JMVC Consulting Structural Engineers

Wood frame connections using bolted plates 🛠️ offer robustness and flexibility in construction. These connections typically involve joining wood members using steel plates with pre-drilled holes, secured with bolts. This method ensures structural integrity, facilitates assembly, and supports various design loads effectively.

Lighting the way! 🚧 Our team is also currently engaged in the structural design of a 100ft tall lighthouse and a state-of-the-art prefabricated metal sheet arched storage facility in Texas, USA.

This project underscores our commitment to precision, durability, and engineering excellence. Stay tuned for more updates!

Exciting progress! 🚧 Our team is currently working on the structural design of a state-of-the-art private hangar in Arizona, USA. This project highlights our dedication to safety, innovation, and engineering excellence. Stay tuned for updates! ✈️

Lessons Learned from Past Earthquakes:

Building codes and standards are critical for earthquake resilience. The 1994 Northridge earthquake in California revealed weaknesses in building practices, leading to stricter codes that ensure structures can better withstand seismic forces.

Retrofitting older structures is essential. The 1989 Loma Prieta earthquake in San Francisco showed that many older buildings were vulnerable, prompting widespread retrofitting to meet modern seismic standards and protect occupants.

Effective emergency response planning reduces chaos and saves lives. The 2011 Tōhoku earthquake in Japan highlighted the importance of coordinated emergency plans, which were instrumental in mitigating the disaster's impact.

Public education on earthquake safety significantly reduces injuries and fatalities. Programs like the Great ShakeOut drills teach people how to react during an earthquake, improving public safety through education.

Early warning systems provide crucial seconds to take protective actions. During the 2011 Tōhoku earthquake, Japan’s early warning system allowed residents to seek cover, preventing many injuries and deaths.

Resilient infrastructure is vital for maintaining critical services. The Christchurch earthquakes in New Zealand underscored the need for hospitals, bridges, and utilities to remain operational, prompting investments in strengthening these key facilities.

Community preparedness enhances resilience and recovery. In Kobe, Japan, strong community networks and preparedness programs improved response and recovery after the 1995 earthquake, demonstrating the importance of local involvement.

Incorporating seismic risk into land use planning can prevent disasters. The 2008 Sichuan earthquake in China highlighted the dangers of building in vulnerable areas, leading to better planning practices that consider seismic risks.

Financial mechanisms like insurance and disaster relief funds are crucial for recovery. After the 1995 Kobe earthquake, Japan developed robust financial support systems to aid recovery efforts, helping communities rebuild more quickly and effectively.

International collaboration and sharing best practices improve global earthquake preparedness. The response to the 2004 Indian Ocean earthquake and tsunami led to better disaster preparedness and early warning systems worldwide, showcasing the benefits of global cooperation.

By learning from these experiences, we can better prepare for future earthquakes, minimize damage, and enhance our ability to respond and recover. Building safer structures, educating the public, planning effectively, and fostering global cooperation are key steps toward a more resilient future.

Portcullis House, London

The timber frame atrium of Portcullis House is a striking architectural feature that blends sustainability with design innovation. Constructed from engineered timber, it reduces the building's carbon footprint while creating a warm, inviting atmosphere. The atrium floods the interior with natural light, promotes energy efficiency, and facilitates natural ventilation, showcasing how modern architecture can integrate sustainable materials with functional design.

References:
https://www.hopkins.co.uk/.../civic-and.../portcullis-house/
https://issuu.com/finbarcharleson/docs/thesis

Excited to share that we've just wrapped up the structural design for a state-of-the-art automated car wash building to be constructed in Florida, USA! 🚗✨

Proud of our team's dedication and innovative approach to making this vision a reality.

Can't wait to see this project come to life!

🌟 Exciting News! We've Successfully Completed the Structural Design of a Large Commercial Complex in Darlington, UK! 🏢🌍

We are thrilled to announce the successful completion of our latest project: a large commercial complex featuring a basement and superstructure steel frames totaling over 400 metric tons! 🛠️✨

Key Highlights:
🔹 Located in Darlington, UK
🔹 Hollowcore Floor Slabs
🔹 Portal Steel Frames
🔹 Innovative Structural Design
🔹 Basement Construction for Enhanced Utility
🔹 Over 400 Metric Tons of Steel Frames

Our team's expertise and dedication have ensured the highest standards of safety, efficiency, and sustainability throughout the project.

Stay tuned for more updates on our projects! 🏗️💼

A state-of-the-art steel frame retail development designed for modern convenience and sustainability. This innovative structure to be constructed in Oklahoma City, USA, promises to redefine retail spaces with its sleek design and robust construction.

Key Features:
🔹 Advanced Steel Frame Technology
🔹 Sustainable Design Principles
🔹 Spacious Layouts for Enhanced Customer Experience

Behind every beam and blueprint, our dedicated team is working tirelessly to bring innovation and precision to each project. From concept to construction, collaboration, and expertise drive every decision.

Retail Development - JMVC Consulting Structural Engineers We specialize in commercial and residential building structural design and engineering at an affordable and sustainable cost.

We are thrilled to share the successful completion of our latest steel frame structural design project to be constructed in Middlesbrough, UK

Our team at has delivered exceptional structural solutions, ensuring safety, efficiency, and innovation every step of the way.

This project marks another milestone in our commitment to engineering excellence and client satisfaction.

We're thrilled to announce the successful completion of the structural design phase for this Two-Story Nursery Building to be constructed in Greater Manchester, England

Our team has meticulously crafted a solid framework that ensures safety, efficiency, and structural integrity of this project.

A Two-Story (5,709 SF) Residence in CA

This beautiful two-story home will feature an attached 3-car garage, 5 Bedrooms, 5 Bathrooms, and Covered Patios sitting on a 1.34-acre lot.

To our valued clients,

We wanted to let you know that will be closed on July 4-6 for our team's annual team-building event. We'll be back refreshed and ready to serve you on July 8. 🙂

Thank you so much for your understanding and ongoing support!

RC beam-to-column reinforcements:

Proper reinforcement detailing at beam-to-column connections is essential to ensure the overall structural integrity and performance of RC buildings under various loading conditions. Detailed structural analysis and adherence to code requirements are necessary to achieve safe and durable structures.

SUSTAINABLE DESIGN:

Sustainable structural design aims to minimize environmental impact and optimize resource use throughout a structure's lifecycle. Key principles include using eco-friendly materials, enhancing energy efficiency, ensuring durability, reducing waste, conserving water, and considering local contexts. Designers also focus on adaptability, resilience to climate impacts, and following green building standards to create structures that are efficient, long-lasting, and environmentally responsible.

We're thrilled to announce that has just secured yet another project in CA.

We're grateful for the opportunity to work on this exciting venture and look forward to bringing it to life!

NOW HIRING:
- CAD Operators (WFH)

For more info visit us:

https://www.jmvccse.com/careers/

https://www.jmvccse.com/

Diaphragm with Horizontal Offsets
- Ever wonder what's going on in a floor diaphragm sheathing?

Diaphragm sheathing typically refers to the material used to create a structural diaphragm in buildings, which helps distribute lateral forces (such as wind or seismic loads) to the vertical resisting elements (like walls or frames). This sheathing is an essential part of the building's structural integrity and performance during adverse conditions.

Common materials used for diaphragm sheathing include:

Plywood: This is a traditional choice due to its strength, stiffness, and availability in various thicknesses. Plywood panels are often installed with their grain direction perpendicular to the supporting framing members for optimal performance.

OSB (Oriented Strand Board): OSB is another popular option. It is made from compressed layers of wood strands and resin, providing good structural strength and dimensional stability.

Composite Panels: Some advanced panels combine materials like wood fibers or strands with cementitious or synthetic binders to achieve specific performance characteristics, such as improved fire resistance or moisture resistance.

The selection of diaphragm sheathing material depends on factors such as structural requirements, local building codes, cost considerations, and specific environmental conditions (such as moisture exposure). Proper installation and detailing are crucial to ensure the diaphragm functions effectively in transferring lateral loads to the building's vertical elements.

MASS TIMBER CONSTRUCTION:
- refers to a type of building construction that utilizes large prefabricated wood panels for structural elements. Unlike traditional wood framing, which uses smaller pieces of lumber, mass timber construction involves the use of engineered wood products that are manufactured by bonding together layers of solid-sawn lumber, veneers, or strands. The resulting panels are strong, stable, and capable of supporting significant loads, making them suitable for constructing buildings of considerable height and size.

Key types of mass timber include:

Cross-laminated timber (CLT): This consists of layers of lumber boards stacked in alternating directions and bonded with structural adhesives. CLT panels are exceptionally strong and stiff, allowing them to be used as walls, floors, and roofs in buildings.

Glued laminated timber (glulam): Glulam beams are made by gluing together multiple layers of dimensioned lumber to create larger structural elements. These beams are often used as columns and beams in buildings, offering high strength and versatility.

Laminated strand lumber (LSL) and laminated veneer lumber (LVL): These are engineered wood products made from strands or veneers of wood glued together under heat and pressure. They are used in various applications, including beams, columns, and wall studs.

Advantages of mass timber construction include:

Environmental sustainability: Wood is a renewable resource, and mass timber construction can contribute to reduced carbon emissions compared to concrete and steel construction.

Speed of construction: Mass timber components are often prefabricated off-site, allowing for faster on-site assembly and construction.

Aesthetic appeal: Wood offers a warm and natural appearance that is increasingly desired in modern architecture.

Structural performance: Mass timber panels are engineered to be as strong as or stronger than traditional building materials, allowing for tall and robust buildings.

Fire resistance: Mass timber panels can be designed to have good fire resistance through charring, which insulates the inner layers of wood.

Mass timber construction has gained popularity worldwide as architects, engineers, and builders seek sustainable and efficient alternatives

We are HIRING:
- Structural Design Engineers (WFH)

For more info visit us:

https://www.jmvccse.com/careers/

https://www.jmvccse.com/

Wood Frame with Steel Brackets

Structural Systems for Tall Buildings

Bridging the Gap
A Hybrid Structural Solutions for Linked Extra Tall Towers

Presented by Engr. Danilo Aquino during the 5th ISSEP Technical Conference

Our newest design guide (free for members to download!) is a comprehensive resource for expertly designing for ponding on roofs constructed with structural steel, open web steel joists, and joist girders.

Design Guide 40: Rain Loads and Ponding provides guidance for avoiding or resisting water accumulation and any resulting instability in roof systems. It includes an in-depth review of rain loads and ponding effects to help professionals properly and efficiently design for ponding on roofs constructed with structural steel, open web steel joists, and joist girders.

This design guide is a joint effort between AISC and the Steel Joist Institute.

Visit aisc.org/dg40 to download the guide today!