Pickering emulsion, an emulsion stabilized by colloidal solid particles at the water-oil interface, is a highly intriguing subject in scientific research, daily life, and industrial production. This paper aims to demystify the concept of “Pickering emulsion”. It delves into the fundamental principles, formation mechanisms, preparation techniques, laboratory findings, and applications in the field of photocatalysis. By doing so, it provides college students, teenagers, elementary school students, and even the general public with an opportunity to discover the beauty and wonders of chemistry through the lens of Pickering emulsion.

As a member of soft matter, hydrogel is a new type of functional polymer material with a three-dimensional network structure. Due to the properties of high water content, fast swelling, good biocompatibility, and sensitive responsiveness to external stimuli, hydrogels have been widely used in various different fields. Starting from the common jellies and water-elf toys in life, this project gradually goes deep into 3D-printing technology hydrogels, deformable hydrogel, and memorizing-forgetting hydrogel based on thermal stimulation. For different audiences, we have popularized the knowledge of hydrogels at different levels, experienced the preparation and properties of different types of the hydrogels, and explained the related chemical principles, so as to improve the public chemical literacy.

Chlorophyll is a compound that can be found everywhere in our daily lives. When exposed to ultraviolet light, chlorophyll emits red fluorescence, which holds significant value in scientific research and production. This paper aims to popularize a hands-on experiment that introduces the fundamental concepts of chlorophyll, the mechanism behind its fluorescence, laboratory and household preparation methods, experimental characterization, and potential applications. By doing so, it enables the public to better comprehend the principles of chlorophyll fluorescence, experimental procedures, and the promising prospects for its application, fostering a deeper appreciation for the beauty of chemistry and its essential contributions to societal development.

In this popular science experiment, the non-toxic ZnGa₂O₄:Bi³⁺ fluorescent material was prepared which has three mode luminescence properties including tunable multicolor emission, dynamic photochromic and thermochromic fluorescence properties. By utilizing the “chameleon-like” fluorescence characteristics of the material, we designed three kinds of display schemes for information security application. The experiment is not only interactive and interesting, but also has a good effect on popular science practice, which is helpful to stimulate students’ enthusiasm for learning chemistry, and help adolescents experience the rich connotation of “beautiful chemistry”.

We have developed a homemade sugar-based light experimental platform by specially designing an optical analyzer, allowing us to observe paper-cut art and dynamic rainbow boards. Moreover, by substituting the central sugar solution with sugar building blocks, we can create neon-colored building blocks. This apparatus is easy to set up and operate, with a clear and concise principle, meeting the requirements of popular science activities for safety, flexibility, and engaging demonstrations. Through observing the shifting colors, students can personally delve into the mysteries of the interaction between light and optically active molecules, thereby enhancing their appreciation of the beauty of physical chemistry.

Starting with the emotional response of university students to Li Bai’s poems after watching the film “The Longest Day in Chang’an”, this paper delves into the concept of entropy and the principle of entropy increase. By introducing the origin and significance of entropy, the paper aims to elucidate the contents and connections of the three laws of thermodynamics. It further explores the implications of the principle of entropy increase on both life and everyday living. The paper reveals that the entire history of human evolution and the development of life is a narrative of combating entropy. To live a meaningful life, one must continuously strive against entropy, breaking free from comfort zones and maintaining self-discipline.

Lithium-ion batteries play a crucial role in human production and daily life. This article employs an anthropomorphic approach, casting lithium ions as Xiao Li, to vividly illustrate the working principles of lithium batteries, the structural characteristics of active materials, and the causes and solutions for safety risks encountered during battery use.

This article introduces how the authors, as volunteers at the Experimental Chemistry Education Center of the University of Science and Technology of China, overcame various failures and successfully completed the “Leaf Electroplating” project for the 2023 Science and Technology Week, as well as the insights and gains gained from this experience. The “Leaf Electroplating” experiment is inspired by the artistic art of leaf bookmarks, mainly using principles of chemical plating and electroplating, with the aim of uniformly plating a layer of copper on the surface of leaves as a popular science experiment. Through this experiment, the audience can gain a preliminary understanding of redox reactions and electrochemistry, stimulating children’s interest in chemistry.

Chirality permeates every aspect of life’s beauty. To foster a proper understanding of chirality among the public, this paper employs the differences between L- and D-tartaric acid enantiomers to design experiments for popularization of science: (1) Construction of molecular models of tartaric acid enantiomers; (2) Cultivation and observation of tartaric acid crystals; (3) Observation of the optical activity of tartaric acid solutions; (4) Recognition of chirality in tartaric acid molecules. These experiments range from basic to advanced, featuring simple operation, obvious phenomena, interactive communication, and have received positive feedback in the early stages of implementation.

Luminol (3-Aminophthalhydrazide) serves as a chemiluminescent reagent that, when oxidized by an oxidant in an alkaline aqueous solution, generates excited state molecules. Upon returning to the ground state, these molecules emit energy in the form of visible blue light, which is both striking and aesthetically appealing. This work enhances the outreach of chemiluminescence experiments by substituting laboratory alkaline reagents and oxidants with everyday items like explosive salts and disinfectants (e.g., 84 disinfectant). Targeted gradient science popularization efforts are tailored for different levels of scientific knowledge: (1) Engaging young children and adolescents with entertaining experiments such as “Blue Rain” and “Blue Flame” to foster interest in chemistry through enjoyable educational activities. (2) Designing experiments for undergraduate students with a strong scientific background to utilize chemiluminescence analyzers for measuring peroxide content in explosive salts, thereby enhancing practical problem-solving skills, experimental proficiency, and logical reasoning. (3) Educating the general public through everyday chemical experiments to dispel misconceptions about chemiluminescence, promoting a deeper understanding of scientific principles and improving rational thinking and scientific literacy.

Initially colorless and transparent, the sucrose solution exhibited a stunning array of colors when viewed through a polarizer. This study utilized polarization characteristics to explore the variations in beam split capacity among different sucrose solution concentrations, while also tracking the hydrolysis process of sucrose under acidic conditions. The paper further elucidates the scientific principles underlying these experimental phenomena.

Copper nanoclusters (CuNCs) were synthesized using glutathione and cysteine as ligands, respectively. According to the photoluminescence mechanisms of CuNCs, we investigated the effects of various factors on their photoluminescence properties, including ligands, radicals, pH, solvents, and temperature. Based on these findings, a Copper Nanoclusters Photofluorescence Kit was successfully developed. The kit is portable, safe, and applicable across a broad range of public science education scenarios, effectively engaging the public’s interest in nanomaterials and actively enhancing their understanding of the charm of chemistry.

This article introduces the specific practices of Nanjing University in conducting science popularization work in deep cooperation with the school under the background of the “double reduction” policy. The science popularization base has established the principles of promoting the spirit of scientists, deeply integrating science popularization activities with in-class education, and carrying students as the center. All science popularization education activities are designed based on these principles. Some experiences in resource opening, teacher supply, curriculum development and so on are summarized.

The “double reduction” policy, implemented in 2021, underscores the importance of leveraging university resources for enhanced after-school education. In response, Nankai University's Chemistry Science Base integrates university expertise and resources, optimizing team design. This involves active participation from high-level talents, experimental center teachers, and undergraduates in crafting after-school courses. Adopting a flexible “come in, go out” approach, we combine lectures, teaching, experiments, and research to deliver chemistry popular science courses tailored for primary and secondary school students of varying ages. This initiative aims to develop a series of targeted, content-rich, and characteristic chemistry popular science courses emblematic of Nankai Chemistry.

Against the backdrop of the Snowflake Castle collapse and through the dialogue between Little Snowflake and the Doctor, this paper introduces the main components, principles of action, and applications of snow melting agents. Using snow melting agents as an example, it further explores the concept of colligative properties of dilute solutions, their related applications, and the methods of using snow melting agents. The aim is to familiarize readers with the concept of colligative properties in physical chemistry and to promote the concept of environmental protection.

In the wake of rapid industrial development, the ever-increasing emissions of carbon dioxide (CO₂) have given rise to environmental concerns, including climate change. Harnessing CO₂, an abundant, non-toxic, and cost-effective C1 resource, through chemical catalysis to produce high-value-added chemicals presents a viable solution for the sustainable utilization of CO₂ resources. This paper employs a first-person perspective and a personification approach to introduce the adsorption and activation mechanisms of CO₂ molecules by several typical catalysts.

This article recounts the experiences of an ordinary college student during a National Day trip to Wuhan, where unexpected encounters with Huawei Mate 60, food packaging bags, and medical equipment unfold. Through a vivid and lively narrative, the article introduces readers to cyclic olefin copolymer (COC) materials and their typical applications in optical devices, plastic packaging, and the biomedical field.

“The Picture of a Thousand Miles of Rivers and Mountains” stands as one of China’s ten great masterpieces, symbolizing not only the evolution of green landscape painting but also encapsulating a microcosm of ancient Chinese civilization. Handed down through centuries, this painting continues to radiate vibrancy and color, intricately intertwined with its materials, pigments, and binding agents. This article adopts a chemical perspective to meticulously analyze the pigments and binding agents employed in “The Picture of a Thousand Miles of Rivers and Mountains”, personifying them as “Brother Graphite”, “Aunt Ochre”, “Brothers Green and Blue”, “Miss Agate”, and “Uncle Gelatin”, elucidating their distinctive personalities and characteristics. Furthermore, it delves into their chemical components and physical properties, unveiling the magnificent secret behind the creation of “The Picture of a Thousand Miles of Rivers and Mountains” by these remarkable pigments. By provoking contemplation on the amalgamation of classical art and modern technology, this article strives to foster the convergence of art appreciation and technological innovation.

Nicotinamide adenine dinucleotide (NAD⁺) is a pivotal biological molecule with essential roles in cellular energy transfer and metabolic regulation. In recent years, research on NAD⁺ in the medical and health domains has garnered significant attention, particularly concerning aging, metabolic disorders, and cancer treatment. Foods associated with NAD⁺ are gradually becoming popular choices on contemporary dining tables. This article, adopting a personified tone, presents the chemical structure, biological functions, and the latest research advancements pertaining to NAD⁺, while also assessing its potential transition from the realm of anti-aging to clinical applications.

This science popularization experiment is themed around the beloved magical literature character Harry Potter and his tour in China, specifically focusing on his journey at Wuhan. The experiment showcases the bronze restoration technology used in museums, the sacrificial anode anti-corrosion technology of the “Zhiyin” cruise ship, the cement solidification and 3D printing technology used in the Wuhan Yangtze River Bridge, and the preparation of carbon quantum dots depicted in the Yellow Crane Tower. Through these demonstrations, chemical knowledge is subtly disseminated.

Increased carbon dioxide concentrations may contribute to global warming, damaging ecosystems; however, CO₂ can also be captured and converted into valuable chemicals. Carbon dioxide and epoxy compounds can undergo a cycloaddition reaction, producing carbonates that can be effectively utilized as chemical raw materials. This article adopts a first-person perspective and personification, comparing carbon dioxide and epoxy compounds to two children—“Ice” and “Fire”—who are troubled by environmental degradation but determined to rebuild their home. Through their adventurous journey to overcome numerous obstacles and collect carbonates, the article introduces the mechanism of the cycloaddition reaction, typical catalysts, and the applications of carbonates in various industries.

In recent decades, an escalating incidence of tumors has been observed, necessitating more precise and less side-effect-prone therapies. Micro/nanorobots have been successfully engineered to address this challenge. These minute intelligent machines are capable of navigating to, and even infiltrating, tumor cells or tissues under external control. This enables targeted drug delivery and precise tumor therapy. To elucidate this sophisticated technology to a general audience, this paper adopts a personification style. Utilizing an engaging "battle narrative between micro/nanorobots and tumor cells", we briefly outline the design, fabrication, propulsion mechanisms, and therapeutic principles for a wider readership.

The Dunhuang murals, as the jewels of ancient Chinese art, represent a rich repository of history, culture, art, and religious heritage, whose value is immeasurable. The pigments used in these murals, meticulously selected from natural minerals, bring unparalleled color and texture to the Dunhuang paintings. A deeper understanding of the characteristics of these pigments aids in the appreciation of the profound layers of art, culture, and history, and serves as the foundation for the preservation and restoration of the murals. This article employs a vivid, anthropomorphic narrative to make the origins of the colors in the Mogao Caves’ murals accessible and understandable. It focuses on elucidating the typical mineral pigments used and their sources, with the aim of promoting the conservation of these murals, as well as the popularization, dissemination, and heritage of cultural treasures.

Luminescent materials play diverse roles in daily life, yet public awareness of their luminescent phenomena and optical properties, especially regarding ACQ and AIE molecules, remains limited. This experiment aims to bridge that gap by designing tailored outreach experiments for audiences of all ages. Moreover, it presents a versatile and accessible science outreach endeavor, showcased across various platforms both online and offline. With straightforward procedures, vibrant colors, and striking luminescent effects, the experiment not only facilitates comprehension of luminescent molecules in everyday life but also encourages teenagers to explore, propose, and address scientific inquiries. This initiative fosters a research-oriented mindset and methodology among teenagers, promoting innovation in scientific exploration.

Incorporating the backdrop of the novel Charlie and the Chocolate Factory, this paper provides a brief introduction to the chemical composition of chocolate. It offers a user-friendly explanation of several mainstream 3D printing technologies and their principles, discussing the advantages of food 3D printing in the food manufacturing industry. Furthermore, it places a particular focus on the historical development, working principles, and sensory aspects of chocolate 3D printing. By merging familiar everyday foods with cutting-edge scientific advancements, this article is presented in an easily understandable and reader-friendly manner, effectively serving the purpose of popularizing science.

Plant pigments are natural organic compounds found in plant cells. They impart vibrant colors to plants and play essential roles in processes such as photosynthesis and other physiological reactions. This article provides an overview of the classification and chemical molecular structures of plant pigments, as well as an introduction to their basic coloration mechanisms. It guides individuals in understanding the colorful world at the molecular level and emphasizes the intrinsic connection between organic chemistry and plant physiological activities.

Drawing inspiration from the recent trend of Sauce-Flavored Latte, this paper ingeniously explores the dual narrative of “wine meets coffee”, unraveling the anthropomorphic tale of ethanol and caffeine. Delving into their chemical properties, physiological mechanisms, and metabolic pathways, the narrative aims to enlighten readers about the underlying chemistry and health implications, enabling a more informed and moderate consumption of beverages.

Quantum dot materials have garnered increasing attention in recent years due to their excellent properties, such as stimulated emission, narrow emission half-peak width, and continuously adjustable luminous colors. This article provides a brief overview of quantum dots, categorizing them based on the composition of material elements, and explores their applications in LED technology, solar cells, biomedical uses, and heavy metal ion detection.

The Zhuque family, who lived in the Hexi Corridor on the ancient Silk Road, established LANDSPACE and has been exploring environmental, economic, and safety propellants. Little Zhuque visited LANDSPACE and learned about various liquid propellants, including liquid oxygen and kerosene with high thrust but easy carbon accumulation, environmentally friendly liquid oxygen and liquid hydrogen with high energy consumption, stable but toxic unsymmetrical dimethylhydrazine and nitrogen tetroxide. Finally, they discovered that the Zhuque Two carrier rocket, launched by LANDSPACE, was the world's first rocket to use liquid oxygen and methane as propellants. Liquid oxygen and methane are expected to have broader applications in the future due to their abundant reserves, easy storage conditions, safe transportation, complete combustion, and pollution-free combustion products.

Silver is instrumental in human life and production. Herein, this article personifies silver to introduce the basic properties of silver and its compounds and their application in life and production, to enable readers to understand silver and its compounds in a lively way.

This paper summarizes the current safety status of chemical science popularization activities and recommends that chemists prioritize safety from the outset of experiment design. It suggests conducting thorough safety assessments and minimizing the use of flammable, toxic, corrosive, and irritant chemicals. By fundamentally ensuring the safety of science popularization experiments, this paper serves as a reference for colleagues involved in science popularization.

During the hydrolysis process of caprolactam to produce polyamide 6, a considerable number of cyclic oligomers are inevitably formed. Among these, the cyclic dimer, with its propensity for aggregation, poses significant challenges to both process safety and product quality. Thus, understanding the characteristics of cyclic oligomers is crucial for ensuring process safety and enhancing product quality. This paper employs a personification approach to vividly describe the properties of cyclic oligomers, elucidating the formation mechanism of cyclic dimers, delineating the behavior of crystal phase transitions, and highlighting the detrimental effects of cyclic dimers on industrial production. Moreover, it proposes methods for process optimization.

In recent years, national authorities and associated departments have intensified their efforts to combat the proliferation of counterfeit and substandard products. Such products not only hinder the nation’s economic growth but also pose significant risks to the interests of brands and consumers. The emergence of anti-counterfeiting materials has become a cornerstone in advancing scientific anti-counterfeiting measures. Through a brief narrative, this paper categorizes pivotal anti-counterfeiting materials, delves into their underlying principles, and discusses their potential applications, with a special emphasis on optical anti-counterfeiting materials.

By means of visiting folic acid processing plant, this article introduces the structure, metabolism and mechanism of folic acid, and the recommendations for folic acid supplementation are given. In order to help those who need to take folic acid supplements, this article also provides a deep understanding of the functions of folic acid in the body by combining scientific and entertaining ways.

In nature, seasonal changes bring about a rich variety of colors in leaves, especially during autumn, which captivates numerous observers and sparks scientific exploration. However, behind this phenomenon lie a series of intricate chemical changes and delicate adjustments in the molecular structure of pigments. This article delves into the chemical foundation of autumnal leaf coloration.

Penicillin was the first antibacterial drug discovered in the world. Now it has been developed to be a family of antimicrobial drugs containing β-lactam, which is widely used in clinic. This article introduces the penicillin family and its main members in the form of a live interview recording. Through a dialogue between representatives of the penicillin family and the host, the antibacterial mechanism, characteristics, and clinical applications of the penicillin family members are vividly presented to the public. It aims to promote people’s awareness of the rational use of antibiotics.

Sauerkraut, also known as pickled vegetables, is a traditional fermented food that is loved by many consumers for its unique flavor and rich nutritional value. This paper, written in the first person, explores the composition, taste, preparation process, and underlying chemical principles of sauerkraut. It also discusses the health effects and dietary recommendations for consuming sauerkraut. The aim is to promote traditional Chinese food culture and the ancient art of fermentation, enhance awareness of food safety and healthy eating, cultivate students’ scientific literacy and practical skills, and foster a greater appreciation for chemistry.

The phenomena of heat and cold have long captivated human curiosity, representing some of the earliest natural observations. Among the myriad energy transformations in nature, the conversion between chemical energy and thermal energy stands out as a common occurrence. This science popularization project, guided by the principle of “Applied Chemistry, Safety First, Benefit Society”, aims to ignite public interest in chemistry, foster an understanding of chemical reactions’ potential safety risks, and cultivate a culture of safety awareness through simple experiments. Focused on two contrasting chemical reactions—an endothermic reaction (involving ammonium chloride and barium hydroxide) and an exothermic reaction (involving a heating packet and water) —the project employs various presentation formats tailored to audiences with different levels of knowledge. These include engaging experiments like “Balloon Ice Press” and situational skits such as “Iodine and Starch Embrace”. Through a series of educational events held in kindergartens, schools, and communities, the project demonstrates the captivating interplay between chemical and thermal energy, while also disseminating essential safety knowledge. By experiencing the allure of chemistry firsthand, participants not only develop an appreciation for its wonders but also enhance their safety awareness.

Vitamin D, often referred to as the “sunshine vitamin”, plays an indispensable role in maintaining human health. This paper vividly introduces the formation, discovery, biological functions, and everyday applications of vitamin D from a chemical perspective. Through a deeper understanding of vitamin D, we can better recognize and learn how to judiciously utilize this essential nutrient to safeguard our health.

The rapid development of chemistry and related industries in modern society has led to increasingly severe water environmental pollution problems, demanding higher standards for water quality testing and treatment technologies. However, detecting and treating low-concentration or trace pollutants remains challenging. To solve this problem, scientists have developed a new class of intelligent materials: micro/nanorobots. Based on their controllable motility, precise recognition, efficient adsorption, and in situ degradation capabilities, micro/nanorobots show promise in effectively detecting and treating pollutants in water. To enhance readers’ understanding of the cutting-edge developments in micro/nanorobots for water pollution detection and treatment, this paper presents the concept of a micro/nanorobot organization called the “Assassin Alliance”, providing a brief and engaging overview of their applications and scientific mechanisms in water environment detection, monitoring, and treatment.

Rabies is a severe viral infection known for its rapid onset and high mortality rate. The virus is primarily transmitted to humans through bites or saliva from animals such as dogs, and once symptoms appear, it often results in death. Although advancements in vaccination and health education have mitigated the global impact of rabies to some extent, it remains a significant public health challenge. The human immune system can be compared to a country with layered defenses and a central command system, while the rabies virus acts as a cunning and well-equipped spy. Suppose an adult male is bitten by a rabid dog, allowing the rabies virus to infiltrate. We will observe how the immune system engages in a battle of wits with the virus.

Tryptophan is one of the essential amino acids in the human body, metabolized to produce indole derivatives such as kynurenine, serotonin, melatonin, and indole-3-acetic acid. It plays a crucial regulatory role in physiological functions. This article uses personification to narrate the story of tryptophan being converted into various products through metabolism and artificial synthesis, highlighting the importance of tryptophan metabolic pathways in diverse life activities.

Salinity gradient energy presents a promising opportunity for renewable energy, gaining significant interest in the sustainable power sector. This article presents an overview of the application of ion exchange membranes and reverse electrodialysis techniques to harness energy from salinity gradients in seawater, employing anthropomorphic terminology to enhance understanding. The main focus lies in the utilization of ion exchange membrane technology for power generation, with a particular emphasis on its current implementation status and underlying operational principles. The research aims to enhance readers’ comprehension of salinity gradient energy in seawater and promote awareness of “energy security” through the use of descriptive language.

In this era of rapid technological advancement, Western medicine has conquered an increasing number of complex diseases, while traditional Chinese medicine (TCM) continues its longstanding heritage, aiding humanity in the relentless battle against illness. A comprehensive understanding of the vital chemical components and mechanisms of action in both TCM and Western medicine can facilitate their integration, jointly safeguarding human health.

This article uses the musings sparked by an archaeologist’s exploration of the Zigong dinosaur site in Sichuan as a narrative framework to introduce the basic principles of the U-Pb dating method. It covers sample collection, post-processing analytical methods, and data interpretation, providing a comprehensive overview of U-Pb dating. Additionally, the article highlights the dinosaur culture and industry in the Zigong region, showcasing the allure of this dinosaur capital.

In the early 20th century, inspired by automobile brake materials, aviation brake materials emerged. They established a strong presence in the materials industry due to their excellent stability, good wear resistance, and ability to operate in complex environments. In recent years, China’s technological advancement has been remarkable, especially in the fields of civil and military aerospace research and development, placing the country at the forefront of global science and technology. Aviation brake materials have thus entered a new era of prominence. This article uses an anthropomorphic approach, depicting a family New Year’s Eve dinner to introduce the development history, chemical processes, and related knowledge of aviation brake materials.

Presented in the form of a fairy tale, this article employs engaging imagery and accessible language to guide readers through the scientific principles underlying the colorful appearance and common color-changing phenomena in plant-based foods. By exploring the structure and properties (such as solubility and stability) of major plant-based food pigments like chlorophyll, carotenoids, and anthocyanins, readers gain a deeper understanding of the reasons behind these phenomena. Additionally, the article enhances comprehension of enzymatic browning principles and prevention methods, while fostering a nuanced understanding of food additives such as coloring agents.

When discussing fruits, the image of pears often comes to mind. Perhaps it’s due to their rich variety or their tempting taste. While we may think we know a lot about pears, do we really? Today, let’s follow the footsteps of Xiao Lai and Xiao Ming as they delve into the world of pears, exploring whether we truly understand this delightful fruit.

“Can a cell be artificially synthesized?” This question stands among the 125 major scientific inquiries highlighted by the journal Science in 2021. To unravel the mysteries of the origin of life and address the fundamental scientific challenges, scientists have developed artificial cells as biomimetic materials mimicking the structure and functions of biological cells. Delving into artificial cells not only aids in understanding cellular mechanisms but also bridges the gap between non-living and living systems, offering insights and foundations for research into the origin of life and related fields. Phospholipid vesicles, particularly widely applied as artificial cells, hold vast potential in biomedical applications. This article, inspired by the classic tale of “Journey to the West”, narrates how phospholipid vesicles, aided by the Monkey King’s keen vision, combat cancer cells. It details the design, preparation, functionalities, and therapeutic applications of phospholipid-vesicle-based artificial cells, aiming to enhance readers’ understanding and stimulate further exploration of this transformative technology.

Throughout history, mankind has continuously explored the realms of matter and life, from the smallest dust particles to the vast expanses of the universe. Through systematic exploration, it has been revealed that the complex world we inhabit is constructed from 118 chemical elements, arranged and combined according to specific rules. As the fundamental building blocks of all matter, the chemical elements hold secrets that have been gradually unveiled through their origin, cognitive understanding, and applications across different periods. This paper aims to uncover the mysteries surrounding chemical elements from various perspectives.