Description
Maxisafe Full Body Harness w/ Front & Rear Attachment Points (ZBH902H)
The Maxisafe Full Body Harness w/ Front & Rear Attachment Points is a versatile, lightweight fall‑arrest harness designed for general height‑safety applications including roofing, EWP use, scaffolding and stock‑picker operations. Independently tested and certified by BSI to AS/NZS 1891.1:2020 and AS 1891.5:2020, it provides reliable protection for workers operating in environments where falls are possible.
The harness features a rear adjustable fall‑arrest dorsal D‑ring, fitted with an AS1891.5:2020 compliant shock‑absorbing lanyard, and frontal fall‑arrest loops (to be used together) for additional connection options. Adjustable chest, side and leg straps ensure a secure, personalised fit, while the snug‑fitting sub‑pelvic strap distributes load evenly during a fall‑arrest event.
Constructed from high‑strength polyester webbing with interlocking push‑through buckles, the harness offers durability and ease of use. Lightweight ergonomic design improves comfort during extended wear, making it suitable for a wide range of height‑safety tasks.
Rated for 60–140 kg (user + tools), the harness is compatible with Maxisafe shock‑absorbing lanyards, inertia reels and approved anchorages.
Features & Benefits
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Rear adjustable fall‑arrest dorsal D‑ring
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Frontal fall‑arrest loops (must be used together)
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Adjustable chest, side & leg straps for proper fit
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Snug‑fitting sub‑pelvic strap for load distribution
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High‑strength polyester webbing
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Interlocking push‑through buckles
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Lightweight ergonomic fitting design
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Supplied with AS1891.5:2020 compliant shock‑absorbing lanyard
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Meets & tested to AS/NZS 1891.1:2020 and AS1891.5:2020
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Certified by BSI
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Standard size range: M – 2XL
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Expiry: 10 years from date of manufacture
Capacity
60–140 kg (user + tools) (Harness capacity follows the rating of the shock‑absorbing lanyard or inertia reel used.)
Compatibility
Maxisafe harnesses must be used with compatible connectors to ensure connection is maintained under high gate‑loading forces.
