Services

Whether it's an existing structure needing repairs, a proposed future project or dirt that needs retaining, let’s make sure it is BuiltWell.

Residential

    • Foundation Plans

    • Deep Foundation Plans (Helical, Push, Micropile, etc.)

    • Framing plans

    • Structural Details

    • Permit Packages

    • Existing Structure Inspection

    • Existing load capacity determination

    • Structural Drawing Plans and Details

    • Load Bearing Wall Removals

    • Beams and columns (LVL, glulam, steel, etc.)

    • Permit Drawing Packages

    • Garage or ADU Additions

    • Adding doors or windows

    • Adding square footage

    • Stairs relocation

    • Egress Windows

    • Decks and Patios

    • Pop tops (adding a second story on top of the existing house)

    • Crawlspace to basement conversions (adding a basement under an existing house)

    • Engineer Inspections

    • Engineering letters

    • Foundation Inspections (Cracking, Settlement, & Moving)

    • Structural Distress Inspections (Cracks, Slopes, Door Issues etc.)

    • Beams and Columns

    • Water intrusion issues (moisture, humidity, white efflorescence powder, etc.)

    • Fire Damage

    • Cut Trusses

    • Structural Damage (vehicle collision, rock blasting, etc.)

    • Designing foundation repair or restoration plans

    • Bridges for driveways, golf carts and pedestrian

    • Existing condition assessments

    • Repair designs

    • Replacement design

    • New designs

    • Masonry Walls

    • Concrete Walls

    • Timber (6×6, Rail Road Tie, etc.)

    • MSE (Geo-grid mechanically stabilized walls, Keystone, Redi-Rock, etc.)

    • Inspect failing retaining walls (leaning, bowing, cracking, etc.)

    • Building shoring plans

Commercial & Industrial

    • Custom Building Design

    • Pre-engineered Metal Building Foundations

    • Concrete foundations (spread footings, deep foundation pilings, mat foundations, helical piers, push piers, micropiles, pile caps, soil nails etc.)

    • Signs and light pole foundations

    • Guide wire anchors

    • HVAC Support structures

    • Existing Structure Inspection

    • Existing load capacity determination

    • Structural Drawing Plans and Details

    • Load Bearing Wall Removals

    • Mezzanines and lofts

    • Anchorage of industrial storage racks

    • Change of use

    • Professional engineer inspections for structural issues

    • Load bearing wall removal

    • Roof truss damage assessment

    • Seismic, wind, and snow load changes

    • Settlement (cracks, slopes, door issues, etc.)

    • Premises liability safe, unsafe structure determinations

    • Forensics reports

    • Masonry Walls

    • Concrete Walls

    • Timber (6×6, Rail Road Tie)

    • MSE (Geo-grid mechanically stabilized walls)

    • Soil nail and shotcrete (Top down and bottom up construction)

    • Rubble walls

    • Inspect failing retaining walls (leaning, bowing, cracking, etc.)

    • Excavation shoring (top down soil nailed shotcrete, sheet pile, soldier pile, timber lagging, etc.)

    • Building shoring plans

Forensics & Legal

  • Forensic engineering for fire damaged structures involves the systematic investigation of a structure that has suffered damage due to a fire event. The objective is to assess the extent of the damage, and develop a strategic plan for repairs that ensures the integrity and safety of the structure.

    The process begins with a thorough examination of the structures fire damaged area. This includes analyzing burn patterns, materials involved, char depth, loss of member cross section, etc.. Engineers utilize specialized knowledge of fire dynamics, construction practices, and material properties to evaluate how the fire affected the structural components.

    Key elements of the assessment include:

    1. Structural Integrity Evaluation: Engineers assess load-bearing members, including beams, columns, and walls, to determine if they remain structurally sound or require repair.

    2. Material Analysis: A detailed study is conducted on the materials involved, such as wood, steel, and concrete, to understand how they were compromised due to heat exposure. If required testing may be performed on samples to quantify degradation levels.

    3. Code Compliance: The repairs must adhere to local building codes and standards. The forensic engineer will ensure that any proposed repairs or renovations meet these regulations.

    4. Repair Recommendations: Based on the findings, engineers provide recommendations that can range from simple cosmetic repairs to extensive structural reinforcements. The goal is to restore the building to a safe and functional state.

    5. Documentation and Reporting: A comprehensive report is generated, documenting the findings, methodologies, and recommendations. This report can be essential for insurance claims, legal purposes, and informing stakeholders about the situation.

    Overall, forensic engineering plays a critical role in assessing fire damage and facilitating effective and safe repairs, ensuring the long-term viability of affected structures.

  • Forensic engineering in the context of structural construction defect repairs involves the application of engineering principles to investigate failures and defects in structures. This specialized field aims to determine the root causes of issues such as cracks, structural deformation, or overall system failures.

    Forensic engineers analyze the materials, design, and construction processes to identify weaknesses or deviations from accepted standards. Their investigations often include reviewing construction documents, conducting site inspections, and performing tests on the materials involved. This process may also involve collecting data regarding environmental factors that could have influenced the structural integrity.

    Once the investigation is complete, forensic engineers prepare detailed reports outlining their findings. These reports typically include a description of the defects, the methodology used for the investigation, and recommendations for repair or remediation. They may also provide insights on how to prevent similar defects in the future, emphasizing the importance of proper design, construction practices, and maintenance.

    Collaboration with contractors, architects, and legal professionals is essential during this process. Forensic engineers often serve as expert witnesses in legal proceedings, providing clarity on complex technical issues and supporting claims related to negligence or warranty disputes.

    In summary, forensic engineering plays a critical role in diagnosing and resolving structural defects, ensuring that buildings meet safety standards and serve their intended purposes effectively.

  • When determining the cost to cure a construction defect, it is crucial to include all costs including hidden costs your repair contractor may not have told you about. It is best to have a engineer on your side to help you identify all the costs before you provide a number to the other party. The following outline provides a basic framework for calculating a cost to cure estimate:

    1. Assessment of Conditions: Evaluate the existing conditions requiring remediation or repair. This may include structural issues, deferred maintenance, or regulatory compliance needs.

    2. Scope of Work: Identify the specific repairs required. This could range from minor cosmetic fixes to major structural repairs.

    3. Material Costs: Estimate the costs of materials needed for the identified repairs. Sourcing current market prices for materials can provide a more accurate estimate.

    4. Labor Costs: Assess the labor required to complete the work. This should include the rate for skilled workers, unskilled labor, and potential overtime costs if the work is urgent.

    5. Permit and Inspection Fees: Include any potential costs for permits or inspections required by local authorities. Ensure permit expectations are discussed with your repair contractor bidders before comparing bids.

    6. Contingency Fund: It is advisable to include a contingency fund of around 10-15% of the total estimated costs to account for unexpected expenses that may arise during the project.

    7. Timeline for Completion: Estimate the duration of the work, as this may affect labor costs and project management expenses.

    Conclusion: Including these components will yield a comprehensive cost to cure estimate.

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