Why Choosing Screws with Both Low Driving Torque and High Holding Power Matters?

2025/08/26

For professionals in the construction and woodworking trades, efficiency and reliability are paramount. The choice of a fastener, seemingly a small detail, can have a massive impact on a project's outcome. While many prioritize installation speed, the true measure of a superior fastener lies in a crucial combination: low driving torque high holding power wood screws

These advanced screws are engineered to be exceptionally easy to install yet provide a powerful, lasting connection that resists pull-out. This dual-performance capability translates directly to quicker, cleaner installs, tighter connections over time, and a potential reduction in the total number of fasteners required for a job.

In a series of controlled, head-to-head tests conducted on Yellow Pine, our featured screw consistently delivered lower average driving torque while achieving higher holding power than benchmark products under identical settings.

 What are driving torque & holding power?

  • Driving torque: the torque your driver applies while the screw is going in. Lower torque makes installs smoother, cuts operator fatigue, and reduces wear on tools.
  • Holding power: how well a screw resists being pulled out after installation. Higher holding power supports long-term connection security.
Just remember: lower torque is easier to install; higher holding power is safer to live with.

Performance Indicators (TI, HI, η) Explained

To make comparisons intuitive, we convert lab averages into three simple indicators.

📊 Twister is baseline = 100 (Standard Reference)
Metric Definition Interpretation
Torque Index (TI) Comparative measure of driving difficulty relative to Twister baseline TI < 100 ⇒ Twister is easier to drive
TI > 100 ⇒ benchmark is easier to drive
Holding Index (HI) Comparative measure of holding strength relative to Twister baseline HI < 100 ⇒ Twister screw holds stronger
HI > 100 ⇒ benchmark holds stronger
Efficiency (η) Overall performance measure combining jobsite efficiency and security Higher η = better jobsite efficiency and better security
These indicator definitions and usage are part of our internal analysis method for de-branding comparisons.

Scenarios & Test Results: Twister vs. Benchmarks


Twister Screw Performance Test Results

Twister Screw Performance Test Results

Test Conditions

Wood Material
Yellow Pine
Test Methods
Driving torque test, pull-out force test
Test Parameters
6-11kg load, 50-100 rpm rotation
Scenario A: M6.0 Performance Comparison
50 rpm, 6kg load, 30mm driving depth — Twister vs. Benchmark A
Product Torque Index (TI) Holding Index (HI) Efficiency (kgf/kgf-cm)
Twister 100 100 17.5
Benchmark A 75 113 11.6

Test Result Summary

Twister achieves 51% superior driving efficiency while maintaining excellent torque control, making installation faster and easier.

Scenario B: M5.0 Multi-Brand Comparison
100 rpm, 11kg load, 40mm driving depth — Twister vs. Chipboard Screws
Brand Torque Index (TI) Holding Index (HI) Efficiency (η)
Twister 100 100 32.2
Brand A 91 105 28.0
Brand B 77 129 19.2
Brand C 83 107 25.1

Test Result Summary

Twister delivers the highest driving efficiency (32.2) and best torque control among all tested brands, ensuring consistent, reliable performance.


From the Lab to Your Job Site

These lab-verified results translate directly into tangible benefits across a wide range of common applications for construction screws.

  • Large Surface Areas (Flooring, Wall Panels, Cladding): On large jobs, the lower driving torque significantly reduces operator fatigue and the overall load on drivers. At the same time, the higher holding power helps connections stay tight and secure over time, ensuring steady quality and fewer callbacks from clients.
  • High-Stress Points and Precision Work (Hangers, Doors, Fixtures): In locations that see pull, vibration, or occasional adjustments, high holding power is essential to resist axial creep. If an adjustment is needed, the low driving torque makes the process quick and reduces the risk of damaging or stripping the substrate.
  • Exterior Deck Screws and Façades: Outdoor applications are particularly demanding, as materials constantly move with cycles of moisture and temperature. Using deck screws with higher holding power is critical to ensuring these connections remain secure and safe over years of service.

Achieve Design Targets with Fewer Screws

A significant advantage of using fasteners with superior holding power is the potential to achieve the same design pull-out capacity with fewer screws. This must be confirmed by engineering verification and is subject to local codes, but the principle is sound. 

In representative lab conditions, this translated to an indicative 5–10% reduction in the total screw count. The precise percentage can vary based on factors like substrate species and thickness, embedment depth, moisture content, and design safety factors. The upside is straightforward: less material to buy and ship, quicker installation times, longer battery life on your drivers, and a smaller overall environmental footprint for the project.


Turn lab results into project wins MS Twister

If you’re looking to turn the “low torque + high holding power” combo into day-to-day productivity, Fong Prean’s MS Twister is a practical, well-rounded choice for wood, panels and composite boards.

  • Engineered for Performance: The product's core design is centered on providing low driving torque + high holding power, aligning perfectly with the test outcomes.
  • Unmatched Job-Site Efficiency: The product page notes that its easy-driving nature can lead to up to ~60% improved work efficiency, depending on the specific application.
  • Anti-Splitting Wood Screws for Edge Work: The MS Twister has demonstrated the ability to fasten as close as ~10 mm from timber edges, making it an excellent choice for trim, cladding, and other detail work where splitting is a concern.
  • A Flawless Finish with a Flush Countersunk Head: The specialized MS countersunk head is designed to sit perfectly flush with the material surface while creating minimal burring, which is ideal for applications where appearance matters.
Enhanced Product Card with Hover Effects



Frequently Asked Questions (FAQ)


Q1: What does “low driving torque” mean in screws?
Driving torque is the amount of force your drill needs to turn the screw. A screw with low driving torque is easier to install, requires less effort from the tool, and helps reduce fatigue during large projects.

Q2: Why is “high holding power” important?
High holding power means a screw resists being pulled out once installed. This is critical for long-term safety because wood and other materials naturally expand and contract with temperature and humidity changes. Strong holding power ensures the connection stays secure over time.

Q3: Can using screws with higher holding power reduce the total screw count?
Yes, under proper engineering verification and local code approval, higher holding power can allow you to use about 5–10% fewer screws while still meeting design pull-out targets. Fewer screws mean faster installation, lower costs, and a smaller environmental footprint.

Q4: Where should I use low-torque, high-holding-power screws?
They are ideal for large surface areas like flooring and cladding, high-stress points such as hangers and door fixtures, and outdoor applications like decks and façades where materials move with weather changes.

Q5: What’s the difference between “holding power” and “withdrawal value”?
They describe the same concept. Holding power is the practical term used on job sites, while withdrawal value is the laboratory measurement used in standards. Both explain how resistant a screw is to being pulled out of the material.

 

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