Electrostatics

The electrons in the neutral object will be attracted towards the negatively charged balloon, causing them to move slightly towards the side of the object closest to the balloon. This redistribution of electrons creates a slight imbalance in charge on the object, resulting in a temporary induced charge separation.

Static electricity is not practical for powering everyday devices as it is usually a small amount of energy that cannot be easily stored or harnessed efficiently. It is more commonly used in industrial applications, like removing dust and dirt from surfaces, rather than as a reliable power source for consumer electronics.

Electrostatic force refers to the force between electrically charged particles. This force can be attractive if the charges are opposite, or repulsive if the charges are the same. It is a fundamental force in nature that governs interactions at the atomic and molecular level.

When a negatively charged rod touches the sphere of the electroscope, negative sharge spreads throughout the metal. Since the leaves are both negatively charged, the free ends repel and move away from each other. When a positvely rod touchs the sphere, negative charges move toward the sphere, causing the leaves to be positively charged.

hope this helps :)

Static electricity can be found in many everyday situations, such as when you touch a metal doorknob after walking on a carpet, when clothing sticks together after being in the dryer, or when rubbing a balloon on your hair to create a static charge. It can also be generated by natural phenomena such as lightning or by man-made devices like Van de Graaff generators.

To charge a plastic rod using a duster, rub the duster against the plastic rod. The friction between the materials will transfer electrons from the duster to the rod, giving the rod a negative charge.

The force formed when a balloon is rubbed is static electricity. When the balloon gathers extra electrons during rubbing, it becomes negatively charged, creating an imbalance of charge that results in the attraction or repulsion of other objects.

consider value of charge =e

electric field intensity =E(xyz)

now acharge inelectric field experience a force of =eE(XYZ)

NOW WORK done to move this particle of distance dl (small lenth)

is =eE(xyz).dl (you have to take dot product)

now to move this charge praticle from point (x1,y1,z1) To (x2,y2,z2)=intregration of [eE(xyz).dl](x1y1z1)to (x2y2z2)

electrostatics are used in a number of things such as didphone copiers and clearing smoke.

it is the branch of physics that deals with electro magnetics. It is also used in painting cars.

Yes, a charge placed in an electric field will experience a force and move in the direction of the electric field lines if it is positive, or opposite to the direction if the charge is negative. The force on the charge is proportional to the charge itself and the strength of the electric field at that location.

While static electricity can give you a shock, it is highly unlikely to kill you. The amount of voltage generated by static electricity is typically not high enough to cause lethal injuries in humans.

The dipole moment of glucose is approximately 5.2 Debye. This value indicates the overall polarity of the molecule, which arises from the asymmetric distribution of charge within the molecule due to its structure.

This happens because dry air contains less amount of moisture. Though air is an insulator, sometimes the moisture present in it conducts these charges. Since moisture is missing in dry air, charging happens best in dry weather.

Yes, other common sources of static electricity include friction between two different materials, such as rubbing a comb against hair, walking on carpet, or shuffling on a rug. These actions can transfer electrons between surfaces, leading to a buildup of static charge.

Both are originally have equal electrons and protons. After rubbing, electrons move to the duster, from the rod. The duster, as it gains electrons, has more electrons than protons, therefore becoming negatively charged. The rod, losing electrons, becomes negatively charged. then, the rod is able to momentarily pick up little bits of paper for short periods at a time.

The magnitude of the force between the electron and proton in a hydrogen atom can be calculated using Coulomb's Law: F = k * |q1 * q2| / r^2, where k is the Coulomb constant (8.99 x 10^9 Nm^2/C^2), q1 and q2 are the charges of the electron and proton (1.6 x 10^-19 C), and r is the distance between them (52.9 x 10^-12 m). Plugging in these values, the magnitude of the force between the electron and proton is approximately 8.2 x 10^-8 N.

you have static electricity because it keeps electrons from moving and here is an example........ lets say you hit a candle and you thought that you hit it hard but it didn't fall over because the static electcity didn't let it fall

To put it simply no an electron can never come out of the nucleus due to the nucleus only containing protons and neutrons.

However protons and neutrons are not fundamental in the sense that they cannot be split. Protons and Neutrons, and indeed all hadrons (of which protons and neutrons belong), consist of quarks.

Quarks come in two distinct groups, those with a positive charge of 2/3 the elemental change and those with negative 1/3 the elemental change. With six quarks in total each group has three members. A Proton consists of two up quarks and a down quark giving it a positive charge. The neutron consists of one up quark and two down quarks giving it a neutral charge. When an isotope is unstable due to having a ratio of neutrons to protons that is too high a process know as beta plus decay occurs.

When an isotope undergoes beta plus decay, one of the down of the quarks in a neutron emits a W- boson, with results in the down quark changing into an up quark. The change turns the neutron into a proton consequently lowering the neutron to proton ration and sometimes forming a stable isotope.

The W- boson meanwhile decays into an electron and an electron anti-neutrino.

Yes, silk can generate static electricity due to its smooth texture and low conductivity, which can cause it to attract and hold onto electric charge. Rubbing silk against certain materials can create friction and lead to the buildup of static electricity.

The crackling sound is likely due to static electricity being discharged when removing a jumper, causing a rapid release of electrical energy. This can happen when there is a difference in charge between the jumper and the components it is connected to, often creating a noise as the charge equalizes. It's generally harmless but indicates a buildup of static electricity in the system.

false

apex:)

This happens because the negative electrons on the duster move to the polythene rod. Despite this, the rod still has some positive electrons meaning it should be called an unbalanced negatively charged rod.

Hope this helps XD

The purpose of a conductor is to lead and direct a group of musicians during a performance. They use hand gestures, facial expressions, and body language to communicate tempo, dynamics, and cues to the ensemble. The conductor also helps unify the musicians and shape the interpretation of the music being performed.

William Gilbert, an English scientist, is credited with pioneering the study of static electricity in the late 16th century. He extensively researched the phenomenon and published a groundbreaking book titled "De Magnete, Magneticisique Corporibus, et de Magno Magnete Tellure" (On the Magnet and Magnetic Bodies, and on the Great Magnet the Earth).

A glass rod can be charged by rubbing it with a duster. When the duster rubs against the glass rod, electrons are transferred between the two materials, resulting in the glass rod becoming negatively charged.