Cardinal Health Choice Cloth Stimulating Electrodes

These stimulating electrodes are professional-grade accessories designed for high-performance electrotherapy and electro-stimulation treatments.

They are ideal for professional use in applications such as:

• Physical therapy
• TENS (Transcutaneous Electrical Nerve Stimulation)
• EMS (Electrical Muscle Stimulation)

These electrodes offer reliable performance and endurance due to several key design features:

• Superior Adhesion and Longevity: They feature a thick, 0.04-inch hydrogel layer that provides a quick, moderately aggressive tack. This hydrogel exhibits high re-wettability and resistance to dryout, ensuring durability and extended usage life.
• High Conductivity: Electrical efficiency is maintained using a highly conductive carbon film and highly conductive pigtail wire strands.
• Comfort and Versatility: The electrodes have a soft spun lace top coat and are available in various standard shapes and sizes (including Round, Square, and Rectangle) to effectively target different treatment areas.

Each pack of Cardinal Health Choice Cloth Stimulating Electrodes includes 4 individual electrodes.

This quantity applies to all available configurations, which come in a variety of geometric shapes and sizes to suit different application needs, including round, square, and rectangular options.

Yes, these Cardinal Health Choice Cloth Stimulating Electrodes are designed for long-lasting performance.

Key features ensuring their durability and sustained use include:

• Hydrogel Thickness: They incorporate a robust 0.04-inch thick hydrogel layer.
• Dryout Resistance: This high-quality material is known for its high re-wettability and exceptional resistance to dryout, ensuring sustained conductivity over multiple applications.
• Secure Adhesion: The hydrogel provides a quick, moderately aggressive tac for reliable skin contact.

To maximize their life, each pack comes with a tinted double-coated storage liner to preserve the adhesive surface when not in use.

The hydrogel layer on the Cardinal Health Choice Cloth Stimulating Electrodes measures 0.04 inches thick. This robust thickness is designed to ensure long-lasting performance and consistent contact during electrical stimulation.

Key features of the hydrogel include:

• Long-Lasting: Engineered for extended use.
• High Re-wettability: Highly resistant to dryout, ensuring sustained effectiveness.
• Secure Adhesion: Provides a quick, moderately aggressive tack for secure application.

Yes, these Cardinal Health Choice Cloth Stimulating Electrodes are designed for sustained use with a long-lasting hydrogel formulation.

This high-performance hydrogel ensures reliability by offering:

• High Re-wettability: This minimizes performance degradation from drying out.
• Resistance to Dryout: The hydrogel is formulated to maintain its consistency.
• Thickness: The layer is 0.04 inches thick.
• Adhesion: They utilize a quick, moderately aggressive tack for secure placement during use.

Yes, the Cardinal Health Choice Cloth Stimulating Electrodes are specifically engineered for optimal electrical performance and highly reliable signal transfer.

This high conductivity is ensured by several key features:

• Highly Conductive Core: They utilize a highly conductive carbon film for efficient current distribution across the electrode surface.
• Superior Wiring: The electrodes feature highly conductive pigtail wire strands connected to a soft molded socket connector, maximizing efficiency from the device to the patient.
• Long-Lasting Hydrogel: The substantial 0.04-inch thick hydrogel layer is designed for longevity, high re-wettability, and resistance to dryout, which is crucial for maintaining consistent, reliable conductivity over extended use.

Yes, these Cardinal Health electrodes utilize a soft molded socket connector.

This design is a quality component included for:

• Comfort and Durability: The soft molding ensures user comfort and long-term durability.
• Reliable Performance: It ensures a reliable connection to the highly conductive pigtail wire strands, optimizing electrical performance for efficient current distribution during stimulation therapy.

Yes, these electrodes include a tinted, double-coated storage liner.

This protective liner is crucial for maintaining the quality and long-term performance of the electrodes. Its primary functions are to:

• Shield the Hydrogel: Protects the 0.04-inch thick, long-lasting hydrogel from environmental exposure.
• Preserve Integrity: Ensures the adhesive surface maintains its quick tack and high re-wettability when stored between uses.

Yes, these Cardinal Health Choice Cloth Stimulating Electrodes are engineered for reliable and secure adhesion during electrotherapy applications.

Key features that ensure consistent skin contact include:

• Quick, Moderately Aggressive Tac: The adhesion profile is designed to be quick and moderately aggressive, ensuring the electrodes remain securely positioned throughout the treatment session.
• Durable Hydrogel: They feature a substantial 0.04-inch thick hydrogel layer that is highly resistant to dryout. This long-lasting formula maintains high re-wettability, which supports consistent conductivity and reliable stickiness over extended use.

Yes, these Cardinal Health Choice electrodes are specifically engineered for reliable, extended use in electrotherapy applications.

Key features that ensure their longevity and sustained performance include:

• Durable Hydrogel: They utilize a thick 0.04-inch hydrogel layer that features high resistance to dryout and excellent re-wettability, allowing for consistent performance across multiple sessions.
• Secure Grip: The adhesive provides a quick, moderately aggressive tac for reliable skin contact throughout the entire application time.
• Quality Preservation: Each electrode is packaged with a tinted double-coated storage liner designed to protect the hydrogel and maximize the pad’s lifespan when not in use.
• High Conductivity: The highly conductive carbon film and pigtail wire strands ensure electrical efficiency is maintained over time.