Graphite Fluoride

Specifications

HS Code	755149
Chemical Formula	CFx (where x typically ranges from 0.5 to 1.1)
Appearance	Powdery solid, often white to grayish-white
Crystal Structure	Layered structure similar to graphite, with fluorine atoms attached to carbon layers
Electrical Conductivity	Lower electrical conductivity compared to graphite, can be considered semi - conductive
Thermal Stability	High thermal stability, can withstand elevated temperatures without significant decomposition
Lubricating Property	Excellent lubricating properties, reduces friction between surfaces
Chemical Reactivity	Less reactive than graphite due to fluorine - carbon bonds, relatively stable in many chemical environments
Density	Typically in the range of 2 - 3 g/cm³
Mechanical Strength	Moderate mechanical strength, can maintain structural integrity under certain loads
Fluorine Content	Varies depending on the synthesis method and intended application, affects its properties

As an accredited Graphite Fluoride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

Packing & Storage

Packing	100g of Graphite Fluoride packaged in a sealed, chemical - resistant bag.
Storage	Graphite fluoride should be stored in a cool, dry, well - ventilated area. Keep it away from heat sources, ignition sources, and incompatible substances like strong oxidizers. Store in tightly - sealed containers to prevent moisture absorption and potential reactions. This helps maintain its stability and reduces risks associated with reactivity changes.
Shipping	Graphite Fluoride is shipped in sealed, corrosion - resistant containers. Adequate cushioning ensures protection during transit. Shipments follow strict hazardous material regulations to guarantee safe transportation.

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General Information

Historical Development

Graphite fluoride, the development of its things, after years. Ancient chemical sages, in the exploration of materials, gradually touched this domain. At the beginning, the understanding is still shallow, only a little observation of its characteristics.
Catch up to later generations, science and technology advanced, research deepened. Scholars worked hard to analyze its structure, study its performance. From accidental discovery to deliberate study, the understanding of graphite fluoride, from the outside to the inside.
In the past, the experimental conditions were scarce, and progress was difficult. However, the public was not discouraged, and failed repeatedly. In recent times, with state-of-the-art instruments and complete theories, the research and development of graphite fluoride has begun to make breakthroughs, and its uses have become increasingly widespread. It has shown unique capabilities in various fields such as energy storage and material strengthening, and the future is still immeasurable.

Product Overview

Graphite fluoride is a unique chemical substance. Its appearance is often powdery and has different physical and chemical properties. This compound is prepared by a specific reaction between graphite and fluorine.
Graphite fluoride has excellent thermal stability and can remain stable in high temperature environments. And its electrical properties are unique, which can be applied to many electronic fields. In terms of lubrication, it performs well and can greatly reduce the coefficient of friction.
Graphite fluoride has potential applications in many fields such as industrial manufacturing and electronic devices. Because of its unique properties, it can bring new development opportunities to related industries, and it is an object worthy of in-depth investigation in the field of chemical substances research.

Physical & Chemical Properties

The physical and chemical properties of graphite fluoride can be studied. This compound is white or gray in color, and the appearance is pink. Its structure is unique, and the fluorine atoms are regularly embedded between the carbon layers, resulting in a unique lattice structure.
In terms of its physical properties, the texture is light, the density is quite low, and it has good lubricity, and the friction coefficient is extremely small. In terms of chemical properties, it has good stability and is not easy to react with ordinary reagents. Thermal stability is also excellent. Under high temperatures, the structure does not change greatly. However, in the case of strong reducing agents, fluorine removal reactions may occur. Its conductivity has changed compared with graphite. Due to the introduction of fluorine, the distribution of electron clouds has changed, and the conductivity has a different state. These physical and chemical properties make it promising for applications in energy storage, lubrication, and other fields, making it an important direction of chemical research.

Technical Specifications & Labeling

Graphite fluoride is one of the chemical materials. Its process specifications and identification (product parameters) are the key.
If you want to make graphite fluoride, you need to follow specific process regulations. The selection of raw materials must be excellent, and the purity and particle size of graphite are fixed. The reaction conditions, such as temperature, pressure, and reaction time, also need to be precisely controlled. If the temperature is too high or the product is impure, the reaction will be slow if it is too low. The pressure is moderate, so that the reaction can be smooth.
On the label, the product parameters should be detailed. The geometry of the fluorine content and the crystal structure must be clearly marked. These parameters are related to the performance of the product and provide the user with the exact basis. If the fluorine content affects its chemical activity, the crystal structure is related to its physical properties. Precise process specifications and clear labels ensure the quality of graphite fluoride, making it useful in various fields.

Preparation Method

Graphite Fluoride, the genus of compounds. The method of its production, the first raw material. Take pure graphite, this is the basis. Supplemented by fluorine sources, such as fluorine gas, the two are the main materials for making this material.
As for the production process, high temperature reaction method is often used. Put graphite and fluorine in a special container to control its temperature and pressure. At the beginning, slowly heat up, and wait for the two to gradually interact. The reaction step is to dissociate the fluorine gas molecules first, and the active fluorine atoms are on a blind date with the graphite lattice. The fluorine atoms are gradually embedded in the graphite layer, causing the crystal lattice structure to change.
Catalytic mechanism, then use an appropriate catalyst to promote it. The catalyst can lower the reaction energy barrier and speed its synthesis. Make the interaction between fluorine and graphite easier, and the yield and purity are improved. In this way, Graphite Fluoride can be obtained, which has unique performance and is of great use in various fields.

Chemical Reactions & Modifications

Graphite fluoride is also a new material in chemistry. Its chemical changes and modifications are related to the performance of materials. In the past, the research was mostly trapped in the accuracy of the reaction. At first, the product was not pure and the performance was not as expected.
After being studied by various scholars, the reaction conditions were changed, the temperature and pressure were controlled, and the proportion of the reactants was adjusted. In this way, the reaction became more controllable, and the purity of the product was increased. And the modification method had to be expanded, or other agents were added, or special treatment was applied to make graphite fluoride have better conductivity and stability. After this change, graphite fluoride has emerged in energy storage, electronics, and other fields, opening up a new path for the development of chemical materials. In the future, it will be able to develop its talents and benefit many fields.

Synonyms & Product Names

Graphite fluoride is also a chemical wonder today. Although its name is new, it has already been seen in the research of various chemical scholars. This substance, or another name, is similar, and it has also been noticed by various researchers.
Looking at Fugu's chemical research, every time a thing first appeared, various families called it by different names, and then it gradually became unified. The same is true of graphite fluoride. At the beginning, people or with its characteristics and production methods, each gave its name, such as "fluorine ink compound", all referring to this graphite and fluoride combined product.
It has great potential in various fields. Or it can be used as an energy storage device to increase its efficiency; or it can be used as a material improvement aid to add its advantages. And so on, it is up to researchers to deeply explore its properties and clarify its similar names. Only then can they make good use of this chemical wonder to benefit everyone and promote the progress of science and technology.

Safety & Operational Standards

Graphite fluoride is one of the important substances in chemical research. Its safe production and operation practices should not be careless.
The preparation of graphite fluoride must be in a suitable environment, according to the exact ratio and steps. The preparation place should be well ventilated to prevent the accumulation of harmful gases and endanger people. The equipment used must be clean and accurately calibrated to ensure the smooth reaction and the reliability of the result.
When operating, the operator must wear protective gear, such as protective clothing, gloves, goggles, etc. Due to the special nature of graphite fluoride, or contact with the human body and cause injury. And the operation should be slow and stable, and must not be impatient to prevent accidents.
When storing, graphite fluoride should be placed in a dry and cool place, away from fire sources and oxidants. Due to its chemical activity, improper storage, or risk of fire or explosion. And it must be stored in a suitable container, tightly sealed to prevent it from reacting with external substances.
In case of an accident, such as leakage, evacuate personnel immediately, and strictly prohibit fire. Operators should quickly wear professional protective equipment and deal with it according to the established emergency plan. Small leaks can be adsorbed by inert materials such as sand; large leaks require professional cleaning teams to properly handle them to prevent environmental pollution.
The safe production and operation of graphite fluoride are related to personal safety and environmental safety. All researchers must be careful and obey them, and must not slack off, so as to ensure that everything goes smoothly and there will be no future troubles.

Application Area

Graphite fluoride is a new material made by modern chemistry. Its application field is quite wide. In the field of energy storage, it can be used as an electrode material, because of its unique electrochemical properties, it can make the battery get better charging and discharging efficiency and long-term stability. In the field of lubrication, it is also useful. Its molecular structure is special, which can greatly reduce the friction coefficient, make the mechanical operation smoother, and reduce the wear of components. And in terms of material strengthening, adding graphite fluoride can increase the hardness and corrosion resistance of the material. It is used in high-end manufacturing such as aerospace, and can ensure the stable operation of the device in complex environments. Its various applications demonstrate the exceptional value of this substance in the field of modern technology and industry, which is a testament to the benefits of chemical research to all industries.

Research & Development

In recent years, Yu has dedicated himself to the research of Graphite Fluoride. This substance is unique and has great potential in various fields such as energy storage.
At the beginning, analyzing its structure, I was still fascinated by the wonder of interlayer bonding. After months of research, I used high-resolution techniques to explore the secret of its atomic arrangement. Then, I studied the preparation method, adjusting the temperature and pressure, and repeated tests. Although I have encountered repeated setbacks, I have not given up. Finally, I have a method that can make high-purity products.
Looking at its application, in lithium batteries, it can increase the battery capacity and stabilize its performance. Looking to the future, Graphite Fluoride is expected to lead to energy revolution. Yu will continue to study it, hope to expand its use, and promote its widespread use in the world for the well-being of the public.

Toxicity Research

The study of the toxicity of graphite fluoride, ancient scholars studied the physical properties, and graphite fluoride was particularly concerned. Its material is also unique in color and nature. Taste graphite fluoride and observe its toxicity in detail. Try it with all kinds of creatures and see how it is invaded. Or see the creatures are sluggish, their vitality is gradually lost, and they appear abnormal signs. It can be known that this substance is toxic, although the depth of its harm is not fully known, it is still enough to alarm scholars. It is necessary to study its reasons and examine its harm in detail, in order to find ways to prevent and avoid it, so that this substance will not be a disaster to the world, so as to live up to the meaning of scholars' research, and to ensure the well-being of everyone and the tranquility of the environment.

Future Prospects

Graphite fluoride is also a novel material that I have studied. It is unique, and the application scene can be looked forward to in the future.
Today, this quality is exquisite in structure and outstanding in performance. The nature of electricity is controllable, and the quality of mechanics is adjustable, which is the foundation of all technologies in the future. In the field of energy storage, it can be used as a material for new types of batteries to increase its capacity and improve its efficiency, so that the power can last for a long time and not fade. Portable devices can travel without worry.
And in the industry of lubrication, its ability to reduce friction and wear resistance can make the equipment last for a long time, run smoothly, and the effect of craftsmanship can be improved accordingly. The genus of aerospace also relies on its light weight and excellent performance to help the aircraft fly high and explore the secrets of the dome.
Although the current research is not complete, I believe that in time, graphite fluoride will shine in the future world, opening up a new chapter in science and technology, for the well-being of all living beings, and developing infinite grandeur.

Where to Buy Graphite Fluoride in China?

As a trusted Graphite Fluoride manufacturer, we deliver: Factory-Direct Value: Competitive pricing with no middleman markups, tailored for bulk orders and project-scale requirements. Technical Excellence: Precision-engineered solutions backed by R&D expertise, from formulation to end-to-end delivery. Whether you need industrial-grade quantities or specialized customizations, our team ensures reliability at every stage—from initial specification to post-delivery support.

Frequently Asked Questions

As a leading Graphite Fluoride supplier, we deliver high-quality products across diverse grades to meet evolving needs, empowering global customers with safe, efficient, and compliant chemical solutions.

What are the main application fields of Graphite Fluoride

The combination of graphite and fluoride has a wide range of main application fields. In the field of aerospace, the combination of the two is very effective. Spacecraft are placed in the vast universe, and they need to face extreme temperatures, intense radiation and high vacuum and other harsh environments. Graphite is light and has excellent thermal stability, while fluoride can provide unique chemical protection properties. The combination of the two can create spacecraft components that are both lightweight and effective against the harsh environment of the universe, such as satellite cooling plates, aircraft structural frames, etc., to ensure the stable operation of spacecraft.
In the field of energy storage, it is also key. Today's demand for high-efficiency energy storage devices is increasing, and graphite-fluoride systems can be used to develop high-performance battery electrode materials. The interaction between fluoride and graphite can change the electrochemical properties of electrodes, improve the energy density and charge-discharge efficiency of batteries. In this way, it can provide more durable and powerful power support for electric vehicles, portable electronic devices, etc., and promote the progress of energy storage technology.
Furthermore, in the field of material surface protection, graphite-fluoride coating is very popular. This coating can give the material surface excellent wear resistance, corrosion resistance and low friction characteristics. Whether it is metal materials or polymer materials, after applying this coating, it can significantly extend its service life and improve its working performance. For example, in mechanical manufacturing, various parts can be treated with this coating to reduce wear, reduce maintenance costs, and improve the overall efficiency of mechanical equipment.

What are the Physical Properties of Graphite Fluoride?

The physical properties of graphite and fluoride are considerable. Graphite has a layered structure, soft texture, and good electrical and thermal conductivity. Fluoride, on the other hand, has a wide variety and different properties.
When graphite is combined with fluoride, one of the products produced may have unique electrical properties. Due to the good conductivity of graphite, the addition of fluoride may change its electron cloud distribution, which in turn affects the electrical conductivity. Or enhance the original conductivity and have potential applications in fields such as electronic devices; or change the conductivity type, from conductor to semiconductor, which is of great significance for the research and development of semiconductor materials.
Second, the thermal properties also change. The high thermal conductivity of graphite may be adjusted due to the action of fluoride. The lattice structure and chemical bond properties of fluoride, or the interaction with graphite, affect the propagation of phonons and increase or decrease the thermal conductivity of the material. This provides new possibilities for the design of heat dissipation materials or thermal insulation materials.
Third, the mechanical properties should not be underestimated. The soft layered structure of graphite, when combined with fluoride, can enhance the hardness and strength of the material. The interaction between fluoride and graphite layer, or limit the sliding of graphite layer, improve the overall mechanical properties, and can enhance the properties of the matrix in the preparation of composites.
Fourth, the appearance and morphology may be changed. The original black and flake shape of graphite, after reacting with fluoride, the color and shape of the product may be completely different. Or change to other colors, or change from flake to granular, block, etc., which provides more possibilities in the selection of application scenarios of materials.

What are the Chemical Properties of Graphite Fluoride?

Graphite and fluoride, the two meet, and their chemical properties are specific, which is worth studying in depth.
Graphite, known for its stability, has a layered structure, and the layers are maintained by weak van der Waals forces. This structure gives it many characteristics, such as good conductivity and lubricity. And fluoride, fluorine element is extremely electronegative, and often shows active chemical properties in compounds.
When graphite and fluoride meet, the two may react chemically. Fluorine atoms are extremely eager to obtain electrons to achieve a stable structure. Its strong oxidation can break the weak interaction between graphite layers. Fluorine atoms may be inserted into graphite layers to form graphite intercalation compounds. During this process, the electronic structure and crystal structure of graphite are changed.
The graphite-fluoride intercalated compound formed may have novel chemical and physical properties. Its conductivity may be changed due to perturbation of fluorine atoms insertion, or it shows semiconductor properties, which are different from the good conductivity of graphite. And due to the intervention of fluorine atoms, the stability and thermal properties of the compound are also different. The chemical bond formed between the fluorine atom and the graphite carbon atom may make the compound more resistant to chemical attack and greatly increase the stability under specific environments.
Furthermore, reaction conditions such as temperature, pressure, and the proportion of reactants have a great influence on the properties of the product. Under high temperature and high pressure, fluorine atoms may be more easily and deeply inserted into the graphite layer, and the change of product properties is more significant.

What are the Preparation Methods of Graphite Fluoride

The method of graphite fluoride has been used in ancient times, and there are many ingenious methods. One method is to place graphite in a dense device and pass high fluoride. This method requires controlling the strength of the graphite, so that the two can be reversed. The strength of the graphite is high, and the strength of the graphite is strong, so as to control it; the strength of the graphite is low, and the strength of the graphite is high, so that it can be reversed for a long time. The strength also needs to be appropriate, so that the fluorine graphite can be fully connected, and the reaction is complete.
There is another method, which is to dissolve the medium. First, take the appropriate solution, and the graphite powder is dispersed in it, and add fluorine-containing compounds. This fluorine-containing compound, or the fluoride of the fluoride, or the fluorine-containing compound, can be the desired property of the material. In this mixed solution, apply appropriate components, such as mixing, etc., to make fluorine-containing compounds produce fluorine atoms, and graphite biochemical reaction. In this process, the solubility is very important, and its resistance, boiling, etc., can affect the rate of reaction.
There is another method of reduction. With graphite, immersed in the fluorine-containing solution. Through the flow, the surface of the fluoride is transformed. Under the action of the fluoride, the fluoride particles are moved to the graphite, and the fluoride atoms are obtained on the surface to form fluorine atoms, and the graphite is reversed. The beauty of this method is that the flow density can be controlled, the reaction process can be precisely controlled, and the performance of the obtained material can also be adjusted on demand.
For graphite and fluoride, each method has its own characteristics, and it needs to be used according to the characteristics of the required material and the quality of the product.

What are the advantages of Graphite Fluoride compared to other materials?

Graphite and fluoride have many advantages over other materials.
The conductivity of graphite and fluoride is outstanding. Graphite has good electrical conductivity, and when combined with fluoride, electrons move more smoothly. For example, in many electronic devices, this characteristic is the key. Just like the exquisite mechanism in ancient times, it requires the precise cooperation of various components, and the excellent electrical conductivity is like the unimpeded conduction vein, which can quickly reach all places and make the device operate efficiently.
Its chemical stability is also an outstanding advantage. The characteristics of fluoride can help graphite to stand still in complex chemical environments. Just like a strong fortress in ancient times, it is difficult for foreign enemies to invade. In a highly corrosive environment, ordinary materials are prone to erosion and damage, while the combination of graphite and fluoride can maintain its own structure and performance stability, ensuring the long-term use of related equipment.
Furthermore, the combination of the two has great potential for energy storage. In today's world, energy storage demand is on the rise. This combination material can be used in high-performance batteries, such as lithium-ion batteries. It can provide higher specific capacity and charging and discharging efficiency, just like the ancient march, carrying more grain and convenient access, bringing many conveniences to energy storage and conversion.
In addition, the thermal stability of graphite and fluoride synthetic materials is also good. When exposed to high temperatures, it is not easy to deform or decompose. In high-temperature industrial scenarios, it acts as a reliable guardian, ensuring that equipment operates smoothly under high-temperature conditions and does not experience a sudden drop in performance due to temperature changes. These advantages make the combination of graphite and fluoride stand out among many materials and have important application value in many fields such as electronics, chemical industry, and energy.