Tablas de Dosis  ›  Crystagen
Immune

Crystagen Guía & Tabla de Dosis

An immune-focused peptide bioregulator (Glu-Asp-Pro) from the Khavinson series studied in preclinical models of immune function.

También conocido comoEDP, Glu-Asp-Pro
Víasubcutaneous
Crystagen — Tabla de dosis
Cada fila citada
ObjetivoDosisFrecuenciaDuraciónEvidenciaFuente
Los datos de dosis citados de este compuesto se están compilando.
Solo para uso de investigación y educativo. No es consejo médico.
Cómo Reconstituir Crystagen
U-100

Enfoque común: reconstituir un vial de ejemplo de 5 mg de Crystagen con agua bacteriostática. La tabla muestra la concentración en tres volúmenes de agua comunes — usa la calculadora de esta página para tu dosis objetivo específica.

Agua BACConcentraciónVolumen / dosisUnidades (U-100)
1 mL5 mg/mL
2 mL2.5 mg/mL
3 mL1.67 mg/mL

Las unidades mostradas son para una jeringa de insulina U-100 (1 mL = 100 unidades). Verifica siempre tus propios cálculos antes de cargar.

Tamaños de Vial de Crystagen

Reconstitución resuelta para cada tamaño común de vial:

What is Crystagen?

Crystagen is a short synthetic peptide made of just three amino acids: glutamic acid, aspartic acid, and proline — abbreviated Glu-Asp-Pro, or EDP for short. It belongs to a family of tiny signaling molecules called peptide bioregulators, developed through decades of work by Russian researcher Vladimir Khavinson and his colleagues. The "EDP" abbreviation simply refers to the one-letter amino acid codes strung together — it has nothing to do with other uses of that acronym you might come across in medical literature.

Crystagen is strictly a research compound. It is not approved as a medicine, and nothing here should be taken as medical advice. Scientists study it in preclinical (laboratory and animal) models to understand how short peptides might influence immune system behavior.

How Crystagen Works

Think of peptide bioregulators like short text messages sent between cells. Normal cells already produce and respond to tiny peptide signals all the time — they use these messages to tell neighbors when to grow, slow down, or change behavior. Crystagen, as a three-amino-acid sequence, is thought to act as one of those short messages, specifically targeting cells involved in immune function.

The working theory is that small peptides like Glu-Asp-Pro can interact with DNA regulatory regions in immune cells, nudging gene expression in ways that may help the immune system self-regulate. Because the peptide is so small, researchers hypothesize it can enter cells relatively easily and deliver its signal directly where it may be needed. This is preclinical thinking, though — much remains to be confirmed in rigorous human trials.

What the Research Shows

Crystagen sits within the broader Khavinson peptide bioregulator program, one of the most prolific research series on short-chain regulatory peptides. The general framework proposes that organ- or tissue-specific short peptides can modulate cellular aging and function by influencing gene expression patterns.

It is worth noting that interpreting causality in biological research is genuinely complex. As one review reminds us, understanding cause and effect in medicine requires careful experimental design and replication before conclusions can be drawn about any intervention.[3] This caution applies directly to peptide bioregulator research: many findings so far are preclinical, meaning they come from cell cultures or animal studies, not large human clinical trials.

Research into Crystagen's immune-specific action is ongoing and limited in publicly available English-language literature. The compound is categorized under immune peptide bioregulators, suggesting preclinical focus on thymus-related or general immune cell regulation — consistent with the broader Khavinson series approach of pairing specific peptide sequences with specific tissue targets.

What Crystagen Is Being Studied For

  • Immune cell modulation: Preclinical models exploring whether Glu-Asp-Pro influences the behavior or activity of immune cells, particularly in the context of aging immune systems.
  • Thymic function support: Some Khavinson-series peptides target thymus tissue; Crystagen's immune classification places it in related territory.
  • Age-related immune decline: A recurring theme in bioregulator research is whether short peptides can partially counteract the natural decline in immune competence that comes with age.
  • General immune homeostasis: Laboratory models looking at whether EDP helps immune cells maintain balanced, regulated responses rather than over- or under-reacting.

None of these research directions have produced approved therapies. All findings are preliminary and for scientific understanding only.

How Crystagen Is Dosed in Research

Because published human dosing data for Crystagen specifically is extremely limited, no standard research protocol has been firmly established. Preclinical studies across the Khavinson peptide series typically use very small microgram-to-milligram quantities. For a structured overview of the dose ranges that have appeared in the research literature, refer to the dosage chart on this page. You can also use the calculator to explore weight-based scaling used in some animal model studies. Always remember: these figures are for research reference only.

Mixing and Storing Crystagen

Crystagen is typically supplied as a lyophilized (freeze-dried) powder in a sealed vial. To reconstitute it for research use, bacteriostatic water or sterile saline is slowly added to the vial — usually by drawing the liquid into a syringe and injecting it gently down the side of the vial rather than directly onto the powder. Swirl gently; never shake vigorously, as this can break down the peptide chain. Once dissolved, the solution should appear clear. Store unmixed vials in a cool, dark place — a refrigerator at around 2–8 °C is standard, and some researchers prefer a freezer for long-term storage. Reconstituted solution should be kept refrigerated, used within a reasonable timeframe (commonly cited as a few weeks), and discarded if it appears cloudy or discolored. As with all research compounds, proper sterile technique matters throughout.

Sources

  1. Nursing Process. — , 2026. PMID 29763112.
  2. Endoscopist-Directed Propofol. — Gastrointestinal endoscopy clinics of North America, 2016. PMID 27372772.
  3. Causality in medicine. — Comptes rendus biologies, 2019. PMID 30981720.
  4. Erythema dyschromicum perstans. — Journal of the American Academy of Dermatology, 1980. PMID 6767758.
  5. Defining diastolic dysfunction post-Fontan: Threshold, risk factors, and associations with outcomes. — American heart journal, 2025. PMID 40651647.
  6. Erythema dyschromicum perstans. — Dermatology online journal, 2010. PMID 21163168.
Materiales Necesarios

Un kit típico de reconstitución e inyección incluye:

  • Vial(es) de péptido liofilizado — suficiente para todo el protocolo
  • Agua bacteriostática para la reconstitución
  • Jeringas de insulina U-100 (una por inyección)
  • Toallitas de alcohol
  • Un contenedor de objetos punzantes para desecho seguro
Almacenamiento, Manejo e Inyección

Almacenamiento y manejo

El péptido liofilizado se suele mantener refrigerado y protegido de la luz; una vez reconstituido con agua bacteriostática, normalmente se refrigera a 2–8 °C y se usa en pocas semanas. Sigue la técnica aséptica para evitar la contaminación, según la guía de seguridad en inyecciones de CDC.

Técnica de inyección

Las inyecciones subcutáneas suelen aplicarse en la grasa del abdomen o el muslo: limpia el sitio con una toallita de alcohol, pellizca la piel, inserta en el ángulo recomendado y rota los sitios para proteger el tejido. Consulta MedlinePlus para una guía paso a paso de inyección subcutánea.

Referencias generales de técnica aséptica e inyección para uso educativo — no son específicas de ningún compuesto de investigación.

Crystagen Preguntas

What is Crystagen?
Crystagen is a synthetic three-amino-acid peptide — glutamic acid, aspartic acid, and proline (Glu-Asp-Pro / EDP) — from the Khavinson series of peptide bioregulators. It is classified as an immune-focused research compound and is studied in preclinical models only. It is not an approved medicine, and it is not intended for human therapeutic use.
How does Crystagen work?
The proposed mechanism is that Crystagen acts as a short signaling peptide, potentially interacting with gene-regulatory regions inside immune cells to influence how those cells behave. Think of it like a tiny instruction note passed between cells. However, establishing clear cause-and-effect relationships in biology is difficult,[3] and the precise mechanism of Crystagen in living systems has not been fully confirmed.
What is Crystagen used for in research?
Researchers study Crystagen primarily in the context of immune cell modulation, age-related immune decline, and immune homeostasis. It belongs to the Khavinson peptide bioregulator tradition, which pairs short peptides with specific tissue targets. Current evidence is preclinical — meaning cell and animal studies — and no approved clinical applications exist.
How is Crystagen dosed?
Published human dosing data for Crystagen is very limited. Peptide bioregulators in this series are generally studied at small microgram-to-milligram quantities in preclinical settings. Check the dosage chart on this page for a structured summary of research-referenced ranges, and use the on-page calculator for weight-based estimates used in animal models. This is for research reference only.
How do you reconstitute Crystagen?
Start with a lyophilized (freeze-dried) vial. Slowly add bacteriostatic water or sterile saline by injecting it gently down the inside wall of the vial — avoid directing the stream straight onto the powder. Swirl gently until dissolved; never shake. The resulting solution should be clear. Store reconstituted peptide refrigerated and use within the timeframe recommended for your research protocol.
Is Crystagen safe?
Crystagen has not been evaluated in large human safety trials. It is a research compound, not an approved drug or supplement. Short peptide bioregulators as a class are considered relatively low-risk in preclinical contexts due to their small size and natural amino acid components, but that does not establish human safety. No conclusions about safety or efficacy for human use can be drawn from available preclinical data.