Plant-derived natural products have long been a vital source for developing therapeutic drugs. Wedelolactone (WDL), a coumestan isolated from Eclipta prostrata, Wedelia calendulacea, Wedelia chinensis, and Sphagneticola trilobata, demonstrates a broad spectrum of therapeutic potential, including anticancer, anti-inflammatory, anti-obesity, anti-myotoxic, antimicrobial, anti-diabetic, and tissue-protective activities. This review synthesizes information on the isolation, total synthesis, pharmacological activity, underlying mechanisms, and pharmacokinetic properties of WDL. Additionally, it offers insights into potential clinical applications and future drug discovery avenues utilizing WDL or its derivatives, either independently or in combination with other pharmaceuticals.
Coumarins/isolation & purification* ; Humans ; Animals ; Biological Products/chemical synthesis* ; Molecular Structure ; Plant Extracts/chemical synthesis* ; Wedelia/chemistry* ; Eclipta/chemistry*

Mogroside V, a component with high content and sweetness in mogrosides, has many pharmacological activities such as relieving cough, reducing sputum, anti-cancer, anti-oxidation, regulating blood sugar, making it a natural nonsugar sweetener with therapeutic functions, and showing a broad market prospect. However, the limited resources and high extraction costs have restricted its widespread use. The rapid development of synthetic biology has provided a new idea for the production of plant natural products. The low-cost and large-scale production will be realized through the construction of a microbial cell factory for mogroside V. Here, we briefly introduce the structure and pharmacological activity of mogroside V, and review progress in applying synthetic biology for its synthesis, and also discuss the challenges faced by the current research, to provide a reference for further studies on the biosynthesis of mogroside V.
Biological Products/chemistry* ; Sweetening Agents/chemical synthesis* ; Synthetic Biology ; Triterpenes/chemical synthesis*

Chemokine 12 (CXCL12), also known as stromal cell derived factor-1 (SDF-1) and a member of the CXC chemokine subfamily, is ubiquitously expressed in many tissues and cell types. It interacts specifically with the ligand for the transmembrane G protein-coupled receptors CXCR4 and CXCR7. The CXCL12/CXCR4 axis takes part in a series of physiological, biochemical, and pathological process, such as inflammation and leukocyte trafficking, cancer-induced bone pain, and postsurgical pain, and also is a key factor in the cross-talking between tumor cells and their microenvironment. Aberrant overexpression of CXCR4 is critical for tumor survival, proliferation, angiogenesis, homing and metastasis. In this review, we summarized the role of CXCL12/CXCR4 in cancer, CXCR4 inhibitors under clinical study, and natural product CXCR4 antagonists. In conclusion, the CXCL12/CXCR4 signaling is important for tumor development and targeting the pathway might represent an effective approach to developing novel therapy in cancer treatment.
Animals ; Antineoplastic Agents ; chemical synthesis ; chemistry ; pharmacology ; Biological Products ; chemistry ; pharmacology ; Chemokine CXCL12 ; genetics ; metabolism ; Humans ; Molecular Targeted Therapy ; Neoplasms ; drug therapy ; genetics ; metabolism ; Receptors, CXCR4 ; antagonists & inhibitors ; genetics ; metabolism

Multi-target drugs can simultaneously adjust multiple links of the disease network. Despite the higher efficacy and lower toxicity caused by single targets, multi-target drugs become ideal drugs for treating complicated diseases as well the main direction of drug R & D. By virtue of their structural diversity, higher multi-target activity and lower toxicity, natural products become an important source for developing multi-target drugs. Computer-aided drug design (CADD) is a commonly used multi-target drug R&D method, which mainly includes virtual screening and pharmacophore design. In this paper, the authors made a systematical analysis and discussed the prospects and advantages of various methods for multi-target drug R&D with natural products.
Biological Products ; chemical synthesis ; pharmacology ; Biomedical Research ; instrumentation ; Computer-Aided Design ; Drug Design ; Humans ; Molecular Targeted Therapy

Designing of natural product-like compounds using natural products as template structures is an important strategy for the discovery of new drugs. Gambogic acid (GA), which is a Garcinia natural product with a unique caged xanthone scaffold, inhibits potent antitumor activity both in vitro and in vivo. This review summarized the researches on the identification of the antitumor pharmacophore of GA, and the design, structural optimization and structure-activity relationship (SAR) of natural product-like caged xanthones based on it.
Antineoplastic Agents ; chemical synthesis ; chemistry ; pharmacology ; Biological Products ; chemical synthesis ; chemistry ; isolation & purification ; pharmacology ; Cell Line, Tumor ; Cell Proliferation ; drug effects ; Drug Screening Assays, Antitumor ; Garcinia ; chemistry ; Humans ; Molecular Structure ; Structure-Activity Relationship ; Xanthones ; chemical synthesis ; chemistry ; isolation & purification ; pharmacology

Pharmacological activity and druggability are two essential factors for drug innovation. The pharmacological activity is definitely indispensable, and the druggability is destined by physico-chemical, biochemical, pharmacokinetic and safety properties of drugs. As secondary metabolites of animals, plants, microbes and marine organisms, natural products play key roles in their physiological homeostasis, self-defense, and propagation. Natural products are a rich source of therapeutic drugs. As compared to synthetic molecules, natural products are unusually featured by structural diversity and complexity more stereogenic centers and fewer nitrogen or halogen atoms. Naturally active substances usually are good lead compounds, but unlikely meet the demands for druggability. Therefore, it is necessary to modify and optimize these structural phenotypes. Structural modification of natural products is intent to (1) realize total synthesis ready for industrialization, (2) protect environment and resources, (3) perform chemical manipulation according to the molecular size and complexity of natural products, (4) acquire novel structures through structure-activity relationship analysis, pharmacophore definition, and scaffold hopping, and (5) eliminate unnecessary chiral centers while retain the bioactive configuration and conformation. The strategy for structural modification is to increase potency and selectivity, improve physico-chemical, biochemical and pharmacokinetic properties, eliminate or reduce side effects, and attain intellectual properties. This review elucidates the essence of natural products-based drug discovery with some successful examples.
Biological Products ; chemical synthesis ; chemistry ; Drug Design ; Drug Discovery ; Drug Stability ; Humans ; Molecular Structure ; Solubility ; Structure-Activity Relationship

We think the strategy of classic natural product-based drug discovery will be an effective way for us to develop new drugs with independent intellectual property. The strategy includes: to study the molecular mechanism of action of classic natural product with chemical genetics and chemical biology approaches firstly; then establish the proper in vitro bioassay or bioassay system based on its molecular mechanism for their pharmacodynamic evaluation; finally, study their structure-activity, structure-toxicity and structure-ADME properties with medicinal chemistry.
Animals ; Anti-HIV Agents ; chemical synthesis ; pharmacology ; Antineoplastic Agents, Phytogenic ; chemical synthesis ; pharmacology ; Berberine ; analogs & derivatives ; chemical synthesis ; pharmacology ; Biological Products ; chemical synthesis ; chemistry ; pharmacology ; Camptothecin ; analogs & derivatives ; chemical synthesis ; pharmacology ; Drug Discovery ; Humans ; Hypoglycemic Agents ; chemical synthesis ; pharmacology ; Oleanolic Acid ; analogs & derivatives ; chemical synthesis ; pharmacology ; Triterpenes ; chemical synthesis ; pharmacology ; Vinblastine ; analogs & derivatives ; chemical synthesis ; pharmacology

Bioactive natural products of novel structural types play a highly significant role in the drug discovery and development process. Of the 1,031 new chemical entities covering all diseases in the years 1981-2002, 48% were natural product mimics, 5% were the direct utility of natural products as sources of novel structures. Up to now, the main challenges are more efficient and rapid processes for discovery and isolation of bioactive natural products of novel structural types. Therefore, new strategies and ideas for chemical study on bioactive natural products of novel structural types should be applied. In order to discover a large number of bioactive natural products of novel structural types from naturally occurring sources and elucidate the intrinsic value of natural products as leads to new structures with different activities, new, more efficient and rapid processes for study on natural products will be established by use of modern chromatographies, techniques on line identification of natural products and screening methods based on molecular targets.
Biological Products ; chemistry ; isolation & purification ; Drug Design ; Drug Evaluation, Preclinical ; Humans ; Pharmaceutical Preparations ; chemical synthesis ; isolation & purification ; Pharmacognosy ; methods ; Plant Extracts ; pharmacology ; Plants, Medicinal ; chemistry ; classification ; Structure-Activity Relationship