Product Usage: This item is supplied for research purposes only.
Our catalog includes popular compounds such as L-glutathione, NAD +, Retatrutide, Histidine-buffered-saline, SS-31, Bacteriostatic-water, and Phosphate-buffered-saline, all manufactured to the highest purity standards.
PRG’s best-selling lineup highlights four cornerstone research compounds widely used in modern biochemical and metabolic studies: NAD+, Retatrutide, SLU-PP-332, and Glutathione. These molecules support a broad range of scientific investigations, from mitochondrial resilience to cellular energy transfer, making them indispensable tools in many research environments.
Our portfolio reflects the level of precision expected in advanced laboratory work. Each compound is manufactured within controlled European facilities that prioritize structural accuracy, chemical stability, and dependable batch-to-batch consistency. Researchers value PRG materials because they are accompanied by detailed analytical reports, enabling confident interpretation of experimental outcomes.
The molecules highlighted in this collection serve as essential components across studies involving metabolic regulation, redox balance, and cellular communication. While each compound offers unique biochemical characteristics, together they form a well-rounded foundation for many modern research models.
NAD+ is central to energy metabolism and mitochondrial function. In laboratory settings, it is frequently used to model cellular respiration, sirtuin-related pathways, and adaptive energy cycles. Its relevance spans multiple disciplines, providing researchers with a reliable way to study how cells maintain stability under metabolic stress.
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Retatrutide is a synthetic peptide designed to engage GLP-1, GIP, and glucagon receptors. Because of its multi-pathway profile, it is commonly used in studies examining nutrient sensing, receptor crosstalk, and integrative metabolic signaling. These models help researchers observe how peptide pathways influence energy integration.
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SLU-PP-332 is a research molecule known for its connection to AMPK activity and lipid oxidation. Its ability to influence energy-related signaling makes it a valuable tool in studies focusing on mitochondrial adaptation, fat metabolism, and the regulation of energy expenditure.
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Glutathione is one of the most extensively examined tripeptides in modern laboratory science. It plays an important role in redox stability, antioxidant modeling, and mitochondrial protection. Each batch undergoes careful analysis to confirm purity and uphold the standards required for advanced experimentation.
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Every compound in the PRG catalog is produced under strict European research standards. This includes:
full analytical verification via HPLC and mass spectrometry
traceable manufacturing practices
independent quality assessments
documentation designed for scientific auditing
These steps ensure that each vial delivered to a laboratory can be reliably integrated into ongoing research models without compromising data quality.
PRG’s approach emphasizes transparency, technical accuracy, and dependable performance. As a result, our materials are trusted by academic laboratories, private institutions, and research teams across multiple scientific fields.
All products featured in this collection are designated Research Use Only (RUO) materials. They are intended exclusively for controlled laboratory environments and scientific investigation. This designation ensures alignment with research standards involving documentation, traceability, data integrity, and responsible handling.
PRG remains committed to supporting scientific advancement through precision-manufactured research peptides and high-purity molecular compounds. The popularity of NAD+, Retatrutide, SLU-PP-332, and Glutathione reflects the reliability and analytical consistency that researchers expect from our catalog.
By combining verified data, advanced manufacturing, and responsive support, PRG provides laboratories with the tools they need to explore complex questions in metabolism, mitochondrial biology, cellular resilience, and molecular innovation.
