RomanBloc™: UPSA Roman Concrete Technology

Stronger than your average block!

• Only building material forming a monolithic skeletal substructure
• Meeting ASTM, ULC, WUFI, and EN testing*
• 100-year minimal design life
• ClimatBloc requires no wood or steel stud construction
• Many times stronger than nominal residential building specifications 
• Heaviest load-bearing capability of any residential or light commercial product
• Post-tensioned for structural resiliency during climatic or seismic events
• Hurricane resistant to 400-MPH
• Tornado resistant to 400-MPH 
• Earthquake resistant
• High Thermal Mass – up to R-40 [without any wall insulation or vapor barrier]
• Moisture Regulation is built into every block
• Fireproof – will not ignite up to 2800-F 
• Thermoset frame will not distort during a fire episode
• 2 hour ASTM fire rating
• No smoke 
• No flame spread
• Mold & Mildew resistant 
• Antibacterial 
• Insect/Termite proof
• Pest resistant 
• Zero off-gassing 
• Provides superior interior acoustics while absorbing outdoor noise
• Can be hand-assembled (with most surround materials), is ultra-lightweight
• Breathable home construction product that purifies air and prevents Asthma 
• No dry rot, no warping, no creaking 
• Gains strength over time
• When combined with geothermal, solar, or wind power generation—a residential structure built with ClimatBloc can store power with the optional BatteriBloc—a ClimatBloc made to store energy, making the entire residential structure into a battery storage device. 
• Ballistic-resistant and bulletproof models are also available optionally
• Lightweight can be assembled by hand

1. Origins of Roman Concrete: Roman concrete, opus caementicium, was a revolutionary building material developed over 2,000 years ago. It was composed of volcanic ash (pozzolana), lime, and seawater.

2. Key Ingredients: The mixture of volcanic ash, lime (quicklime and slaked lime), and aggregates like stone fragments created a highly durable material that could set underwater, ideal for port structures and harbors.

3. Durability Mystery: The durability of Roman concrete has fascinated scientists for centuries. Many Roman structures, like the Pantheon and aqueducts, have lasted through earthquakes, erosion, and the elements.

4. Hot Mixing Technique: Recent studies reveal that the Romans employed a "hot mixing" technique, using quicklime to generate heat during the concrete's preparation. This contributed to the creation of lime clasts, an essential element of the material's self-healing properties.

5. Lime Clasts and Durability: The lime clasts in Roman concrete were sources of reactive calcium, which could continue to react with water over time, filling cracks and voids in the material and contributing to its longevity.

6. Chemical Analysis Advances: Modern analysis techniques, such as multiscale correlative elemental and chemical mapping, have provided new insights into how these lime clasts were retained in the Roman mortar, enhancing the durability of ancient structures.

7. Self-Healing Properties: Inspired by the ancient technique, modern researchers have discovered that lime clast-containing mixtures can self-heal, as reactive calcium fills in cracks over time, extending the life of concrete structures.

8. Roman Concrete's Legacy: The Romans' knowledge of material science, especially using volcanic ash and lime, created some of the most enduring structures in history and influenced modern construction methods.

9. Modern Applications: Today, scientists and engineers are revisiting Roman concrete techniques to develop sustainable and durable concrete formulations that could reduce the construction industry's carbon footprint.

10. Resurgence in Modern Engineering: By incorporating lime clasts and optimizing the mix with modern materials, engineers aim to create a new generation of self-healing concrete that could revolutionize infrastructure resilience and sustainability, bringing Roman innovation into the 21st century.