|
HS Code |
264859 |
| Name | Omiganan |
| Chemical Class | Cationic peptide |
| Molecular Formula | C122H229N39O28 |
| Molecular Weight | 2611.41 g/mol |
| Sequence | ILRWPWWPWRRK |
| Mechanism Of Action | Disrupts microbial membranes |
| Indication | Topical treatment of infections |
| Route Of Administration | Topical |
| Development Status | Investigational |
| Origin | Derived from indolicidin |
| Activity Spectrum | Antibacterial, antifungal, antiviral |
| Clinical Trials Phase | Phase III (varied indications) |
| Water Solubility | Soluble |
| Company | Helix BioMedix (Licenses held by various entities) |
| Cas Number | 217082-60-5 |
As an accredited Omiganan factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Omiganan is supplied in sterile, sealed amber glass vials containing 50 mg lyophilized powder, clearly labeled with batch and expiry information. |
| Shipping | Omiganan is shipped in accordance with international safety regulations for hazardous chemicals. It is securely packaged in sealed containers to prevent contamination and degradation, and transported under temperature-controlled conditions if required. All shipments include safety data sheets (SDS) and proper labeling to ensure safe handling during transit and upon delivery. |
| Storage | Omiganan should be stored in a cool, dry place, protected from light and moisture, ideally at 2–8°C (refrigerated conditions). The container should be tightly closed to prevent contamination and degradation. Avoid repeated freeze-thaw cycles if supplied as a solution or lyophilized powder. Follow manufacturer or supplier guidelines for safe handling and storage to maintain chemical stability. |
| Purity 98%: Omiganan with purity 98% is used in topical antimicrobial formulations, where it ensures high efficacy against resistant bacterial strains. Molecular weight 1889 Da: Omiganan with molecular weight 1889 Da is used in catheter coatings, where it provides sustained antimicrobial barrier on medical devices. Stability temperature up to 40°C: Omiganan with stability temperature up to 40°C is used in wound care products, where it maintains functional integrity during storage and application. Solubility in water 10 mg/mL: Omiganan with solubility in water 10 mg/mL is used in injectable solutions, where it allows for rapid systemic distribution and bioavailability. Particle size <10 µm: Omiganan with particle size less than 10 µm is used in aerosolized nasal sprays, where it achieves optimal mucosal penetration and localized microbial protection. pH stability range 4–8: Omiganan with pH stability range 4–8 is used in dermatological ointments, where it remains active across varied skin pH conditions. Endotoxin content <0.5 EU/mg: Omiganan with endotoxin content less than 0.5 EU/mg is used in ophthalmic preparations, where it minimizes inflammatory responses during ocular administration. |
Competitive Omiganan prices that fit your budget—flexible terms and customized quotes for every order.
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Every batch of Omiganan we produce reflects years of focused work inside our own clean facilities, with constant attention to process, purity, and consistency. Omiganan is a synthetic cationic peptide, specifically designed and scaled for antimicrobial applications. Most research programs seeking effective peptide-based antimicrobials eventually encounter this molecule. Through decades of peptide chemistry, we have refined both the fundamental synthesis and the final purification steps so that every shipment carries the right sequence, right charge profile, and the reproducibility that long-term research and scale-up work demand.
Our Omiganan, often referred to by its sequence or as omiganan pentahydrochloride, serves in a variety of projects focused on topical therapy and antimicrobial resistance. Unlike compounds sourced through intermediaries or chemical trading platforms, our product comes from reactors, columns, and lyophilization units we maintain ourselves. Every process, from solid-phase peptide synthesis to HPLC monitoring, happens under our direct oversight. This means full traceability, open technical support, and the ability to tweak synthesis parameters if a research team requests a custom grade or format.
Researchers come to Omiganan for reliable, reversible inhibition of Gram-positive and Gram-negative bacteria, as well as certain fungi and yeast. The peptide, with its cationic and amphipathic character, inserts into microbial membranes and rapidly disrupts integrity. Most labs, whether running cell culture models or animal dosing trials, use Omiganan in topical formulations or as part of in vitro screening assays. Over time, clinicians and antimicrobial discovery teams have gained confidence with Omiganan’s reproducible spectrum and minimal cytotoxicity to human cells at effective concentrations.
In our hands, reproducibility means more than hitting base sequence: it means batch-to-batch data, mass spectrometry confirmation, and the absence of truncated byproducts or deletion sequences. As direct manufacturers, we’ve seen how even slight upticks in aggregation or changes in counterion levels can ruin sensitive assays or slow down downstream development. We manage these risks daily, through temperature monitoring, rapid purification, and transparent batch release data.
Current protocols often dissolve Omiganan in sterile water or buffered saline, with working solutions prepared just before each experiment. Our technical team keeps up-to-date with published methods—especially formulation techniques that impact solubility, stability, and peptide-membrane interactions. Long-term storage generally relies on lyophilized material, kept under an inert atmosphere and cold conditions to extend shelf life and limit oxidation or degradation. Our materials move quickly from production to research benches so that customers do not face unnecessary hold times or re-solubilization cycles, a common issue with traded lots that sit in warehouses.
The chemistry of manufacturing Omiganan begins with selection of solid-phase resins and protected amino acids. We’ve invested in automated synthesizers and built a team who know how to handle the repeated couplings, deprotection steps, and final product cleavages without contamination. Each batch gets a custom-tailored purification, often involving reverse-phase HPLC at several stages. We openly share analytical data—NMR, HPLC chromatograms, and mass spectra—with our customers. Anyone who has run into ambiguous or inconsistent analytical results with third-party sources will recognize how detailed supplier data saves time and frustration.
We’ve received feedback directly from antimicrobial research teams in Europe, Asia, and the Americas. Many reported issues with off-spec Omiganan from brokers—sometimes subtle, such as shifts in peptide content or vague purity claims made over email. Others received product that failed dissolution checks, showed non-characteristic peaks in their chromatography, or lost activity after a few weeks of storage. As direct manufacturers, we do not speculate about origin, storage, or prior handling—the timeline from synthesis to customer stays short, and cold chain stays unbroken. Requests for technical documentation, extra purity runs, or solvent-specific packaging come straight to our lab staff, not a reseller or call center.
Support means more than replacement policies. Our technical specialists engage directly with formulation teams, offering counsel on everything from sequence-specific solubilization issues to recommendations on working concentrations and counterion forms. Some teams ask for alternative salt forms—our process flexibility allows us to substitute the pentahydrochloride with acetate or trifluoroacetate upon request. An academic team working in a model of skin infection might require higher grade material or more extensive release testing, and we can accommodate these runs in parallel with standard production. Years of experience handling scale-up projects enable us to meet shifting needs from milligram quantities for pilot studies to multi-gram orders for extended series.
The regulatory environment for cationic peptides has tightened with the increased attention on reproducible research and the push for clinical translation. We saw this coming years ago, long before most resellers began fielding questions about lot history or impurity profiles. Peptide manufacturing at scale creates subtle risks—trace solvent residues, merged peaks that signal synthesis errors, or contamination from column bleed or operator error. In our facilities, QC technicians test every new lot with validated methods. Regular machine calibration and contamination audits create the consistency that serious research requires.
Documentation fits each user. Some groups request a certificate of analysis summarizing mass, purity by HPLC, peptide content, and water content, while others demand a full documentation packet including origin of each raw material and dates of all process steps. Our systems save all of this by default, cutting through the delays research teams face dealing with less transparent sources. The batch-specific approach also means that if a project needs added data—such as elemental analysis, residual solvent reporting, or stability data over longer storage periods—we have in-house resources and documented control points ready.
Scaling Omiganan from lab to pilot and then production continues to challenge the field because even small process changes can create unwanted byproducts. Teams trying to scale up peptide synthesis often hit bottlenecks—blocked resin capacity, lost yields, or purification headaches. We’ve walked this path, optimizing chain assembly strategies and resin choices, and tackling slow-hydrolysis side reactions and aggregation issues at each scale step. Our control of process lets us maintain the intended amino acid sequence and peptide purity even as batch size changes. We remain responsive to projects targeting clinical development, diagnostic kit building, or any setting where large quantities of validated peptide matter.
Custom requests land at our desk regularly. Last quarter, a biotech team planning in vivo efficacy work required Omiganan in a solvent-free, lyophilized cake format, packed in bulk under argon. Another group asked for smaller vials to suit single-use assay workflows. Others specify detailed audit trails, and we generate those from in-house software that tracks every resin, reagent, operator, and instrument. None of these requests would process reliably through a multi-step distribution chain. Building relationships with our coordination staff helps research teams save time—our chemists, not a salesperson, answer the phone when technical issues arise.
Multi-drug resistant microorganisms in hospitals and outpatient settings present difficulties for both clinicians and policy makers. Omiganan brings a well-characterized mechanism: direct disruption of bacterial membrane integrity with little likelihood for resistance development. Randomized controlled trials for topical use show promise for treating infections in wounds, catheters, and skin, attracting broad interest from both research and pharma partners. The direct peptide approach, with its ability to act where antibiotics lose ground, continues to grow in prominence.
We’ve spent years working with clinical R&D teams, both in product supply and joint troubleshooting. For example, project leaders trialing Omiganan-based formulations often need rapid response when early results suggest instability in a new base or vehicle. As the peptide supplier, we hold in-depth knowledge of both the chemistry and common downstream challenges, so we can help teams revise their preparation, filtration, or packaging approaches, and ship fresh lots if shelf life becomes a concern. Knowing the exact batch record and storage conditions builds trust with regulatory reviewers, speeding the path from concept to clinical utility.
Researchers often share stories of lengthy email chains, ambiguous answers, and missed delivery timelines from trading companies who lack manufacturing expertise. This slows the whole pipeline every time, particularly for funded academic groups or startups working on tight milestones. Unlike those workflows, our team maintains production schedules in-house, and accounts for material requirements long before an order finalizes. Project leads get direct updates from our chemists, and adjustments can be made on the fly.
We make decisions with long-term partnerships in mind, not transactional revenue. Our team learns from each large-scale order to improve the next production run. For recurring customers, we may set aside reserved material or batch slots, aiming to keep supply chains robust in the face of demand spikes or raw material shortages. This approach helps avoid the pitfalls common in the peptide trade—mislabeling, ambiguous origins, or substitution with analog products.
Peptide synthesis comes with unique environmental and worker safety risks—significant solvent volumes, specialty reagents, and stringent cleanup. Our site invested early in solvent recycling, energy-efficient synthesis, and contained waste handling. Process waste streams, including chlorinated solvents, pass through dedicated collection and disposal routines. To us, this is a non-negotiable reality of responsible manufacturing, not marketing language. Feedback from regulators and neighboring companies often fuels process improvement; we welcome questions about compliance and operational transparency.
Omiganan’s future looks busy—new therapeutic avenues, broader spectrum testing, and more demand for documentation in cross-border regulatory systems. Ongoing in-house research evaluates stability, salt forms, and application in advanced wound dressings and device coatings. Every improvement in the process, from greener chemistry options to even finer purification, feeds directly into the next batch. Our chemists and technical staff take pride in the details—double-checking MS peaks, logging HPLC baselines, or fine-tuning lyophilization cycles for peptide cakes with less residual water.
Scientists who call us often recount the difference between factory-direct supply and material routed through resellers. Those switching from brokered sources to our direct line mention batch consistency, direct problem solving, and less wasted time. We believe hard-earned expertise and process transparency matter most, especially in a world facing renewed antimicrobial threats and rising scrutiny from clinical, regulatory, and funding organizations. Each kilogram or gram of Omiganan we deliver reflects those convictions, supported by hundreds of hours in the lab, direct chemical analysis, and customer back-and-forth that sharpens every aspect of the process.
Questions about application protocols, batch data, or process history get fielded directly by our technical and production staff. No call center scripts, no vague explanations about sourcing—just answers born from actual hands-on practice. If a group requires deviation from standard salt form, non-standard packaging, or expedited manufacturing timelines, our team can provide clear answers on feasibility, risks, and lead times.
Whether your study investigates new antimicrobial strategies, models persistent hospital infections, or develops next-generation medical coatings, direct access to manufacturing and technical support helps move science forward. We see Omiganan as more than a product on a catalog—it is a direct output of our laboratory team’s work, and an example of what can be achieved when manufacturing and research move side by side.
Directly sourced Omiganan stands on a foundation of technical knowledge, manufacturing discipline, and hands-on customer feedback. Unlike resold or traded lots, our product brings not just the expected physical and chemical profile, but also the assurance that comes from daily engagement with the molecule, process, and end users. Open communication, process transparency, and real concern for the future of antimicrobial therapies guide every decision. For research programs serious about pushing the science forward, working with the actual manufacturer sets the pace—and sets a higher standard.