Does Zinc Conduct Electricity: 9 Important Facts

Does Zinc Conduct Electricity?

Zinc is a versatile metal that finds applications in various industries due to its unique properties. One of the key questions often asked is whether zinc conducts electricity. In this section, we will explore the electrical conductivity of zinc and understand why it is an important characteristic of this metal.

Introduction

Electrical conductivity refers to the ability of a material to carry an electric current. Metals are generally good conductors of electricity due to the presence of free electrons within their atomic structure. These free electrons are responsible for the flow of electric charge through the material.

Composition of Zinc

To understand the electrical conductivity of zinc, it is essential to examine its composition. Zinc is a chemical element with the symbol Zn and atomic number 30. It belongs to the group of transition metals and is found in the Earth’s crust. In its pure form, zinc is a bluish-white metal that is relatively soft and malleable.

Metallic Bonding in Zinc

The ability of zinc to conduct electricity can be attributed to its metallic bonding. Metallic bonding occurs when positively charged metal ions are surrounded by a “sea” of delocalized electrons. These delocalized electrons are not bound to any specific atom and are free to move throughout the metal lattice.

In the case of zinc, each zinc atom loses two electrons to form Zn2+ ions. These positively charged ions are then surrounded by a cloud of delocalized electrons. When a potential difference is applied across a zinc conductor, these free electrons can move in response to the electric field, resulting in the flow of electric current.

Inference: Zinc conducts electricity

Based on the principles of metallic bonding and the presence of free electrons in its atomic structure, we can conclude that zinc is indeed a good conductor of electricity. However, it is important to note that the electrical conductivity of zinc can be influenced by various factors such as impurities, temperature, and mechanical stress.

Zinc’s electrical conductivity makes it suitable for a wide range of applications. It is commonly used in electrical wiring, where it serves as a conductor to transmit electrical energy. Zinc is also utilized in batteries, where it acts as an electrode to facilitate the flow of electrons during the electrochemical reactions.

Pros of Zinc Conductivity	Cons of Zinc Conductivity
Good electrical conductor	Affected by impurities
Versatile applications	Temperature sensitivity
Reliable performance	Susceptible to mechanical stress

Overall, the electrical conductivity of zinc plays a crucial role in its widespread use across different industries. Its ability to efficiently carry electric current makes it an indispensable material in electrical systems and devices.

Conductivity of Zinc

Zinc is a fascinating metal that has various applications in our daily lives. One of the key questions that often arises is whether zinc can conduct electricity. In this section, we will explore the electrical conductivity of zinc and understand its behavior as a conductor.

Conductors and Insulators

Before delving into the specifics of zinc’s electrical conductivity, let’s first understand the concept of conductors and insulators. In the world of electrical engineering, materials are broadly classified into two categories based on their ability to conduct electricity.

Conductors: These materials allow the flow of electric current through them. They have a high electrical conductivity, which means that electrons can move freely within their atomic structure. Examples of common conductors include copper, aluminum, and silver.
Insulators: On the other hand, insulators are materials that do not allow the flow of electric current. They have low electrical conductivity, which restricts the movement of electrons. Materials like rubber, plastic, and wood fall into this category.

Zinc as a Conductor

Zincblende structure — Wikimedia Commons

Now, let’s focus on zinc and its electrical conductivity. Zinc is an interesting metal because it exhibits both metallic and non-metallic properties. While it is primarily known for its use as a protective coating (galvanizing) for iron and steel, it also possesses the ability to conduct electricity.

Zinc, in its pure form, is not as good a conductor as metals like copper or silver. However, it still has a certain level of electrical conductivity. This means that it allows the flow of electric current, although not as efficiently as some other metals.

Zinc as a Moderately Good Conductor

Zinc’s electrical conductivity can be attributed to its atomic structure. It has a relatively high number of free electrons, which are responsible for the movement of electric charge. These free electrons can move through the lattice of zinc atoms, facilitating the flow of current.

While zinc may not be the best conductor, it is considered a moderately good conductor. Its electrical conductivity is lower than that of copper or silver but higher than insulating materials like rubber or plastic. This makes zinc suitable for certain electrical applications where moderate conductivity is sufficient.

To put things into perspective, let’s compare the electrical conductivity of zinc with that of copper. Copper has a conductivity of approximately 59.6 million siemens per meter (MS/m), while zinc has a conductivity of around 16.6 MS/m. This significant difference highlights the disparity in their conductivity levels.

Process of Electricity Conduction in Zinc

Zinc is a versatile metal that finds its application in various industries, including electrical engineering. Understanding the process of electricity conduction in zinc is crucial to comprehend its role in alloys and electrical components.

Zinc in Alloys and Electrical Components

Zinc is commonly used in alloys due to its favorable properties, such as corrosion resistance and low melting point. Alloys like brass, which is a combination of zinc and copper, are widely used in electrical connectors, terminals, and fittings. These alloys provide excellent conductivity while maintaining durability and strength.

In electrical components, zinc is often used as a protective coating to prevent corrosion. This is particularly important in outdoor applications where exposure to moisture and other environmental factors can degrade the performance of electrical systems. Zinc coatings, such as galvanized steel, act as a barrier between the underlying material and the corrosive elements, ensuring the longevity and reliability of electrical equipment.

Metallic Bonding in Zinc

To understand how zinc conducts electricity, it is essential to delve into its atomic structure. Zinc belongs to the group of transition metals and has a unique arrangement of electrons in its outer shell. In metallic bonding, the outer electrons of zinc atoms are delocalized, meaning they are not confined to a specific atom but are free to move throughout the metal lattice.

Movement of Outer Electrons

The movement of these delocalized electrons is what enables zinc to conduct electricity. When a potential difference is applied across a zinc conductor, the free electrons are set in motion. They flow from areas of high potential to areas of low potential, creating an electric current. This movement of electrons is facilitated by the metallic bonding in zinc, which allows for the easy transfer of charge.

Jumping of Electrons between Atoms

As the delocalized electrons move through the zinc lattice, they can jump from one atom to another. This jumping of electrons is known as electron hopping. It occurs due to the presence of energy levels within the metal lattice that the electrons can occupy. This process ensures a continuous flow of electrons, enabling the conduction of electricity.

Reasons for Zinc’s Conductivity

Zinc, a versatile and widely used metal, exhibits interesting electrical conductivity properties. In this section, we will explore the reasons behind zinc’s ability to conduct electricity.

Zinc as a Metal

Zinc is classified as a metal, which means it possesses certain characteristics that enable it to conduct electricity. Metals are known for their high electrical conductivity due to the presence of free electrons within their atomic structure. These free electrons are responsible for the flow of electric current through a material.

Sea of Mobile Electrons

One of the key factors contributing to zinc’s conductivity is the presence of a “sea of mobile electrons.” In metals like zinc, the outermost electrons of the atoms are loosely bound and can move freely within the material. This phenomenon is known as delocalization, where the electrons are not confined to a specific atom but are shared among neighboring atoms.

Movement of Delocalized Electrons

The movement of these delocalized electrons is crucial for electrical conductivity in zinc. When a voltage is applied across a zinc conductor, the electric field created causes the delocalized electrons to drift in a particular direction. This movement of electrons constitutes an electric current, allowing the flow of electricity through the material.

Limited Conductivity Compared to Other Metals

While zinc exhibits conductivity, it is important to note that its electrical conductivity is relatively lower compared to some other metals. For instance, metals like copper and silver have higher electrical conductivities than zinc. This is due to factors such as the number of delocalized electrons and the arrangement of atoms within the material.

To put it into perspective, zinc has an electrical conductivity of approximately 16.6 million siemens per meter (S/m), while copper boasts a significantly higher electrical conductivity of around 58 million S/m. Despite its lower conductivity, zinc still finds numerous applications in electrical systems and devices.

Electrical Conductivity of Zinc

Zinc, a chemical element with the symbol Zn and atomic number 30, is widely known for its versatile properties. One of the key aspects of zinc is its electrical conductivity. In this section, we will explore the definition of electrical conductivity, discuss the electrical conductivity of zinc, and compare it to other metals and alloys.

Definition of Electrical Conductivity

Electrical conductivity refers to the ability of a material to conduct electric current. It is a fundamental property that determines how easily electrons can flow through a substance. The SI unit for electrical conductivity is Siemens per meter (S/m).

Electrical Conductivity of Zinc (16.6 x 10^6 Siemens per meter)

Zinc exhibits electrical conductivity, although it is not as conductive as some other metals like copper or silver. The electrical conductivity of zinc is approximately 16.6 x 10^6 Siemens per meter. This value indicates that zinc can conduct electricity, but not as efficiently as highly conductive metals.

Despite its lower conductivity compared to other metals, zinc still finds numerous applications in electrical systems. It is commonly used as a protective coating for steel structures, known as galvanization, to prevent corrosion. Zinc is also utilized in batteries, where it acts as an anode material, facilitating the flow of electrons during the discharge process.

Lower Conductivity Compared to Other Metals and Alloys

When compared to highly conductive metals like copper or silver, zinc’s electrical conductivity is relatively lower. Copper, for instance, has a significantly higher electrical conductivity of approximately 58 x 10^6 Siemens per meter. This makes copper a preferred choice for applications that require excellent electrical conductivity, such as electrical wiring and conductors.

Similarly, silver, known for its exceptional electrical conductivity, boasts a value of approximately 63 x 10^6 Siemens per meter. Silver is often used in specialized applications where high conductivity is crucial, such as in electrical contacts and high-frequency circuits.

While zinc may not be the most conductive material, its unique combination of properties, including its corrosion resistance and affordability, make it suitable for various applications. Its moderate electrical conductivity allows for efficient electrical flow in specific scenarios, making it a valuable material in the electrical industry.

Zinc as a Conductor of Electricity

Zinc is a versatile metal that finds applications in various industries due to its unique properties. One of the key characteristics of zinc is its ability to conduct electricity. In this section, we will explore the conductivity of zinc and its significance in different contexts.

Definition of a Good Conductor

Before delving into zinc’s conductivity, let’s first understand what makes a material a good conductor of electricity. A good conductor is a substance that allows the flow of electric current with minimal resistance. In other words, it facilitates the movement of electrons, which are the carriers of electric charge.

Zinc as a Good Conductor

Zinc, although not as conductive as some other metals like copper or silver, still exhibits decent electrical conductivity. It falls into the category of “moderate conductors.” The electrical conductivity of a material is determined by its atomic structure and the ease with which electrons can move within it.

Zinc possesses a relatively high number of free electrons, which are responsible for conducting electricity. These free electrons can move through the crystal lattice of zinc atoms, creating a pathway for the flow of electric current. However, compared to metals like copper or silver, zinc has a higher resistance to the movement of electrons. This means that it requires more energy for the electrons to move through zinc, resulting in lower conductivity.

Lower Conductivity Compared to Other Metals

While zinc does conduct electricity, its conductivity is lower compared to metals like copper and silver. Copper, for instance, is an excellent conductor of electricity due to its atomic structure, which allows for easy movement of electrons. Silver, on the other hand, is the most conductive metal known, surpassing even copper in terms of electrical conductivity.

The lower conductivity of zinc makes it less suitable for applications where high electrical conductivity is crucial. However, there are still numerous applications where zinc’s moderate conductivity is sufficient.

Use of Zinc in Manufacturing Alloys

Zinc’s conductivity, although not as high as copper or silver, still makes it a valuable component in various alloys. Alloys are mixtures of metals that exhibit enhanced properties compared to their individual components.

Zinc is often alloyed with other metals, such as copper, to create brass. Brass is widely used in electrical connectors, plumbing fittings, and musical instruments. The addition of zinc to copper improves the strength and corrosion resistance of the alloy while maintaining reasonable electrical conductivity.

Another common alloy involving zinc is galvanized steel. Galvanization is the process of coating steel with a layer of zinc to protect it from corrosion. This zinc coating not only provides excellent corrosion resistance but also acts as a sacrificial anode, protecting the underlying steel from rust.

Reason for Zinc’s Conductivity

Zinc, as a Metal

Zinc is a versatile metal that exhibits excellent electrical conductivity. It is a lustrous, bluish-white metal that is commonly used in various industries due to its unique properties. One of the key reasons behind zinc’s conductivity is its metallic nature.

Metals, including zinc, are known for their ability to conduct electricity. This is because metals have a unique atomic structure that allows them to easily transfer electric charges. In the case of zinc, its atoms are arranged in a closely packed lattice structure, which enables the movement of electrons.

Freely Moving Valence Electrons

The conductivity of zinc is primarily attributed to the presence of freely moving valence electrons. Valence electrons are the electrons present in the outermost energy level of an atom. In the case of zinc, it has two valence electrons in its outermost shell.

These valence electrons are loosely bound to the zinc atoms, which means they can easily move from one atom to another. When an electric potential is applied to a zinc conductor, these valence electrons can move freely throughout the lattice structure, creating a flow of electric current.

Electric Current Production

When a voltage is applied across a zinc conductor, the valence electrons gain energy and start moving towards the positive terminal. As they move, they create a flow of electric charges, which we refer to as electric current. This flow of current is what allows electricity to be conducted through zinc.

It’s important to note that the conductivity of zinc can be influenced by factors such as temperature and impurities. Higher temperatures can increase the resistance of zinc, reducing its conductivity. Similarly, impurities present in the zinc can also hinder the movement of electrons, affecting its overall conductivity.

Structure and Bonding of Zinc

Zinc is a chemical element with the symbol Zn and atomic number 30. It is a bluish-white metal that is commonly used in various applications due to its unique properties. In this section, we will explore the structure and bonding of zinc, which play a crucial role in determining its electrical conductivity.

Structure of Zinc (Hexagonal Close Packed)

Zinc has a hexagonal close-packed (HCP) crystal structure, which means that its atoms are arranged in a closely packed lattice. This structure consists of layers of atoms arranged in a hexagonal pattern, with each layer stacked on top of the previous one. The HCP structure is one of the most efficient ways to pack spheres, making it a common structure among metals.

In the case of zinc, each atom is surrounded by six nearest neighbors in a hexagonal arrangement. This close packing of atoms allows for efficient transfer of electrons, contributing to its electrical conductivity.

Atomic Number and Radius of Zinc

The atomic number of zinc is 30, indicating that it has 30 protons in its nucleus. The atomic radius of zinc is approximately 1.35 Å (angstroms), which is relatively small compared to other elements. This compact atomic radius contributes to the close packing of atoms in the HCP structure, further enhancing its electrical conductivity.

Metallic and Ionic Bonding in Zinc

Zinc exhibits metallic bonding, which is a type of chemical bonding that occurs between metal atoms. In metallic bonding, the valence electrons of metal atoms are delocalized and form a “sea” of electrons that are free to move throughout the metal lattice. This delocalization of electrons is what allows metals to conduct electricity.

In addition to metallic bonding, zinc can also form ionic bonds with other elements. Ionic bonding occurs when there is a transfer of electrons from one atom to another, resulting in the formation of positively charged cations and negatively charged anions. However, the electrical conductivity of zinc primarily arises from its metallic bonding rather than its ionic bonding.

Zinc’s Reactivity with Other Elements

Zinc is a moderately reactive metal and can react with certain elements under specific conditions. For example, zinc reacts with oxygen in the presence of moisture to form zinc oxide, which is a white powdery substance. This reaction is commonly known as oxidation and is responsible for the formation of the characteristic white corrosion layer on zinc surfaces.

Furthermore, zinc can also react with acids, such as hydrochloric acid, to produce hydrogen gas and a zinc salt. This reaction is often used in laboratory settings to generate hydrogen gas.

Properties of Zinc

Zinc is a versatile metal that possesses several unique properties. In this section, we will explore some of the key characteristics of zinc, including its density, boiling point, melting point, electrical conductivity, elasticity, color, atomic number, oxidation state, malleability, ductility, thermal conductivity, and electrical resistivity. We will also discuss the use of zinc in galvanizing iron and alloys.

Density, Boiling Point, and Melting Point

Zinc is a relatively dense metal, with a density of about 7.14 grams per cubic centimeter. This means that a given volume of zinc is quite heavy compared to other materials of the same size. In terms of its boiling point and melting point, zinc has a relatively low boiling point of 907 degrees Celsius (1,665 degrees Fahrenheit) and a melting point of 419.5 degrees Celsius (787.1 degrees Fahrenheit). These properties make zinc suitable for various applications, including alloys and coatings.

Electrical Conductivity and Elasticity

When it comes to electrical conductivity, zinc is a good conductor of electricity. It has a moderate electrical conductivity, allowing electric current to flow through it with relative ease. This property makes zinc useful in electrical applications, such as batteries and electrical wires. Additionally, zinc exhibits excellent elasticity, meaning it can be stretched or deformed under stress and return to its original shape once the stress is removed. This elasticity makes zinc suitable for applications that require flexibility and resilience.

Color, Atomic Number, and Oxidation State

Zinc is a bluish-white metal that has a distinct appearance. Its atomic number is 30, which means it has 30 protons in its nucleus. In terms of its oxidation state, zinc primarily exists in the +2 oxidation state, where it loses two electrons to form a stable ion. This oxidation state allows zinc to form various compounds and participate in chemical reactions.

Malleability and Ductility

Zinc is a malleable metal, meaning it can be easily shaped or molded into different forms without breaking. This property makes zinc suitable for applications that require shaping or forming, such as in the manufacturing of coins, pipes, and sheet metal. Additionally, zinc is also ductile, which means it can be drawn into thin wires without breaking. This ductility makes zinc useful in electrical wiring and other applications that require the metal to be drawn into long, thin strands.

Thermal Conductivity and Electrical Resistivity

Zinc has a relatively high thermal conductivity, meaning it can efficiently transfer heat. This property makes zinc useful in applications that require heat dissipation, such as in cooling systems and heat sinks. On the other hand, zinc has a moderate electrical resistivity, meaning it resists the flow of electric current to some extent. This property allows zinc to be used as a protective coating in electrical components to prevent corrosion and improve conductivity.

Use of Zinc in Galvanizing Iron and Alloys

One of the most significant applications of zinc is in the process of galvanizing iron and alloys. Galvanization involves coating iron or steel with a layer of zinc to protect it from corrosion. Zinc acts as a sacrificial anode, meaning it corrodes preferentially to the iron or steel, thereby protecting the underlying metal from rusting. This process is widely used in industries such as construction, automotive, and manufacturing to increase the lifespan and durability of iron and steel products.

In addition to galvanization, zinc is also used in various alloys to enhance their properties. For example, brass is an alloy composed of copper and zinc, which exhibits excellent corrosion resistance and is commonly used in musical instruments, plumbing fittings, and decorative items. Zinc is also used in the production of zinc oxide, which has numerous applications in the pharmaceutical, rubber, and ceramic industries.

Zinc’s Conductivity for Heat

Zinc, a versatile and widely used metal, exhibits interesting properties when it comes to conducting heat. Let’s explore the conductivity of zinc for heat and its applications in various fields.

Conductors of Heat

Before delving into zinc’s thermal conductivity, it’s essential to understand the concept of heat conduction and the different materials that can conduct heat. Heat conduction refers to the transfer of thermal energy from one object to another due to a temperature difference between them.

Materials can be classified into three categories based on their ability to conduct heat:

Conductors: These materials have high thermal conductivity, meaning they can efficiently transfer heat. Examples of good conductors include metals like copper, aluminum, and silver.
Insulators: Insulators have low thermal conductivity, which means they do not transfer heat easily. Materials such as wood, rubber, and plastic fall into this category.
Semi-conductors: These materials have intermediate thermal conductivity. They possess properties of both conductors and insulators. Silicon and germanium are common examples of semi-conductors.

Zinc as a Moderately Good Conductor of Heat

Zinc, like many other metals, falls under the category of conductors. While it may not be as efficient at conducting heat as metals like copper or silver, it still exhibits moderate thermal conductivity.

The thermal conductivity of a material is measured in watts per meter-kelvin (W/m·K). This unit indicates the amount of heat energy that can pass through a material with a thickness of one meter, per unit time, when there is a temperature difference of one kelvin between the two ends.

Thermal Conductivity of Zinc (112.2 W/m·K)

Zinc has a thermal conductivity of approximately 112.2 W/m·K. This value indicates that zinc can conduct heat moderately well compared to other materials. However, it is not as efficient as metals with higher thermal conductivities.

To put this into perspective, copper, which is known for its excellent thermal conductivity, has a value of around 401 W/m·K. Silver, another highly conductive metal, has a thermal conductivity of approximately 429 W/m·K. These values are significantly higher than that of zinc.

Use of Zinc in Heat Transfer

Despite not being the best conductor of heat, zinc finds applications in various heat transfer processes. Its moderate thermal conductivity makes it suitable for certain scenarios where higher conductivity is not required.

One common application of zinc in heat transfer is in heat exchangers. Heat exchangers are devices used to transfer heat between two fluids, ensuring efficient heat exchange. Zinc’s ability to conduct heat allows it to facilitate the transfer of thermal energy between the fluids, contributing to the overall efficiency of the heat exchanger.

Moreover, zinc is also used as a coating material for pipes and other heat transfer systems. The zinc coating, known as galvanization, provides corrosion resistance and enhances the heat transfer properties of the underlying material.

Conductivity of Zinc Chloride

Zinc chloride is a compound that consists of zinc and chlorine atoms. It is commonly used in various applications, including as a flux in soldering, a catalyst in chemical reactions, and a disinfectant. One important aspect of zinc chloride is its conductivity, which refers to its ability to conduct electricity. In this section, we will explore the conductivity of zinc chloride in both its solid and molten forms.

Solid and Molten Forms of Zinc Chloride

Zinc chloride exists in different states, depending on its temperature. At room temperature, it is a white crystalline solid. In this solid state, zinc chloride does not conduct electricity efficiently. This is because the zinc and chlorine ions are held tightly in a lattice structure, and the electrons are not free to move.

However, when zinc chloride is heated to a high temperature, it undergoes a phase change and becomes a molten liquid. In this molten state, zinc chloride exhibits different electrical properties. It is in this state that zinc chloride demonstrates conductivity.

Conductivity in Molten Zinc Chloride

In the molten state, zinc chloride dissociates into zinc cations (Zn²⁺) and chloride anions (Cl⁻). These ions are free to move within the liquid, allowing for the flow of electric charge. This movement of ions enables molten zinc chloride to conduct electricity.

The conductivity of molten zinc chloride can be attributed to the presence of mobile charge carriers, which are the zinc cations and chloride anions. These charge carriers can move through the liquid, facilitating the flow of electric current.

Freely Moving Electrons in Molten State

In addition to the movement of ions, another factor that contributes to the conductivity of molten zinc chloride is the presence of freely moving electrons. When zinc chloride is in the molten state, some of the zinc cations lose electrons, resulting in the formation of zinc atoms. These zinc atoms release electrons into the liquid, creating a pool of freely moving electrons.

These freely moving electrons can carry electric charge throughout the molten zinc chloride, further enhancing its conductivity. The combination of mobile ions and freely moving electrons allows molten zinc chloride to effectively conduct electricity.

Frequently Asked Questions

Does zinc sulfide conduct electricity?

Zinc sulfide is an insulator and does not conduct electricity due to its high electrical resistance.

Does zinc oxide conduct electricity?

Zinc oxide is also an insulator and does not conduct electricity due to its high electrical resistance.

Why does zinc bromide not conduct electricity?

Zinc bromide does not conduct electricity because it is an ionic compound that dissociates into ions in solution, but the ions are not free to move and carry an electric charge.

Does zinc conduct electricity as a liquid?

Yes, zinc can conduct electricity as a liquid. In its molten state, zinc becomes a good conductor of electricity due to the presence of mobile charged particles.

Does zinc chloride conduct electricity?

Zinc chloride is an ionic compound that dissociates into ions in solution, allowing it to conduct electricity.

Why do zinc and copper conduct electricity?

Zinc and copper are both metals and have a high electrical conductivity due to the presence of free electrons that can move easily and carry electric charge.

Does zinc alloy conduct electricity?

Zinc alloys can have varying electrical conductivity depending on their composition. Some zinc alloys may have good electrical conductivity, while others may have lower conductivity.

Does zinc conduct electricity in solid state?

Zinc is a metal and has good electrical conductivity in its solid state due to the presence of free electrons that can move and carry electric charge.

Does zinc-plated steel conduct electricity?

Zinc-plated steel can conduct electricity to some extent. The zinc coating provides a conductive path, but the overall conductivity may be lower compared to pure zinc.

How well does zinc conduct electricity?

Zinc is a moderately good conductor of electricity. It has lower electrical conductivity compared to metals like copper or silver but still allows the flow of electric charge.

Does zinc conduct electricity in water?

Zinc can conduct electricity in water to some extent. When zinc is in contact with water, it can undergo oxidation and release ions that can carry electric charge.

Can zinc conduct electricity when solid?

Yes, zinc can conduct electricity when it is in its solid state. It is a metal and has good electrical conductivity due to the presence of free electrons.

Does zinc plating conduct electricity?

Zinc plating can conduct electricity to some extent. The zinc coating provides a conductive path, allowing the flow of electric charge.

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Raghavi Acharya

I am Raghavi Acharya, I have completed my post-graduation in physics with a specialization in the field of condensed matter physics. I have always considered Physics to be a captivating area of study and I enjoy exploring the various fields of this subject. In my free time, I engage myself in digital art. My articles are aimed towards delivering the concepts of physics in a very simplified manner to the readers.