NMNH: 1. “Bonzyme” Whole-enzymatic method, environmental-friendly, no harmful solvent residues manufacturing powder. 2. Bontac is a very first manufacture in the world to produce the NMNH powder on the level of high purity, stability. 3. Exclusive “Bonpure” seven-step purification technology, high purity(up to 99%) and stability of production of NMNH powder 4. Self-owned factories and obtained a number of international certifications to ensure high quality and stable supply of products of NMNH powder 5. Provide one-stop product solution customization service
NADH: 1. Bonzyme whole-enzymatic method, environmental-friendly, no harmful solvent residues 2. Exclusive Bonpure seven-step purification technology, purity up higher than 98 % 3. Special patented process crystal form, higher stability 4. Obtained a number of international certifications to ensure high quality 5. 8 domestic and foreign NADH patents, leading the industry 6. Provide one-stop product solution customization service
NAD: 1. “Bonzyme” Whole-enzymatic method, environmental-friendly, no harmful solvent residues 2. Stable supplier of 1000+ enterprises around the world 3. Unique “Bonpure” seven-step purification technology, higher product content and higher conversion rate 4. Freeze drying technology to ensure stable product quality 5. Unique crystal technology, higher product solubility 6. Self-owned factories and obtained a number of international certifications to ensure high quality and stable supply of products
NMN: 1. “Bonzyme”Whole-enzymatic method, environmental-friendly, no harmful solvent residues 2. Exclusive“Bonpure”seven-step purification technology, high purity(up to 99.9%) and stability 3. Industrial leading technology: 15 domestic and international NMN patents 4. Self-owned factories and obtained a number of international certifications to ensure high quality and stable supply of products 5. Multiple in vivo studies show that Bontac NMN is safe and effective 6. Provide one-stop product solution customization service 7. NMN raw material supplier of famous David Sinclair team of Harvard University
Bontac Bio-Engineering (Shenzhen) Co., Ltd. (hereafter referred to as BONTAC) is a high-tech enterprise established in July 2012. BONTAC integrates R&D, production and sales, with enzyme catalysis technology as the core and coenzyme and natural products as main products. There are six major series of products in BONTAC, involving coenzymes, natural products, sugar substitutes, cosmetics, dietary supplements and medical intermediates.
As the leader of the global NMN industry, BONTAC has the first whole-enzyme catalysis technology in China. Our coenzyme products are widely used in health industry, medical & beauty, green agriculture, biomedicine and other fields. BONTAC adheres to independent innovation, with more than 170 invention patents. Different from the traditional chemical synthesis and fermentation industry, BONTAC has advantages of green low-carbon and high-value-added biosynthesis technology. What’s more, BONTAC has established the first coenzyme engineering technology research center at the provincial level in China which also is the sole in Guangdong Province.
In the future, BONTAC will focus on its advantages of green, low-carbon and high-value-added biosynthesis technology, and build ecological relationship with academia as well as upstream/downstream partners, continuously leading the synthetic biological industry and creating a better life for human beings.
NMN (Nicotinamide Mononucleotide) is a substance similar to vitamin B3, which can produce NAD+ (a key metabolic intermediate) in the body. Therefore, studies have shown that NMN may help improve aging-related health issues such as metabolism, immunity, cell repair, brain health, and more.
Currently, NMN supplements are mainly used to treat the following diseases:
Aging-related metabolic disorders such as diabetes, obesity, high cholesterol, etc.
Aging-related neurodegenerative diseases, such as Alzheimer's disease.
Aging-associated immune decline.
Aging-related cardiovascular disease.
NMN supplements are mainly used to increase NAD+ levels to improve metabolic diseases and slow down the aging process.
Improve metabolic diseases: Studies have shown that NMN can improve the symptoms of metabolic diseases such as diabetes, fatty liver and obesity.
Delay the aging process: NMN can increase the vitality of cells, improve the metabolic process of cells, and delay the aging process.
Protect DNA: NAD+ is an important metabolic substance in cells and participates in various biological processes such as cellular energy metabolism and DNA repair. Supplementing NMN can increase NAD+ levels and protect DNA.
Improves Athletic Capacity: NMN has been shown to improve athletic performance and increase fat burning ability
Improve neurodegenerative diseases: Studies have shown that NMN can improve neurodegenerative diseases, such as Alzheimer's disease
However, these studies were small, and NMN has not been shown to be effective in clinical trials, so further research is needed to determine the effectiveness of NMN supplements.
NMN supplements are mainly used to increase NAD+ levels to improve metabolic diseases and slow down the aging process.
Improve metabolic diseases: Studies have shown that NMN can improve the symptoms of metabolic diseases such as diabetes, fatty liver and obesity.
Delay the aging process: NMN can increase the vitality of cells, improve the metabolic process of cells, and delay the aging process.
Protect DNA: NAD+ is an important metabolic substance in cells and participates in various biological processes such as cellular energy metabolism and DNA repair. Supplementing NMN can increase NAD+ levels and protect DNA.
Improves Athletic Capacity: NMN has been shown to improve athletic performance and increase fat burning ability
Improve neurodegenerative diseases: Studies have shown that NMN can improve neurodegenerative diseases, such as Alzheimer's disease
NMN supplements may cause side effects such as upset stomach, diarrhea, and nausea. There is also research showing that NMN supplements may affect insulin sensitivity and insulin levels, so people with diabetes should consult their doctor before taking them.
NMN supplements have not yet undergone large-scale clinical trials to verify their effectiveness. Currently, research on NMN supplements is mainly focused on animal and in vitro experiments. These studies show that NMN can improve the symptoms of metabolic diseases such as diabetes, fatty liver and obesity, and can delay the aging process.
The long-term health effects of NMN supplementation are not well studied. Existing studies mainly focus on animal and in vitro experiments, which show that NMN can improve the symptoms of metabolic diseases such as diabetes, fatty liver and obesity, and can delay the aging process. However, the results of these studies do not represent the long-term effects of NMN on human health.
1. Introduction Rare ginsenosides, a group of dammarane triterpenoids that exist in low natural abundance, fuels a high concern from scholars recently, showing great potential as shining components in drugs and nutraceuticals. 2. The difference between primary ginsenosides and rare ginsenosides Ginsenosides are chiefly extracted from the plants of Araliaceae such as Panax ginseng, Panax notoginseng, and Panax quinquefolius. In light of their natural abundance, ginsenosides are usually divided into macro (primary) saponins (ginsenosides Rb1, Rg1, Re, Rd, etc.) and rare (secondary) ginsenosides (Rg5, Rk1, Rg3, etc). Relative to primary ginsenosides, rare ginsenosides are easy to be absorbed by human body, with much higher biological activity, membrane permeability and bioavailability. 3. The stereochemistry properties of rare ginsenosides The stereochemistry-driven difference in bioactivities is mostly focused on the 20(S/R)-Rg3 and 20(S/R)-Rh2 epimers. The stereochemistry properties confer rare ginsenosides with diverse bioactivities. Typically, the crucial factors that contribute to the efficacy of rare ginsenosises encompass the number of sugar molecules, sugar linkage and double bonds within C-17 side chain. For instance, the anti-tumor effect increased as the number of sugar moieties in a ginsenoside decreased. 4. Pharmacological activities of rare ginsenosides Rare ginsenosides serve as natural ligands for some specific receptors such as bile acid (FXR/TGR5), steroid hormone, estrogen, glucocorticoid, androgen, platelet adenosine diphosphate, which are determined to exert immunoregulatory and adaptogen-like effect, anti-aging effect, anti-tumor effect, as well as their effects on cardiovascular and cerebrovascular system, central nervous system, obesity and diabetes. 5. The impact of rare ginsenosides upon gut microbiota In addition to above-mentioned pharmacological activities, rare ginsenosides are also contributive to maintaining the homeostasis of gut microbiota. Under normal physiological condition, there is a dynamic balance in gut microbiota, which would be disrupted in the onset and development of certain disease. Rare ginenosides can restore the decreased abundance of certain affected microbiota, regulating the intestinal microecology to influence the physiological function of the host. 6. Conclusion By leverage of the stereochemistry properties, rare ginsenosides exhibit superior bioactivity, opening up new opportunities for the discovery and development of drugs and nutraceuticals. Reference Szot JO, Cuny H, Martin EM, et al. A metabolic signature for NADSYN1-dependent congenital NAD deficiency disorder. J Clin Invest. 2024;134(4):e174824. Published 2024 Feb 15. doi:10.1172/JCI174824 BONTAC Ginsenosides BONTAC has been dedicated to the R&D, manufacture and sale of raw materials for coenzyme and natural products since 2012, with self-owned factories, over 170 global patents as well as strong R&D team consisting of Doctors and Masters. BONTAC has rich R&D experience and advanced technology in the biosynthesis of rare ginsenosides Rh2/Rg3, with pure raw materials, higher conversion rate and higher content (up to 99%). One-stop service for customized product solution is available in BONTAC. With unique Bonzyme enzymatic synthesis technology, both S-type and R-type isomers can be accurately synthesized here, with stronger activity and precise targeting action. Our products are subjected to strict third-party self-inspection, which are worth of trustworthy. Disclaimer This article is based on the reference in the academic journal. The relevant information is provided for sharing and learning purposes only, and does not represent any medical advice purposes. If there is any infringement, please contact the author for deletion. The views expressed in this article do not represent the position of BONTAC. Under no circumstances will BONTAC be held responsible or liable in any way for any claims, damages, losses, expenses, costs or liabilities whatsoever (including, without limitation, any direct or indirect damages for loss of profits, business interruption or loss of information) resulting or arising directly or indirectly from your reliance on the information and material on this website.
1. Introduction Nicotinamide adenine dinucleotide (NAD) compartmentalized in adipocytes can modulate adipocyte differentiation and gene expression, in addition to controlling glucose metabolism. White adipose tissue (WAT), one major adipose tissue, may be one of the direct target for NAD supplementation. 2. About WAT In contrast to brown adipose tissue (BAT), WAT contains a single lipid droplet and few mitochondria. WAT, once thought to be morphologically and functionally unremarkable, is in fact highly dynamic, with plasticity and heterogeneity, which is widely distributed in the subcutaneous tissues and around the internal organs. WAT plays a key role in a range of biological processes, such as maintenance of energetic homeostasis, processing and handling of glycans and lipids, blood pressure control, and host defence, with tight relationship with metabolic disorders such as diabetes. 3. The tissue-specific roles of NAD NMN is synthesized from NAM and NR by NAMPT and NRK, respectively. The synthesized NAD+ from NMN is used as a SIRT1 substrate, which leads to the recycling of NAD+ via the salvage pathway. In this process, NAD+ can exert different effects depending on the tissue. Remarkably, NAD precursors can control metabolic stress particularly via focusing on adipose tissue. 4. The effects of boosting NAD+ on WAT Supplementation of NMN and NR has been shown to reduce body weight and enhance insulin sensitivity in regular chow-fed aged wild-type mice and diet-induced obese mice, respectively. NAM supplementation diminishes fat accumulation in diet-induced obese mice. Additionally, both NMN and NR supplementation prevent inflammation even with different treatment duration. NAM administration boosts mitochondrial biogenesis and glutathione synthesis in WAT. Similarly, it is evidenced that NMN treatment in high fat diet-induced type 2 diabetes mouse model facilitates the recovery of Glutathione S-transferase Alpha 2 (Gsta2) gene expression in the liver. 5. The adipose-specific effects of nicotinamide phosphoribosyltransferase (NAMPT) NAMPT, one NAD regulator in WAT, is a promising therapeutic target for the treatment of metabolic disorders. NAMPT plays a potential role in maintaining adipose tissue homoeostasis, as evidenced by the explicitly blocked adipocyte differentiation and lipid synthesis in vitro post treatment of NAMPT inhibitor FK866. For some reasons such as differences in sex, age, and/or basal levels of cellular NAD+ availability, there are various inconclusive results regarding the impacts of NAD+ metabolism on adipocytes in the adipocyte-specific NAMPT-deficient mouse model or in vitro cell models. Further investigation on the effects of NAD+ supplementation and the distinct functions of NAMPT in adipocytes is still needed. 6. Conclusion The importance of NAD metabolism in WAT has been highlighted. NAD has tissue-specific roles. Specifically, WAT may be one of the direct target for NAD supplementation. Supplementation with NAD+ precursors can reduce fat accumulation and inflammation in adipose tissue. Reference Kwon SY, Park YJ. Function of NAD metabolism in white adipose tissue: lessons from mouse models. Adipocyte. 2024;13(1):2313297. doi:10.1080/21623945.2024.2313297 About BONTAC BONTAC has been dedicated to the R&D, manufacture and sale of raw materials for coenzyme and natural products since 2012, with self-owned factories, over 170 global patents as well as strong R&D team consisting of Doctors and Masters. BONTAC has rich R&D experience and advanced technology in the biosynthesis of NAD and its precursors (eg. NMN and NR), with various forms to be selected (eg. endoxin-free IVD-grade NAD, Na-free or Na-containing NAD; NR-CL or NR-Malate). High quality and stable supply of products can be better ensured here with the exclusive Bonpure seven-step purification technology and Bonzyme Whole-enzymatic method. Disclaimer This article is based on the reference in the academic journal. The relevant information is provide for sharing and learning purposes only, and does not represent any medical advice purposes. If there is any infringement, please contact the author for deletion. The views expressed in this article do not represent the position of BONTAC. Under no circumstances will BONTAC be held responsible or liable in any way for any claims, damages, losses, expenses, costs or liabilities whatsoever (including, without limitation, any direct or indirect damages for loss of profits, business interruption or loss of information) resulting or arising directly or indirectly from your reliance on the information and material on this website.
1.Introduction Nicotinamide adenine dinucleotide phosphate hydrogen (NADPH), also known as reduced coenzyme II, is a critical cofactor in cellular antioxidant systems and lipid synthesis, which links insulin resistance and ferroptosis of pancreatic β cells in the context of metabolic disorders such as diabetes mellitus, playing a central role in maintaining metabolic homeostasis. 2. Biological role of NADPH NADPH functions as a coenzyme essential to cellular metabolism, playing pivotal roles in various critical biological processes, such as ROS scavenging, ROS production, fatty acid synthesis and cholesterol synthesis. 3. Biosynthetic pathway of NADPH Cellular production of NADPH is facilitated through several pathways, including the pentose phosphate pathway, the citric acid cycle, and fatty acid metabolism. The dynamic equilibrium between NADPH synthesis and consumption is essential for preserving cellular redox balance and enabling a host of biosynthetic reactions. 4. The role of NADPH in insulin secretion from pancreatic β-Cells Both redox reaction and metabolic signaling can modulate insulin secretion from pancreatic β-cells, where NADPH plays a central role. It can not only serves as a metabolic coupling factor, but also acts as a custodian of β-cell integrity, delicately managing the interplay between metabolic inputs and insulin output. 5. The interaction between insulin resistance and NADPH A substantial body of evidence reveals that NADPH is critical for the regulation of oxidative stress and inflammatory responses, the main contributors to the pathogenesis of insulin resistance. Specifically, NADPH is implicated in ROS production via NOX and is also utilized in the synthesis of new fatty acids, which contributes to the development of insulin resistance, particularly in the context of obesity-induced chronic inflammation. 6. The impact of NADPH upon the ferroptosis in the context of diabetes In pancreatic β cells, the elevated blood sugar and pro-inflammatory cytokines can trigger oxidative stress and iron accumulation to promote lipid peroxidation, thereby facilitating the ferroptosis. In return, the ferroptosis can reduce insulin secretion and beta cell mass, which is contributive to the progression of diabetes. In general, NADPH plays a dual role in ferroptosis. On the one hand, it can promote ROS generation via NOX. On the other hand, it can support antioxidant defense through glutathione regeneration. In the context of diabetes, NADPH may predominantly fuel processes leading to ferroptosis, mainly due to the enhanced activity and affinity of NOX, which however requires further research for verification. 7. Conclusion NADPH has a critical role in the complex landscape of metabolic disorders, particularly insulin resistance and ferroptosis. Regulating NADPH-related pathways may open up new opportunities for the treatment of metabolic disorders. Reference Moon, Dong-Oh. “NADPH Dynamics: Linking Insulin Resistance and β-Cells Ferroptosis in Diabetes Mellitus.” International journal of molecular sciences vol. 25,1 342. 26 Dec. 2023, doi:10.3390/ijms25010342 Production advantages and features of BONTAC NADPH BONTAC has rich R&D experience and advanced technology in the biosynthesis of NADPH. Bonzyme whole-enzymatic method is adopted, which is environmental-friendly, with no harmful solvent residues. The purity of NADPH can reach up to 95%, which is benefited from the exclusive Bonpure seven-step purification technology. BONTAC has self-owned factories and has obtained a number of international certifications, where high quality and stable supply of products can be ensured. BONTAC has four domestic and foreign NADPH patents, leading the industry. Disclaimer This article is based on the reference in the academic journal. The relevant information is provide for sharing and learning purposes only, and does not represent any medical advice purposes. If there is any infringement, please contact the author for deletion. The views expressed in this article do not represent the position of BONTAC. Under no circumstances will BONTAC be held responsible or liable in any way for any claims, damages, losses, expenses, costs or liabilities whatsoever (including, without limitation, any direct or indirect damages for loss of profits, business interruption or loss of information) resulting or arising directly or indirectly from your reliance on the information and material on this website.