I=charge/second
16A=16C/s
16C=16*(6.25*10^18 electrons)
16C=100*10^18 electrons
mass of 1 electron=9.1*10^-31 kg
mass of 100*10^18 electrons=91*10^-12 kg/s
length 0f wire=1m
momentum=91*10^-12 kg/s * 1m
91*10^-12 kgm/s
You can determine the valence electrons in a element by its group number. Like in group 1 those elements in group 1 have only 1 valence electron. group 2 same thing, but we skip the other groups and go straight to group 13. Group 13 would 3 valence electrons same with 14= 4 ,15= 5 ,16= 6 ,17= 7 ,18=8. So the answer to your question is Flerovium has 4 valance electrons since it is in group 14.
this means that there is a single covalent bond
Carbon can form single covalent bonds, double covalent bonds, and triple covalent bonds. In a single covalent bond, carbon shares one pair of electrons with another atom. In a double covalent bond, carbon shares two pairs of electrons, and in a triple covalent bond, carbon shares three pairs of electrons.
Carbon has the ability to form straight chains, branched chains, and rings because its atoms can form four covalent bonds. This versatility is due to carbon's ability to easily share electrons with other atoms.
A single bond is typically represented as a straight line between two atoms in a drawn chemical structure. It indicates the sharing of one pair of electrons between the two bonded atoms.
If a body is moving in a straight line then it would have angular momentum about any point which is not along its line of motion. The magnitude of the angular momentum would be its velocity times the perpendicular distance between the line of motion and the point.
Linear momentum is the momentum of an object moving in a straight line, while angular momentum is the momentum of an object rotating around an axis. The main difference is the direction of motion - linear momentum is in a straight line, while angular momentum is in a circular motion. This difference impacts the motion of objects by determining how they move and interact with their surroundings. Objects with linear momentum will continue moving in a straight line unless acted upon by an external force, while objects with angular momentum will continue rotating unless a torque is applied to change their direction.
Yes, for a particle moving in a straight line, its angular momentum is zero with respect to any arbitrary axis. This is because angular momentum is defined as the cross product of the position vector and momentum vector of the particle, and since they lie along the same line for straight-line motion, the cross product will result in zero.
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Distance traveled is equal to the magnitude of the displacement vector when the motion is in a straight line.
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Angular Momentum!
The conservation of angular momentum and the conservation of linear momentum are related in a physical system because they both involve the principle of conservation of momentum. Angular momentum is the momentum of an object rotating around an axis, while linear momentum is the momentum of an object moving in a straight line. In a closed system where no external forces are acting, the total angular momentum and total linear momentum remain constant. This means that if one type of momentum changes, the other type will also change in order to maintain the overall conservation of momentum in the system.
Because the momentum of your car is going straight and when you go left your car tries to stay in that straight direction.
Magnitude is how much the earth moved during an earthquake and is determined by the distance the marking device moves above and below the straight line on a seismograph.
Only if your entire walk is in the same straight line. Otherwise, no.Example:Start anywhere on the track at the high-school football field, and walk all the way around it.The distance you walk is 1/4 mile. Your displacement is zero, because you're now standingexactly where you began.