Five St Philips, Birmingham, West Midlands, B3 2PW

Description
Five St Philips is undergoing a complete refurbishment. Behind the exquisite neo-classical exterior, its interiors will offer modern workspace, open-plan working, state of the art facilities and external terracing.
Protection of heritage and the re-imagination of space has been at the core of the design. The architects have delivered a design which seeks to minimise the embodied carbon footprint through a process of refurbishment over demolition.

With impressive double-height ceilings, a communal business lounge and high quality finishes, the sleek reception delivers a striking first impression for occupiers and clients. 30 sq m of uninterrupted terracing overlooking Birmingham’s most prestigious square, and the city’s best dining options only moments.

Combining contemporary, elegant design, and market leading credentials, Five St Philips delivers the highest standards of wellbeing and connectivity to the heart of Birmingham.

• Well Being Standard V2 Gold
• Energy Efficiency Rating - Target B
• LETI 2030 Design Target Band A
• WiredScore - Platinum
• SMART Enabled
• BREEAM - Excellent
• Designed for Performance
• Fitwel Enabled
• NABERS Accredited

WELLNESS - A refurbishment with wellness at its core, providing the foundations for a highly productive and healthy work life for occupiers.

SUSAINAILITY - By working with the existing structure, the refurbishment will provide huge embodied carbon savings over a new office development.

SMART ENABELED - The building will provide a contemporary working environment with the highest levels of connectivity accreditation.

Location
Birmingham’s city centre certainly doesn’t fall short when it comes to local amenities, with everything from a wide range of dining options, rich culture and the very best of shopping, to bars, events, activities and green spaces.

Situated minutes away from some of the most connected train stations in the country, any destination is possible. 45 mins away from London with the introduction of HS2.