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Targeted therapy! The Capetin Prize winning "Click Chemistry" can be used like this!Targeted therapy! The Nobel Prize winning "Click Chemistry" can be used like this!2025-02-06
5829 Results for "
potentials
" in MedChemExpress (MCE) Product Catalog:
Products (5829)
5829 Results for "potentials" in MCE Product Catalog:
Cat. No.: HY-W014589S
CAS No.: 1577233-55-6
Synonyms: 2,4-DTBP-d19
Cat. No.: HY-W749327
CAS No.: 1413431-25-0
Synonyms: 2,4-DTBP-d21
Cat. No.: HY-L154
3,728 compounds
Covalent inhibitors are small molecules that can bind specifically to target proteins through covalent bonds and inhibit their biological functions. Although for a long time, covalent targeting has been playing a subordinate role in drug discovery, with an increasing number of reports on successful clinical applications of such drugs, the potential of these agents is now being acknowledged. Currently, cysteine is the most common covalent amino acid residue in a variety of covalent drugs, and various warheads have been developed that can react with cysteine, providing the key building blocks for covalent drugs to form covalent bonds.
To meet the development needs of covalent inhibitors targeting cysteine, MCE has designed a unique collection of 3,728 fragments with different covalent warheads that target cysteine. The MCE Cysteine Targeted Covalent Fragment Library is designed using the following covalent warheads: Acrylamides, Propiolic acid ester, Dimethylamine functionalized acrylamides, Chloroacetamides, Acrylonitrile, 2-Cyanoacrylamide, Aziridine, Haloacetamide, etc. All fragments are pre-filtered with the Rule of Three restrictions which can be used for fragment-based covalent drug development.
Cat. No.: HY-L941
4,236 compounds
Orthosteric sites are highly conserved, leading to poor subtype selectivity, off-target toxicity and drug resistance in traditional drugs. By contrast, allosteric sites show low conservation, high hydrophobicity, weak polarity, confined geometry and dynamic cryptic properties, granting modulators high selectivity, functional tunability and safety. Thus, allosteric therapy has become a major focus in drug discovery.
MCE curated nearly 1,000 clinical-stage allosteric modulators, analyzed PDB complex structures to identify key pharmacophores and privileged scaffolds, then designed and filtered compounds using rational “scaffold derivation + physicochemical screening” with strict property criteria. The resulting compounds show high rigidity and shape complementarity to shallow, dynamic, hydrophobic allosteric pockets.
This library comprises 4,315 diverse, lead-like compounds ideal for allosteric drug discovery and target screening, covering kinases, GPCRs and more. All are analogs of clinical-stage molecules with similarity > 0.6, combining high druggability and allosteric binding potential to support efficient early-stage R&D.
Cat. No.: HY-111297
CAS No.: 868843-84-9
Target:
Research Areas:
BMVC4 is a G-quadruplex (G4) stabilizer of the human telomeric sequence d[AG3(T2AG3)3]. Screening by circular dichroism (CD) spectroscopy revealed that BMVC4 is more suitable as the core molecule of G4 stabilizers than BMVC. The results showed that BMVC4-12C and BMVC4-8C3O are better candidates for G4 stabilizers and are worthy of further study. A simple and rapid screening method based on Cu2+-induced G4 unfolding can be used to find better G4 stabilizers for potential anticancer applications. CD results showed that the trivalent cations of 9-substituted BMVC derivatives are more suitable as G4 stabilizers than the divalent cations of BMVC. In addition, by monitoring the disappearance of the 291 nm CD band of human telomeres after Cu2+ addition, it was found that the core molecule of G4 stabilizer BMVC4 has better stability.
Cat. No.: HY-113720
CAS No.: 1041469-97-9
Target:
CDK Apoptosis Caspase Reactive Oxygen Species (ROS) JNK MDM-2/p53 Bcl-2 Family IGF-1R PI3K PKC Ras Akt
Research Areas:
RKS262 is an orally active cyclin/CDK inhibitor. RKS262 is also an apoptosis inducer and cell cycle regulator, exhibiting cytotoxic activity against cancer cells. RKS262 induces caspase-3 cleavage, ROS generation, SAPK/JNK activation, and upregulates the expression of p53, Bid, Bad, Bok, and p27. RKS262 inhibits the expression of Bcl-2, Mcl-1, Bcl-xL, p21, cyclin D1, cyclin B1, cdc-2, cyclin D4, and DNA-pk KU-80 subunit. RKS262 suppresses the phosphorylation of the IGF-1R/PI3K/PKC pathway, ras oncogene activity, and Cdk-6, while increasing total Akt expression. RKS262 induces G2/M or S phase cell cycle arrest, disrupts mitochondrial transmembrane potential, and reduces tumor burden in xenograft models. RKS262 is used in research on neuroblastoma and ovarian cancer .
Cat. No.: HY-116161
CAS No.: 130273-87-9
Target:
Research Areas:
15(R)-17-phenyl trinor Prostaglandin F2α isopropyl ester (15(R)-17-phenyl trinor PGF2α isopropyl ester) is the latanoprost-related isomer containing both a double bond at 13,14 and an inverted (β) hydroxyl group at C-15. Similar to 15(S)-latanoprost, 15(R)-17-phenyl trinor PGF2α isopropyl ester is a potential impurity in most commercial preparations of the latanoprost bulk drug product. The IC50 values for the free acid forms of 15(S)-17-phenyl trinor PGF2α and 15(R)-17-phenyl trinor PGF2α were determined to be 0.71 nM and 30 nM, respectively, in a FP receptor binding assay using the cat iris sphincter muscle.1 A 3 μg dose of 15(R)-17-phenyl trinor PGF2α caused a 1.9 mmHg reduction of IOP in normotensive cynomolgus monkeys.
Cat. No.: HY-125740R
CAS No.: 7228-78-6
Synonyms: Malvidin-3-O-glucoside chloride (Standard); Oenin chloride (Standard)
Cat. No.: HY-177300
CAS No.: 1402802-45-2
Research Areas:
TLR7/8 agonist 13 is an orally active dual agonist of TLR7 (lowest effective concentrations (LEC) [hTLR7] = 1.6 μM) and TLR8 (LEC [hTLR8] = 1.6 μM). TLR7/8 agonist 13 exhibits agonistic activity against human peripheral blood mononuclear cells (hPBMCs) (LEC [hPBMC] = 0.5 μM). TLR7/8 agonist 13 induces endogenous IFNα, activating myeloid dendritic cells and monocytes toward a TH1 phenotype in mice and cynomolgus monkeys. TLR7/8 agonist 13 reduces viral load and HBV surface antigen expression in a mouse model of chronic AAV-HBV infection. TLR7/8 agonist 13 has the potential to indirectly induce IFNγ, which may promote HBV antigen-specific CD8 T cell-mediated responses. TLR7/8 agonist 13 can be used to study hepatitis B virus .
Calcium propionate, United States Pharmacopeia (USP) Reference Standard (Bioban-C (Pharmaceutical primary standard, USP)) is a calcium salt of Propionic acid with oral activity, which can be hydrolyzed into propionate and calcium ions. Calcium propionate, United States Pharmacopeia (USP) Reference Standard elevates intracellular ROS levels in tumor cells, depletes GSH, reduces mitochondrial membrane potential, and thereby induces tumor cell apoptosis. In mouse colitis models, Calcium propionate, United States Pharmacopeia (USP) Reference Standard modulates inflammatory factors such as IFN-γ, calprotectin, and Pglyrp3, ameliorating intestinal inflammation and metabolic disorders. In ruminants, Calcium propionate, United States Pharmacopeia (USP) Reference Standard serves as a gluconeogenic precursor, regulating rumen fermentation and microbial diversity; in high-fat diet rats, it alters gut microbiota composition and affects blood biochemical parameters. Calcium propionate, United States Pharmacopeia (USP) Reference Standard is commonly used as a food and feed additive, and is also used in research related to hypocalcemia, dyslipidemia, colitis, and lung cancer .
Cat. No.: HY-N19083
Synonyms: (-)-Cephaeline dihydrobromide; NSC 32944 dihydrobromide
Cat. No.: HY-P4890A
Target:
RXFP Receptor Reactive Oxygen Species (ROS) Pyroptosis Caspase Interleukin Related TGF-beta/Smad AMPK Apoptosis
Research Areas:
Cat. No.: HY-W027592R
CAS No.: 61-82-5
Category:
Rudbeckia laciniata L. Ketones, Aldehydes, Acids Plants Umbelliferae Endogenous metabolite
Target:
Cat. No.: HY-L105S
867 compounds
Peptides, composed of amino acids, serve as crucial building blocks for proteins and have gained significant attention in drug development over the past decade. The advancements in production, modification, and analytical technologies have led to a surge in the potential applications of peptides in medicine. Peptides offer a number of advantages over small molecule drugs, including: greater target specificity and efficacy, more predictable metabolic profiles, easier delivery to where they are needed in the body, and fewer side effects. Peptides are increasingly appearing in all branches of medicine as components of innovative drugs, imaging agents, diagnostic agents, and other complex drugs such as peptide-drug conjugates. To date, more than 80 peptide drugs have been approved to treat a variety of diseases, including microbial infections, obesity, anti-diabetes, and cancer, as well as to develop cell targeting platforms and improve cell penetration properties.
MCE designs a unique collection of 867 peptide compounds. HY-L105S is a peptide compound library that can be provided with solution form based on HY-L105, and can be applied to peptides-based drug development.
Cat. No.: HY-L213
265 compounds
The anti-cancer drug library meticulously collects all drugs approved by FDA and other major national drug regulatory authorities for cancer treatment. These drugs cover a variety of cancer types, including but not limited to lung cancer, breast cancer, colorectal cancer, leukemia, and other common cancers. The library includes a wide range of drugs, from classic chemotherapeutic agents to cutting-edge targeted therapies and immunotherapies. It contains various types of drug compounds with different mechanisms of action. There are cytotoxic drugs that directly kill cancer cells, as well as drugs that work by modulating the tumor microenvironment, inhibiting tumor angiogenesis, and activating the immune system. This diversity provides researchers with a broad range of perspectives and options for intervention strategies.
This library can be used for basic research on cancer treatment, exploring new targets and new mechanisms of drug action; Conducting drug reuse research to look for potential therapeutic effects of existing drugs on other cancer types or diseases; Or conducting research into combination drugs to optimize cancer treatment.
MCE has collected 265 small-molecule compounds with cancer indications, which are good tools for drug repurposing.
Cat. No.: HY-L021P
6,400 compounds
Natural products are small molecules produced naturally by any organism including primary and secondary metabolites. Natural sources may lead to basic research on potential bioactive components for commercial development as lead compounds in drug discovery.
Nature has been a source of medicinal agents for thousands of years, and an impressive number of modern drugs have been isolated from natural sources, many based on their use in traditional medicine. With the development of new molecular targets, there is an increasing demand for novel molecular diversity for screening. Natural products will play a crucial role in meeting this demand through the continued investigation of world’s bio-diversity, much of which remains unexplored.
MCE provides a unique collection of 6,400 natural compounds that contains Saccharides and Glycosides, Phenylpropanoids, Quinones, Flavonoids, Terpenoids and Glycosides, Steroids, Alkaloid, Phenols, Acids and Aldehydes. Natural Product Library Plus, with more powerful screening capability, further complements Natural Product Library (HY-L021) by adding some compounds with low solubility or solution stability (Part B) to this library. All those supplementary are supplied in powder form.
Cat. No.: HY-L220
91 compounds
Biotoxins, also referred to as natural toxins, are chemical substances produced by plants, animals, or microorganisms that exert toxic effects on other living organisms. Due to unique biological activities, biotoxins have been widely applied in molecular biology, physiology, pharmacology, and the clinical diagnosis and treatment of various human diseases, becoming an important source of natural drug development. Biotoxins can specifically bind to and interfere with intracellular signaling molecules or receptors, thereby altering cellular signaling processes. Leveraging this characteristic, biotoxins can be used to study the regulatory mechanisms of cellular signaling pathways. For example, neurotoxins such as snake venom peptides can be used to investigate the functional regulation of neurotransmitter receptors and ion channels. Additionally, biotoxins have demonstrated significant potential in drug development across various fields, including neurological diseases, cardiovascular diseases, anticoagulation, and anti-cancer therapies. With advancements in high throughput screening, structural optimization, and antibody-toxin conjugation technologies, numerous biotoxins or their structural analogs have been successfully brought to market, such as Ziconotide, Captopril, Bivalirudin, and Eptifibatide.
MCE offers 91 types of biotoxins, including neurotoxins, cardiotoxins, mycotoxins, and more.
Cat. No.: HY-L170
258 compounds
An emerging drug design method is based on the secondary binding site effect, where small molecule drugs are designed to bind to secondary binding sites on target biomolecules rather than primary orthomorphic sites. Successful potential drugs (known as allosteric modulators) will be able to bind to allosteric sites and remotely alter (or modify) the conformation of the main orthosteric binding sites of biological targets. Allosteric modulators (AMs) are ligands of proteins that act through binding sites different from natural (orthosteric) ligand sites. AMs are relatively small, more lipophilic, and more rigid compounds. The binding efficacy of AMs with their targets is often slightly lower. AMs are divided into positive AMs (PAMs) and negative AMs (NAMs). AMs are ideal drug targets because they can fine-tune receptor activity while preserving the spatial and temporal signal transduction characteristics of endogenous ligands, resulting in fewer targeted side effects, improved subtype selectivity, and better promotion of biased signal transduction than normal ligands.
MCE designs a unique collection of 258 small allosteric modulators. It is a good tool to be used for research on metabolize, cancer and other diseases.
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Protocols
Targeted therapy! The Capetin Prize winning "Click Chemistry" can be used like this!Targeted therapy! The Nobel Prize winning "Click Chemistry" can be used like this!A suitable model is crucial in drug screening experiments. Organs can mimic the three-dimensional functional structure of internal organs, have similar spatial organization to corresponding organs, maintain some key characteristics, and reproduce some physiological functions. They are widely used for modeling and personalized drug screening physiological functions.2025-02-06
