Prp Kit: Complete Analysis of Standards, Types, and Industry Performance

Types of PRP Kits

Platelet-Rich Plasma (PRP) kits are medical devices designed to isolate and concentrate platelets from a patient’s blood for therapeutic applications. These kits are widely used in regenerative medicine, orthopedics, dermatology, and aesthetic treatments to accelerate healing, reduce inflammation, and stimulate tissue regeneration.

The choice of PRP kit significantly affects the quality, concentration, and usability of the resulting plasma. Below is a detailed overview of the most common types of PRP kits used in clinical and medical spa settings.

3-Syringe PRP Kit

A precision system using three syringes to separate whole blood into plasma, red blood cells, and concentrated platelets through centrifugation.

Advantages

• High separation efficiency with dedicated syringes for each component
• Cost-effective and compatible with standard centrifuges
• Ideal for consistent, high-quality PRP preparation
• Widely used in regenerative and aesthetic medicine

Limitations

• Requires manual transfer between syringes
• Slightly longer processing time than dual-syringe systems
• Needs trained personnel for optimal results

Best for: Clinics focused on regenerative therapies, dermatology, and hair restoration treatments

Dual-Syringe PRP Kit

Features two syringes: one for blood collection and another for separation and concentration via centrifuge, streamlining the PRP process.

Advantages

• Simple, fast, and efficient workflow
• Minimizes handling and contamination risk
• Easily scalable for bulk aesthetic procedures
• High platelet yield with minimal blood volume

Limitations

• Less component control compared to 3-syringe systems
• May produce slightly lower concentration in some models
• Limited customization for specialized applications

Best for: Medical spas, dermatology clinics, and high-volume aesthetic practices

Emergency PRP Kit

Designed for rapid deployment in urgent care or trauma settings, enabling quick PRP preparation for acute wound treatment.

Advantages

• Fast preparation time (under 15 minutes)
• Portable and easy to use in emergency environments
• Effective for deep tissue wounds, burns, and surgical sites
• Reduces healing time in trauma patients

Limitations

• Lower platelet concentration due to speed-focused design
• Limited use outside emergency or surgical settings
• Higher cost per unit due to specialized packaging

Best for: Emergency rooms, trauma centers, and mobile medical units

Bone Marrow PRP Kit

Specialized system for extracting PRP from bone marrow aspirate, used when peripheral blood platelet levels are inadequate.

Advantages

• Higher concentration of stem cells and growth factors
• Superior regenerative potential for complex orthopedic cases
• Ergonomic design with mixing tube and syringe holder
• Used in advanced wound care and joint regeneration

Limitations

• Invasive collection process requiring specialized training
• More expensive than blood-derived PRP kits
• Limited to specific clinical indications

Best for: Orthopedic surgeons, sports medicine specialists, and chronic wound care centers

Kits	Processing Time	Platelet Yield	Primary Use	Ideal Setting
3-Syringe PRP Kit	15–20 minutes	High	Tissue regeneration, aesthetics	Clinics, medical spas
Dual-Syringe PRP Kit	10–15 minutes	Moderate to High	Facial rejuvenation, hair therapy	Aesthetic practices
Emergency PRP Kit	Under 15 minutes	Moderate	Acute wound healing	Hospitals, EMS
Bone Marrow PRP Kit	20–30 minutes	Very High (with stem cells)	Orthopedic repair, chronic wounds	Surgical centers, specialty clinics

Expert Tip: Always follow sterile protocols and centrifuge speed guidelines specific to each PRP kit to ensure optimal platelet activation and avoid hemolysis, which can reduce treatment efficacy.

Materials Used in PRP Kits: Composition, Functions, and Benefits

Platelet-Rich Plasma (PRP) kits are essential medical devices used in regenerative medicine, orthopedics, dermatology, and sports medicine. These kits rely on a combination of high-performance materials—each selected for its biocompatibility, durability, and functional properties. As a business owner or healthcare provider, understanding the materials used in PRP kits enables informed decisions about product selection, safety, and regulatory compliance.

Plastic: Lightweight, Durable, and Sterilizable

Most components in a PRP kit—such as collection tubes, connectors, and housings—are made from medical-grade plastics like polypropylene (PP), polycarbonate (PC), or polyethylene (PE). These materials are favored for their excellent strength-to-weight ratio, resistance to impact, and compatibility with sterilization methods such as gamma radiation or ethylene oxide (EtO).

The lightweight nature of plastic makes the kits easy to handle and transport, while its non-reactive surface ensures that blood components remain uncontaminated during processing. Additionally, transparent plastics allow for visual monitoring of blood separation, enhancing procedural accuracy.

Rubber: Ensuring Secure Sealing

Rubber, particularly butyl rubber or synthetic elastomers, is commonly used in syringe stoppers and septa within PRP kits. These components form an airtight seal that prevents contamination from external pathogens and maintains sample integrity during storage and centrifugation.

Its high elasticity allows the stopper to reseal after needle puncture, minimizing the risk of air entry or leakage. This property is crucial in preserving the sterility of plasma and preventing hemolysis or microbial growth, both of which can compromise treatment outcomes.

Glass: Precision and Purity in Blood Collection

While less common due to weight and breakage risks, some PRP kits utilize borosilicate glass tubes for blood collection. Glass offers a chemically inert, non-porous surface that minimizes protein adsorption and prevents leaching of harmful substances into the blood sample.

Its optical clarity allows for precise observation of plasma separation layers during centrifugation. Additionally, glass can withstand high-temperature sterilization without degradation, making it ideal for reusable or lab-grade applications where purity is paramount.

Silicone: Reliable Sealing Under Stress

Silicone is widely used in gaskets, O-rings, and seals within PRP devices due to its exceptional thermal stability, flexibility, and biocompatibility. It maintains elasticity across a wide temperature range, ensuring a consistent seal even during centrifugation or refrigerated storage.

Medical-grade silicone resists microbial growth and does not degrade when exposed to bodily fluids or common disinfectants. Its ability to withstand repeated compression without losing structural integrity makes it ideal for components that require long-term reliability and leak-proof performance.

Metal: Structural Support and Centrifuge Components

Although not part of the disposable kit itself, metal components—particularly stainless steel and aluminum—are integral to the supporting equipment, such as centrifuge rotors and drive mechanisms. These metals are chosen for their high tensile strength, corrosion resistance, and ability to endure repeated sterilization cycles.

In specialized PRP systems, metal may also be used in reusable hand-held devices or automated processing units. Their durability ensures consistent performance over time, reducing maintenance costs and downtime in clinical settings.

Material	Primary Use in PRP Kit	Key Advantages	Considerations
Medical-Grade Plastic	Tubes, connectors, housings	Lightweight, cost-effective, sterilizable, transparent	Must be non-toxic and free from leachables
Rubber (Butyl/Synthetic)	Syringe stoppers, septa	Airtight seal, self-sealing after puncture, flexible	Must be pyrogen-free and biocompatible
Glass (Borosilicate)	Blood collection tubes	Chemically inert, non-porous, highly transparent	Fragile, heavier than plastic alternatives
Silicone	Seals, gaskets, O-rings	Heat resistant, flexible, biocompatible, durable	Higher cost compared to standard rubber
Stainless Steel / Aluminum	Centrifuge parts, reusable tools	Strong, corrosion-resistant, sterilizable	Not typically in disposable kits; used in equipment

Why Material Selection Matters for Clinical and Business Success

Biocompatibility: All materials must meet ISO 10993 standards for biological evaluation of medical devices to ensure they do not cause adverse reactions when in contact with blood or tissue.

Sterilization Compatibility: Materials must withstand common sterilization methods without degrading, ensuring each kit is safe for single-use applications.

Regulatory Compliance: Choosing FDA-cleared or CE-marked materials helps streamline product approval and reduces liability risks.

Cost Efficiency: Balancing performance with production cost ensures competitive pricing without sacrificing quality.

Patient Safety: Proper material selection directly impacts the efficacy and safety of PRP treatments by preventing contamination, hemolysis, or device failure.

Important: Always verify that PRP kit materials comply with regulatory standards such as ISO 13485, FDA 21 CFR Part 820, and EU MDR. Using substandard or non-certified materials can lead to product recalls, legal liability, and compromised patient outcomes. Partner with reputable manufacturers who provide full material traceability and validation reports.

Commercial Uses of PRP Kits

Platelet-Rich Plasma (PRP) kits are increasingly adopted across medical, aesthetic, and sports health industries due to their regenerative properties. By concentrating platelets from a patient’s own blood, PRP therapy accelerates healing, enhances tissue repair, and supports non-invasive treatments. These applications are transforming patient care in hospitals, clinics, and wellness centers worldwide.

Enhancing Wound Healing

Hospitals and outpatient clinics utilize PRP to accelerate wound healing, particularly in cases involving chronic or non-healing wounds. Diabetic ulcers, pressure sores, surgical incisions, and severe burns benefit significantly from PRP application due to its high concentration of growth factors such as PDGF (platelet-derived growth factor) and VEGF (vascular endothelial growth factor).

• PRP stimulates cell proliferation and angiogenesis (formation of new blood vessels), critical for tissue regeneration
• Used post-surgery to minimize scarring and reduce infection risk
• Effective in treating wounds that resist conventional therapies, improving recovery timelines
• Applied via gel, spray, or direct injection depending on wound depth and location

Clinical insight: PRP is especially valuable in geriatric care and diabetic patients where natural healing is impaired.

Stimulating Hair Growth

Medical spas, dermatology clinics, and trichology centers use PRP therapy as a non-surgical solution for androgenetic alopecia (male and female pattern baldness) and general hair thinning. The treatment involves injecting PRP into the scalp to revitalize dormant hair follicles and improve hair density and thickness.

• Growth factors in PRP extend the anagen (growth) phase of the hair cycle
• Typically administered in a series of 3–6 sessions spaced 4–6 weeks apart
• Safe for long-term use with minimal side effects compared to pharmaceutical options like minoxidil or finasteride
• Often combined with microneedling or low-level laser therapy for enhanced results

Patient benefit: Offers a natural, autologous treatment with no risk of allergic reaction or foreign body rejection.

Treatment of Soft Tissue Injuries

Sports medicine facilities and orthopedic clinics use PRP to treat tendonitis, ligament sprains, muscle strains, and partial tears—common among athletes and physically active individuals. Conditions like tennis elbow (lateral epicondylitis), Achilles tendinopathy, and rotator cuff injuries respond well to PRP injections.

• Reduces inflammation and promotes collagen synthesis for stronger tissue repair
• Shortens recovery time compared to rest and physical therapy alone
• Decreases dependency on NSAIDs and corticosteroid injections, which can weaken tissues over time
• Enables faster return to training or daily activities without surgical intervention

Pro tip: Best results are seen when PRP is administered early in the injury phase, before chronic degeneration sets in.

Joint Injections for Osteoarthritis

Hospitals and pain management clinics use PRP kits to prepare injections for degenerative joint conditions, particularly osteoarthritis in knees, hips, shoulders, and smaller joints. Unlike hyaluronic acid injections, PRP doesn't just lubricate but actively supports cartilage regeneration and modulates inflammation.

• Improves joint function and reduces pain scores in mild to moderate osteoarthritis
• May delay or eliminate the need for joint replacement surgery
• Effects can last 6–12 months, with some patients requiring only annual maintenance
• Particularly effective for younger, active patients seeking to preserve joint integrity

Key advantage: Autologous nature reduces risks associated with synthetic or animal-derived injectables.

Cosmetic and Skin Rejuvenation Treatments

Beauty clinics and aesthetic dermatology practices use PRP as a "natural filler" in procedures like the Vampire Facial®. By combining PRP with microneedling, practitioners stimulate collagen and elastin production, leading to firmer, smoother, and more youthful-looking skin.

• Effectively reduces fine lines, wrinkles, and acne scars over multiple sessions
• Treats under-eye hollows and dark circles by thickening delicate skin
• Improves skin texture, tone, and hydration without synthetic additives
• Minimal downtime and low risk of adverse reactions due to autologous sourcing

Trending application: PRP is increasingly combined with dermal fillers for synergistic anti-aging effects.

Emerging and Specialized Applications

Beyond mainstream uses, PRP is being explored in dental implantology, ophthalmology, and gynecology, demonstrating its versatility in regenerative medicine.

• Dentistry: Used in bone grafting and socket preservation after tooth extraction
• Ophthalmology: Treats dry eye syndrome and corneal surface damage
• Gynecology: Investigated for vaginal rejuvenation and lichen sclerosus
• Plastic Surgery: Enhances fat graft survival in procedures like Brazilian butt lifts

Future outlook: Ongoing research may expand PRP’s role in nerve regeneration and scar revision.

Professional Recommendation: When offering PRP services, ensure proper training in blood handling and centrifugation techniques. Use FDA-cleared or CE-marked PRP kits to maintain compliance and safety standards. Educate patients on realistic expectations—results are gradual and often require multiple sessions. Document outcomes to build credibility and support evidence-based practice.

Application Area	Primary Benefit	Typical Treatment Course	Industries Using PRP
Wound Healing	Accelerated tissue repair and reduced infection risk	1–4 applications based on wound severity	Hospitals, Burn Centers, Wound Care Clinics
Hair Restoration	Increased hair density and reduced shedding	3–6 sessions, 4–6 weeks apart	Dermatology, Trichology, Medical Spas
Soft Tissue Repair	Faster recovery from tendon/muscle injuries	1–3 injections, spaced 4–8 weeks	Sports Medicine, Orthopedics, Physical Therapy
Joint Pain Management	Pain reduction and improved joint function	1–3 injections, effects last 6–12 months	Rheumatology, Pain Clinics, Orthopedics
Cosmetic Rejuvenation	Collagen boost, wrinkle reduction, skin tightening	3 sessions, 4–6 weeks apart, annual touch-ups	Aesthetic Medicine, Dermatology, Beauty Clinics

Additional Considerations for Commercial Use

• Regulatory Compliance: Ensure PRP kits meet local medical device regulations (e.g., FDA, CE, Health Canada)
• Staff Training: Proper centrifuge operation and sterile technique are essential for consistent PRP quality
• Patient Selection: Not all patients are ideal candidates—evaluate medical history and expectations
• Marketing & Education: Clearly communicate benefits, limitations, and scientific backing to build trust
• Cost vs. Value: While initial investment exists, PRP services offer high patient satisfaction and recurring revenue potential

Factors That Affect the Durability of PRP Kits

Platelet-Rich Plasma (PRP) kits are essential tools in regenerative medicine, used for procedures ranging from orthopedic treatments to aesthetic therapies. The effectiveness and longevity of these kits depend heavily on proper handling and storage. Several environmental and procedural factors can significantly impact the integrity and performance of PRP kit components. Understanding these influences ensures consistent results, patient safety, and optimal use of medical resources.

Critical Reminder: Always follow manufacturer guidelines for storage, sterilization, and expiration dates. Using compromised PRP kits can lead to reduced treatment efficacy, contamination risks, or adverse patient outcomes.

1. Heat Exposure

Excessive heat is one of the most damaging factors affecting PRP kit durability. Elevated temperatures can compromise both structural and functional components:

• Material Degradation: Heat can warp or soften critical components such as syringes, tubing, and seals, especially those made from thermoplastic or rubber-based materials.
• Reduced Platelet Activity: High temperatures accelerate platelet activation and degranulation, diminishing the therapeutic potential of the final PRP product.
• Gel Stability: Fibrin and platelet gels may lose structural integrity when exposed to heat, leading to inconsistent clot formation during application.

Best Practice: Store PRP kits in a temperature-controlled environment between 2°C and 8°C (36°F–46°F). Avoid leaving kits in direct sunlight, near heating units, or in vehicles during hot weather.

2. Improper Sterilization

Sterilization is crucial for maintaining the sterility and functionality of PRP kits, but incorrect methods can do more harm than good:

• Infection Risk: Inadequate sterilization fails to eliminate pathogens, increasing the risk of contamination during clinical use.
• Material Damage: Harsh chemicals (e.g., strong oxidizing agents) or excessive autoclaving cycles can degrade plastics and rubber components, causing brittleness or seal failure.
• Residue Buildup: Improper rinsing after chemical sterilization may leave residues that interfere with platelet function or patient safety.

Best Practice: Use only manufacturer-approved sterilization techniques—typically gamma irradiation for pre-packaged kits. For reusable components, follow validated protocols using low-temperature sterilization (e.g., ethylene oxide or hydrogen peroxide plasma) to preserve material integrity.

3. Inefficient Storage Conditions

Poor storage practices, particularly exposure to light and humidity, can accelerate material aging:

• Photodegradation: Prolonged exposure to UV or bright fluorescent light causes polymers in syringes, tubes, and centrifuge components to break down, leading to cracks or loss of flexibility.
• Rubber and Silicone Deterioration: Light and oxygen exposure can cause rubber seals and silicone parts to harden or become brittle over time.
• Moisture Absorption: Storing kits in humid environments may promote microbial growth or affect the dry components within the kit.

Best Practice: Store PRP kits in their original packaging in a cool, dark, and dry cabinet or refrigerator. Protect glass components with opaque covers or store them in sealed containers to minimize light exposure.

4. Duration and Shelf Life

Like all medical devices, PRP kits have a defined shelf life. Using them beyond this period compromises performance:

• Component Breakdown: Over time, plastics may leach additives, and rubber components may lose elasticity, increasing the risk of leaks or malfunctions.
• Reduced Efficacy: Even if physically intact, expired kits may not deliver consistent PRP concentrations due to subtle changes in anticoagulant activity or centrifuge calibration.
• Procedural Risks: Worn or degraded parts (e.g., syringe plungers, tube connectors) can fail during use, disrupting treatment and potentially endangering patients.

Best Practice: Always check the expiration date before use. Implement a first-in, first-out (FIFO) inventory system in your lab or clinic to ensure older kits are used first. Never use kits past their labeled expiration date, even if they appear undamaged.

Factor	Impact on PRP Kit	Prevention Strategy	Recommended Monitoring
Heat	Deforms materials, reduces platelet activity	Refrigerated storage, avoid direct heat sources	Temperature logs, climate-controlled storage
Improper Sterilization	Contamination, material degradation	Use manufacturer-approved methods only	Sterilization cycle tracking, residue testing
Light Exposure	Photodegradation of plastics and rubbers	Store in dark, opaque containers	Visual inspection, UV exposure logs
Duration (Shelf Life)	Loss of structural integrity, reduced efficacy	Adhere to expiration dates, FIFO system	Inventory audits, expiration date checks

Expert Tip: Conduct regular quality checks on your PRP kit inventory. Inspect packaging for damage, verify storage conditions weekly, and document all findings. This proactive approach helps prevent the accidental use of compromised kits and supports compliance with clinical safety standards.

Additional Recommendations for Long-Term Kit Integrity

• Train all staff on proper handling, storage, and sterilization protocols for PRP kits.
• Maintain a dedicated storage area with temperature and humidity monitoring.
• Keep detailed logs of kit usage, sterilization cycles, and expiration tracking.
• Partner with reputable suppliers who provide clear labeling and stability data.
• Consider batch testing older kits before critical procedures if nearing expiration.

Ensuring the durability and reliability of PRP kits is not just about extending shelf life—it's about safeguarding treatment outcomes and patient well-being. By controlling heat, sterilization, light exposure, and respecting expiration timelines, medical professionals can maintain the highest standards of care in regenerative therapies.

Frequently Asked Questions About PRP Kits in Healthcare Settings

Q1: Is it safe for health centers to use PRP kits made of plastic?

Yes, plastic-based PRP (Platelet-Rich Plasma) kits are considered safe and widely used across medical and surgical environments. Modern medical-grade plastics are specifically engineered to meet stringent healthcare standards. These materials can withstand high-pressure sterilization processes such as autoclaving without deforming or compromising structural integrity.

• Durability: Unlike glass, plastic PRP components do not shatter, reducing the risk of injury and contamination during handling and disposal.
• Biocompatibility: Medical plastics are designed to be non-reactive and inert, minimizing adverse reactions when in contact with blood and tissues.
• Smooth Surface: The seamless interior finish of plastic syringes and tubes reduces clot formation and enhances blood flow, improving sample quality.
• Cost-Effective & Accessible: Plastic kits are generally more affordable than alternatives, making them ideal for clinics with limited budgets. They are also mass-produced and readily available globally, ensuring consistent supply.

Regulatory bodies such as the FDA and CE mark approve many plastic PRP systems, confirming their safety, sterility, and performance in clinical applications.

Q2: What should health centers do to avoid PRP kit contamination?

Preventing contamination is critical to ensure patient safety and treatment efficacy. Since PRP involves processing a patient’s own blood, any microbial contamination could lead to serious infections. Health centers must follow strict sterilization and handling protocols:

• Use Pre-Sterilized Kits: Most PRP kits come pre-sterilized and individually packaged. Facilities should only open them in sterile environments just before use.
• Autoclaving Reusable Components: If any part of the system (e.g., centrifuge adapters or collection trays) is reused, it must be thoroughly cleaned and sterilized using an autoclave—pressurized steam at 121°C for 15–20 minutes effectively eliminates bacteria, viruses, and spores.
• Chemical Disinfection: Surfaces and tools that cannot be autoclaved should be wiped down with medical-grade disinfectants like 70% isopropyl alcohol or hydrogen peroxide solutions.
• Aseptic Technique: Staff should wear gloves, masks, and follow sterile procedures during blood draw and PRP preparation to minimize airborne or skin-borne contamination.
• Storage Practices: Unopened kits should be stored in dry, cool areas away from direct sunlight and contaminants to preserve sterility.

Regular staff training and adherence to infection control guidelines significantly reduce the risk of contamination in PRP procedures.

Q3: How do health centers dispose of PRP kits after using them?

Proper disposal of used PRP kits is essential for infection control and environmental safety. Because these kits come into contact with human blood, they are classified as biohazardous waste and must be handled accordingly:

• Segregation: Used syringes, needles, and blood-containing tubes must be immediately placed in designated sharps containers or leak-proof biohazard bags labeled with the universal biohazard symbol.
• Decontamination: Before final disposal, many facilities use autoclaves to sterilize the waste, rendering pathogens inactive. In some cases, incineration is used, especially for highly infectious materials.
• Needle Safety: Needles should never be recapped. Instead, they are disposed of directly into puncture-resistant sharps containers to prevent accidental injuries.
• Recycling Non-Contaminated Parts: After decontamination, certain plastic components that are free of biological residue may be processed for recycling, depending on local regulations and facility policies.
• Compliance: Disposal must comply with local health department regulations and OSHA (Occupational Safety and Health Administration) standards to ensure worker and public safety.

Implementing a clear waste management protocol helps healthcare facilities maintain hygiene, reduce legal risks, and support sustainable practices.

Q4: What makes PRP kit rubber stoppers a good option?

Rubber stoppers play a vital role in maintaining the integrity and sterility of PRP collection systems. They are typically located at the top of blood collection tubes and serve as a critical seal to protect the sample:

• Air and Microbial Barrier: High-quality rubber stoppers create an airtight seal that prevents oxygen exposure and blocks bacteria, fungi, and other contaminants from entering the tube—essential for preserving platelet activity and preventing coagulation issues.
• Elastomeric Properties: Rubber is flexible and resilient, allowing it to reseal after needle puncture during blood draw or sampling, maintaining sterility throughout the process.
• Latex-Free Options: While some older stoppers contained natural latex (a potential allergen), most modern PRP kits use synthetic rubber or butyl rubber that is latex-free, reducing allergy risks for both patients and healthcare workers.
• Compatibility: These stoppers are designed to work seamlessly with automated blood analyzers and centrifuge systems, ensuring consistent performance across different devices.
• Preservative Retention: In tubes containing anticoagulants or stabilizers, the stopper helps retain these additives, ensuring proper blood preservation during transport and processing.

The reliability and sealing capability of rubber stoppers make them indispensable in PRP therapy and other blood-based diagnostic and regenerative procedures.

Q5: How do PRP kits benefit health facilities?

PRP kits offer numerous operational, clinical, and economic advantages for healthcare providers, especially in specialties like orthopedics, dermatology, dentistry, and sports medicine:

• Efficiency & Speed: PRP kits streamline the preparation of platelet-rich plasma, often allowing full processing within 15–30 minutes. This enables same-day treatments and improves patient throughput.
• Standardization: Commercial kits provide consistent, reproducible results by controlling variables like centrifugation time, tube type, and anticoagulant levels—reducing human error compared to manual methods.
• Integration with Existing Equipment: Most kits are compatible with standard laboratory centrifuges already found in clinics, minimizing the need for additional investments.
• Space-Saving Design: Compact and portable, PRP kits require minimal storage space and can be used in small clinics or mobile medical units.
• Cost-Effectiveness: With relatively low per-unit costs and high success rates, PRP therapy offers a valuable return on investment, particularly for outpatient regenerative treatments.
• Patient Satisfaction: As a minimally invasive, autologous (using the patient’s own blood) treatment, PRP is well-received by patients seeking natural healing options with minimal downtime.
• Expanded Service Offering: Offering PRP therapy allows clinics to diversify their services, attract new patients, and enhance their reputation in regenerative medicine.

Overall, PRP kits empower healthcare facilities to deliver advanced, evidence-based treatments efficiently and safely, supporting both clinical outcomes and business growth.