velocity, therefore, if an object has a higher mass and higher velocity, it will have higher momentum. But, if two objects have the same velocity, the object with the higher mass will have greater momentum. For instance, if a motorcycle and a truck are moving at the same velocity and both vehicles lose their brakes and cause a collision, the truck will have a greater momentum since the mass of the truck is greater than the motorcycle, this is because greater inertia means greater momentum

- Jared Sayas

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I have learned that momentum depends upon the variables mass and velocity. Mass and velocity are both directly proportional to the momentum. The higher the velocity/mass, the higher the momentum. I also learned how to get the variables when one is missing.
When looking for the momentum, you multiply mass and velocity.

When looking for the mass, divide the momentum by the velocity.

When looking for velocity, divide the momentum by the mass.

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In this lesson, I have learned that momentum is the product of the mass and velocity of an object, a vector quantity that possesses a magnitude and direction. Momentum is also defined as “mass in motion.” All objects have mass; therefore, if an object is moving, then the object has momentum. For Instance, a ball thrown by someone has momentum, since it has mass and velocity. If we write momentum in the equation; P=mv where P is the momentum, m is the mass of the object, and v is the velocity of the object. To sum up the equation, it illustrates that the momentum is directly proportional to an object’s mass and directly proportional to the object’s velocity. For example, the mass of a pushcart is 30 kg, with a velocity of 2 m/s, therefore, the equation will be P=30x2, resulting in 60kg•m/s.

-Zaccheus Arcangle S. Laguna

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I have learned that mass and velocity are both directly proportional to momentum. We have learned that momentum is defined as inertia in motion and can also be defined as the mass in motion. If you increase either mass or velocity, the momentum of the object directly increases proportionally. If you double the mass or velocity you double the momentum. The higher the mass and velocity, the greater the inertia, and the greater the momentum. For example, A car that weighs 2500 kilograms and has an initial velocity of 2km/s has much greater momentum than a car that weighs 2400 kilograms and has an initial velocity of 1.5km/s since the first car clearly has a higher mass and velocity.  Regarding the formula for finding the missing value, if we need to find the momentum (p), you’ll just need to multiply the mass (m) and velocity (v) and if the mass is the missing value, you’ll just need to divide the momentum (p) with its velocity (v) and if velocity is what you’ll find, use the formula momentum/mass or simply p/m.

-Paul Vincent Español Capuno

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In this week's lesson, I have learned that momentum is the amount of motion a moving body has done, and it is also measured as a product of the object's mass and velocity. I also learned that momentum is directly proportional to its mass and velocity. Consider a car and a motorcycle for example. A car weighs 1600kg and has an initial velocity of 7m/s, while a motorcycle weighs 280kg and has an initial velocity of 20m/s. If we solved this equation by using the formula discussed earlier, the car will have 11,200 kg m/s momentum, while the motorcycle will have 5,600 kg m/s momentum. In conclusion, it follows the directly proportional 'rule' of a momentum.

- Mark Jeremy Causapin Alimagno

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I learned that momentum is equal to mass and velocity. Mass and velocity is important to momentum, the greater the velocity and mass the greater its momentum, though to have a high momentum there should be both great in mass and velocity. If there is a great mass but no velocity or movement there is no momentum, and if it has great velocity but less in mass it is not enough to say that it has a high momentum.

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I learned that momentum can also be called as "mass in motion" since every object has a mass and when it's moving it has a momentum. Momentum of a body or object is the product of its mass and velocity. The more massive a body is or the faster it is, the greater the inertia in motion, making it have a greater momentum.

-Aniliah Laguna

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Momentum depends upon the variable mass and velocity.The more massive the body the greater the momentum. The faster the body the greater the momentum.

-Almira Manores

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I learned that the inertia in motion is called Momentum, it is the product of mass and velocity. A more massive and faster body can lead to greater mass in motion or momentum. A bus, for example, has greater momentum than a car since it has more mass.

- Eureign M. Canaman