Journal Covers · Science Animations · Graphical Abstracts · Infographics · Scientific visuals
Sc·EYE·nce Illustrations
Concept art for beautiful research
See the Science, Grasp the Concept
Who better than a former researcher to illustrate science? I specialize in scientific illustration, journal covers, infographics, and educational videos. I am dedicated to bringing your scientific concepts to life with striking scientific visuals.
With a passion for transforming intricate scientific ideas into visually captivating and informative works of art, I’m here to assist you, whether you’re a researcher looking to enhance your publication with eye-catching graphics, an educational institution seeking engaging educational resources, or anyone in need of science-inspired visual content.
Feel free to check out my creations here!
Vectors
Solar
Light
Crystals
Molecular Cuisine
From Complexity to Clarity with Graphics
Anything is possible. Whether you are looking for an eye catching journal cover to showcase your article, an easy-to-understand Graphical Abstract for your next paper, or even a full animation to present your research, you can count on me to make it for you
Contact me today to harness the power of visual science!
This cover design feature a regular kitchen setting, with a high-end touch of molecular gastronomy. The cover design bring out a marriage between science and art, making the image visually captivating. The contrast between familiar kitchen tools and scientific lab instruments creates a surprising and intriguing effect that draws the viewer's attention. The molecular cuisine is all about experimentation with food, and the cover design would suggest a perfect blend of science and creativity.
The cover depicts crystals growing on a molecular model of a substance placed on a lab bench. The crystals appear to be in various shapes and sizes, with different facets reflecting light in diverse patterns. This visual conveys the intricate process of crystal growth, where molecules arrange themselves in an ordered manner to form a solid material. Overall, this cover communicates a fascination with the beauty and complexity of crystal growth, as well as the technical expertise required to study it in the laboratory.
This Illustration is taken from an educational video about how gram negative bacteria process iron using siderophores. It starts by highlighting the importance of iron in bacterial growth and the scarcity of free iron in the environment. The video then goes on to explain the mechanism used by gram negative bacteria to capture and transport iron through the use of siderophores, which are specialized iron-chelating molecules. A detailed explanation of how the siderophores interact with iron and how they are transported into the bacterial cell through specific receptors is provided in a way that is easy to understand. Overall, the video is concise, informative, and provides a clear overview of the process of iron uptake in gram negative bacteria.
This journal cover depicts a visual representation of an organic solar panel and the conversion of solar energy into electricity. The image highlights the different layers that make up the solar panel and their respective roles in the energy conversion process. The sun's rays are shown as they pass through the top layer of the panel, which is responsible for absorbing sunlight. The next layer is responsible for transporting the electrons created by the absorbed sunlight to the gold conductor, which is the bottom layer shown in the image. The gold conductor then transports the electrical current produced by the solar panel to power electronic devices or charge batteries. Overall, the image succinctly captures the complexity of solar energy technology and serves as a striking visual representation of the innovative research being conducted in this field.
The journal cover depicts the concept of photocatalysis, which involves the use of light to initiate chemical reactions. The beam of blue light in the illustration represents the energy source that is used to break a nitrogen-oxygen bond in a molecule. This creates a radical, which can then react with an alkene molecule in the background. The illustration thus represents the potential of photocatalysis to enable the creation of new chemical products under milder reaction conditions compared to traditional chemical synthesis methods.
The journal cover shows an illustration of a green pill, which contains paracetamol, traveling inside a vein. The illustration highlights the concept of drug vectorization, which is the process of encapsulating drugs inside nanoparticles to improve their delivery and effectiveness. The green color of the pill symbolizes safety and healing, while the vein represents the route of administration. Overall, the scientific visual conveys the message that the application of drug vectorization technology can improve drug delivery, reduce side effects, and enhance therapeutic effects. It is a visually appealing and informative representation of the importance of drug vectorization in modern medicine.
The scientific journal cover depicts the field of computational chemistry, showing a molecule in the midst of an intramolecular reaction. Using computer software, the substrate molecule is analyzed to predict the outcome of the reaction. The image emphasizes the importance of computational chemistry in understanding and predicting chemical reactions, and highlights the power of technology to aid in scientific research. . The cover suggests that computationnal chemistry is an important resource for researchers and students interested in the intersection of chemistry and computer science.
The scientific journal cover depicts the field of computational chemistry, showing a molecule in the midst of an intramolecular reaction. Using computer software, the substrate molecule is analyzed to predict the outcome of the reaction. The image emphasizes the importance of computational chemistry in understanding and predicting chemical reactions, and highlights the power of technology to aid in scientific research. . The cover suggests that computationnal chemistry is an important resource for researchers and students interested in the intersection of chemistry and computer science.
The scientific journal cover depicts a butterfly net capturing CO2 molecules within a cloud. The image symbolizes the concept of carbon capture technology, which aims to trap and store carbon dioxide emissions from industrial processes. The butterfly net is a metaphor for the carbon capturing technology, which does the same job as a net, but in a much more sophisticated way. The clouds in the background represent the vast amounts of carbon dioxide in our atmosphere, which contribute significantly to global warming. The image shows that carbon capture is an effective way to reduce carbon emissions and helps conserve natural resources. The cover highlights the importance of technology and innovation in addressing climate change issues and reminds us of our responsibility to protect our planet for future generations.
The journal cover depicts a vivid representation of a nanotube composed of polymeric chains. The image showcases the intricate and detailed structure of the nanotube, which have a cylindrical shape. The nanotube is composed of multiple strands of polymeric chains that are arranged neatly in a spiral pattern, giving the tube its distinctive appearance. The polymeric chains contains varisous molecular patterns, highlighting the diversity within the molecular structure. The cover is a tribute to the tremendous technological advances in the field of nanotechnology, specifically, the use of nanotubes composed of polymeric chains. This image is a testament to the complexity of molecular structure and the scientists' ability to harness the properties of these nanotubes to develop powerful tools in areas such as biomedicine and materials science.
The scientific journal cover about green chemistry features a striking image of a tree made up of crystals and a long polymeric chain. The tree depicts the idea of green chemistry, which focuses on developing sustainable chemical processes and products to preserve the environment and human health. By using crystals and polymeric chains, the cover communicates the message of developing efficient, diverse, and long-lasting chemical processes to promote sustainability. The crystals suggest the need for building sustainability through innovation, while the chains represent the interconnectedness of the environment and the need for making sure the products and processes are designed with interconnectivity in mind. In summary, the cover reflects the core values of green chemistry, including innovation, sustainability, and interconnectedness.
The scientific cover depicts a glycine molecule catalyzing a CH activation reaction on a tetralone molecule. More specifically, the glycine molecule serves as a catalyst to activate the CH bond on the C8 carbon atom of the tetralone molecule. This type of reaction, called C-H activation, involves breaking a strong C-H bond and forming a new chemical bond with another molecule. C-H activation has important implications in organic chemistry, as it allows chemists to selectively functionalize specific carbon-hydrogen bonds in complex molecules, leading to the synthesis of novel compounds with valuable properties. The scientific cover represents the significance of this research by visually depicting the molecular mechanism of C-H activation catalyzed by glycine, highlighting the complexity and subtlety of organic transformations.
This animation depicts a glycine molecule catalyzing a CH activation reaction on a tetralone molecule. More specifically, the glycine molecule serves as a catalyst to activate the CH bond on the C8 carbon atom of the tetralone molecule. This type of reaction, called C-H activation, involves breaking a strong C-H bond and forming a new chemical bond with another molecule. C-H activation has important implications in organic chemistry, as it allows chemists to selectively functionalize specific carbon-hydrogen bonds in complex molecules, leading to the synthesis of novel compounds with valuable properties. The gif represents the significance of this research by visually depicting the molecular mechanism of C-H activation catalyzed by glycine, highlighting the complexity and subtlety of organic transformations.
The scientific journal cover depicts a cabinet designed for flow chemistry, which is capable of performing every step of a chemical reaction starting from reactant sampling to product characterization. The cabinet consists of various modules that work synchronously in a continuous flow manner, facilitating an automated reaction process with pre-programmable parameters. The modules include pumps, valves, and reactors, which are connected through tubing. The cover emphasizes the importance of flow chemistry, which is a technique used in the chemical industry to achieve higher efficiency, safety, and ease of scalability. The technique enables fine-tuning of reaction parameters to achieve better yields, faster reactions, and better selectivity. The cover demonstrates the advantages of using a fully automated flow chemistry system for seamless and effortless reaction optimization.
The video explains SN2 reactions using a nucleophile to attack a carbon atom with a halogen, showing how stereochemistry affects the reaction. It covers key steps, factors affecting the reaction, and the importance of three-dimensional arrangement of atoms. This makes it a great learning resource for organic chemistry.
This animation portrays the use of electrochemistry to characterize siderophores. Siderophores are molecules that act as iron chelators to facilitate the uptake of iron by microorganisms. In the gif, a non-existent lab equipment is shown that uses electricity to analyze the characteristics of siderophores. The lab equipment is pictured as connected to a computer screen in the background, which displays the data obtained from the electrochemical characterization of siderophores. The scene is set on a lab bench, as this type of research is taking place in a laboratory. This journal cover indicates the importance of analyzing the electrochemical properties of siderophores to gain a better understanding of how they function in biological systems.
The scientific journal cover portrays the use of electrochemistry to characterize siderophores. Siderophores are molecules that act as iron chelators to facilitate the uptake of iron by microorganisms. In the image, a non-existent lab equipment is shown that uses electricity to analyze the characteristics of siderophores. The lab equipment is pictured as connected to a computer screen in the background, which displays the data obtained from the electrochemical characterization of siderophores. The scene is set on a lab bench, as this type of research is taking place in a laboratory. This journal cover indicates the importance of analyzing the electrochemical properties of siderophores to gain a better understanding of how they function in biological systems.
The video showcases the concept of artificial metalloenzymes, which are molecules that have been engineered to have the catalytic properties of enzymes. The video begins by showing a series of small molecules, which represent reactants, moving along an assembly line. As the molecules move, they encounter metals that have been embedded within the environment. These metals are responsible for catalyzing the reactions that are needed to transform the reactants into new products. Throughout the video, we see how the different metals interact with the reactants to form new molecules. The process is highly complex, but the video does an excellent job of breaking down the steps involved. Overall, the video provides an excellent introduction to the world of artificial metalloenzymes and how they can be used in various industries.