Yes, sodium bromide conducts electricity in the molten state because the ions are free to move and carry electric charge.
Ionic compounds conduct electricity only in the molten state because the ions are free to move and carry electric charge. When an ionic compound is in a solid state, the ions are locked in place and cannot conduct electricity.
Yes, sodium bromide conducts electricity when dissolved in water. In its solid state, sodium bromide does not conduct electricity because the ions are not free to move. However, when it is dissolved in water, it dissociates into sodium and bromide ions which are able to carry an electrical current.
When sodium bromide (NaBr) is dissolved in water, it dissociates into sodium ions (Na⁺) and bromide ions (Br⁻). This creates a solution that conducts electricity and can be used for various applications such as in medicine, photography, and oil drilling. The resulting solution is colorless and odorless.
Sodium chloride conducts electricity when molten because the ions in the molten state are free to move and carry electric charge through the substance. In the solid state, the ions are held in fixed positions and cannot move to conduct electricity.
Sodium chloride conducts electricity when in molten or in solution because it dissociates into its constituent ions (sodium and chloride ions) which are free to move and carry electric charge. The movement of these charged particles allows for the flow of electric current.
Sodium Chloride solution (dissolved in water) conducts electricity, and molten Sodium Chloride conducts electricty, but dry crystal Sodium Chloride does not conduct electricity.
after heating Lead Bromide, it becomes a molten which conducts electricity. so the answer is yes it does. lead bromide's an ionic bond. so, compared to the structure of an ionic bond, lead bromide does conduct electricity when molten. When molten or in an aqueous state, the ions become free to move and so it can carry electric charge around as well.
Ionic compounds conduct electricity only in the molten state because the ions are free to move and carry electric charge. When an ionic compound is in a solid state, the ions are locked in place and cannot conduct electricity.
Sodium bromide is an ionic substance. It conducts electricity when melted or when dissolved in water. This is due to the sodium, Na+ ions and the Br- ions present. It does not conduct electricity in the solid state as the ions can not move.
molten or in solution YES - in its natural form - no
Yes, sodium bromide conducts electricity when dissolved in water. In its solid state, sodium bromide does not conduct electricity because the ions are not free to move. However, when it is dissolved in water, it dissociates into sodium and bromide ions which are able to carry an electrical current.
When sodium bromide (NaBr) is dissolved in water, it dissociates into sodium ions (Na⁺) and bromide ions (Br⁻). This creates a solution that conducts electricity and can be used for various applications such as in medicine, photography, and oil drilling. The resulting solution is colorless and odorless.
Not in its normal, solid form but it will when molten or dissolved in water.
Sodium chloride conducts electricity when molten because the ions in the molten state are free to move and carry electric charge through the substance. In the solid state, the ions are held in fixed positions and cannot move to conduct electricity.
Sodium chloride conducts electricity when in molten or in solution because it dissociates into its constituent ions (sodium and chloride ions) which are free to move and carry electric charge. The movement of these charged particles allows for the flow of electric current.
Yes, sodium conducts electricity. It is a metal that can easily lose its outer electron to form a positive ion, allowing it to conduct electricity in both solid and molten states.
Molten sodium hydride conducts electricity because it contains free-moving ions, specifically Na+ and H-. These ions are able to carry an electric charge through the material, allowing for the flow of electrical current.