PRODUCTS

Biomate Dental Fixture Design

Product details
AI Summary – Key points in one minute • PDL® Laser Surface: Creates an ultra-clean, chemical-free surface with a 110 nm-thick oxide layer (TiO₂), significantly outperforming SLA surfaces in terms of protein adsorption and cell adhesion.
• Advanced Thread Design: Features an asymmetrical trapezoidal thread with an optimum pitch of 0.8 mm, providing superior stress distribution and higher bone-to-implant contact (BIC) values.
• Predictable Stability: Unlike conventional surfaces, which experience a dip in stability between weeks 2 and 6, PDL implants maintain progressive stability throughout the healing process.
• Integrated Safety: Incorporates an arched root design to protect vital structures, such as nerves and the maxillary sinus, together with a 0.3 mm platform switch to minimise bone resorption.
• Simplified Prosthetics: Uses a universal 10° Morse taper internal hex connection across all fixture sizes, allowing for greater wall thickness and improved mechanical stability.
Quick Guide
 
Q. Why choose Biomate PDL Laser Implants?
They combine asymmetrical trapezoidal threads for enhanced stability with a PDL® Laser surface for an ultra-clean finish that supports rapid healing.
INSIGHT
What is the key to preventing bone loss?
According to finite element analysis (FEA), the trapezoidal thread design and 0.8 mm pitch provide optimal stress distribution and help to preserve bone.

Biomate PDL Laser Implants
deliver outstanding clinical performance for implantologists and patients alike.

Designed to provide a better dental implant experience for both clinicians and patients.

For Dentists

Straightforward implant placement, strong osseointegration, excellent soft- and hard-tissue responses, and a shorter overall treatment time. In addition, the implant offers excellent resistance to bacterial colonisation, helping to reduce the risk of peri-implantitis.

For Patients

The implant is well suited to minimally invasive surgery, resulting in less pain, a shorter healing period and improved aesthetic outcomes. The simplified protocol supports predictable osseointegration, even in challenging bone conditions.

Selection Guide – Ideal Emergence Profile for Each Tooth

Select the Appropriate Biomate Implant Size

Biomate Implant System
System SD RD
Size SD RD
Diameter 3.3 4.1 4.8 5.5
Length 8/10/12/14 8/10/12/14 8/10/12/14 8/10/12/14
Features

1. Minor External Expansion Design (Φ4.1, Φ4.8, Φ5.5)
2. Root-Form Design / 3. Arched Root Design
4. 0.3 mm/0.4 mm Platform-Switch Design
5. Trapezoidal Thread Design / 6. Self-Tapping Thread Design
Clinical Applicability 1. Early stability / 2. D3 and D4 bone / 3. Sinus lift procedures / 4. Older patients / 5. Immediate loading
Special Considerations 1. RD implants (D4.8/D5.5) are recommended for molar sites. / 2. Submerge by 0.5–1.0 mm if required. / 3. Use a bone tap in D1 bone.

I. Implant Features

0.3 mm Platform-Switch Design: The antibacterial, machined surface helps to inhibit plaque accumulation and minimise bone resorption. It also helps to prevent gingival recession and maintain crestal bone levels.

Minor External Expansion Design: Enhances primary implant stability and helps to improve stability in fresh extraction sockets.

Root-Form & Self-Tapping Design: The tapered body is suitable for confined sites. It provides primary stability without excessive force, helping to prevent cortical bone resorption.

Arched Root Design: The curved implant apex helps to avoid damage to vital structures, such as the inferior alveolar nerve and maxillary sinus.

II. Key Implant Design Concepts

The Biomate implant design incorporates key features intended to minimise bone loss.

1. Optimal Thread Design: Trapezoidal Thread Although this design is uncommon on the market, finite element analysis (FEA) indicates that it offers excellent resistance to micromovement, a high level of bone-to-implant contact (BIC) and optimal stress distribution.
2. Optimum Pitch: 0.8 mm This spacing promotes rapid, effective osseointegration. Bone-to-implant contact (BIC) is a key factor in implant stability.

III. PDL® Laser Surface Treatment

A. Resistance to Mechanical Stress: PDL surfaces show only minor damage compared with SLA surfaces because they do not have sharp micro-irregularities that are susceptible to damage.

B. Ultra-Clean Surface: Laser treatment delivers energy without the use of chemicals, leaving no harmful residues; only Ti, N, O and C remain.

C. Thicker Oxide Layer: Creates a 110 nm-thick TiO₂ layer, compared with 5.5–9.3 nm on conventional surfaces, thereby optimising protein adsorption and cell adhesion.

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