FOUNDATION INSPECTION AND CIVIL ENGINEERING CONSULTING

BUILDING SETTLEMENT

Lucy Engineering Inc. is an engineering company that provides Foundation Inspection and civil engineering consulting services around Houston, Texas. We have extensive experience in home inspections, identifying foundation cracks, structural inspections, calculating beam sizes to replace bearing walls for renovations, and designing new homes from the ground up. We do it all. As a Civil engineering consulting company, our mission is to deliver certainty to clients facing challenges by presenting science-based facts and evidence and collaboratively solving challenging technical problems. We strive to have the expertise for any need that may arise and to teach and educate when and where we can to develop them.

Settlement is the downward movement of the ground (soil) when a load is applied to it.  The load increases the vertical effective stress. This stress increases the vertical strain in the soil. This increase in vertical strain causes the ground to move downward.

  • Most buildings settle over time after construction
  • Most building settlement occurs during the first few years, unless there are changes in the drainage patterns or severe changes in weather
  • Ongoing settlement is uncommon

Differential Settlement VS Uniform Settlement

Differential settlement commonly occurs due to the non-uniform movement of the underlying soils. Results in cracking of the foundation, exterior cladding, and interior finishes. "Tipping settlement" (or tilting) occurs when one side or corner of a building's foundation sinks deeper than the rest, causing the entire structure to lean. Uniform settlement – The entire foundation settles at a constant rate. Usually, there is little to no cracking during uniform settlement.

Causes of Settlement

1. Soil Consolidation due to applied load or natural consolidation. (Soil consolidation occurs when loaded soil experiences a reduction in voids or spaces between soil particles as moisture is expelled.) 2. Changes in moisture content of soil (Causes shrink/swell effects on soil; Loss of moisture causes consolidation; When there is a buildup of moisture, the foundation soils will saturate leading to soft, weak clays and silts. The soil will then lose it’s load bearing capabilities, the foundation will sink and settlement will occur)

How to Identify Settlement

Cracks in the interior sheetrock; cracks on the exterior brick wall, especially around openings like doors or windows; cracks on the floor; wall leaning in or out; cracks on the foundation; leaning piers or block; Misaligned doors and windows.

Why does Settlement happen?

1. Weak bearing soils; 2. Improperly backfilled soils/poor compaction; 3. Changes in moisture content (Poor drainage around building; Raised groundwater table; Irregular rainfall or draught; Seepage from plumbing leak or swimming pool); 4. Mature trees close to the building; 5. Adding additional weight to the structure

Lucy Engineering Inspection includes exterior inspection, interior inspection, structural system inspection, and foundation inspection. As a Structural Engineer, we will inspect your home and provide you with a better, cost-effective solution to your structural problems. If you are a real estate agent and need help in civil or structural engineering, please contact us. As Structural Engineers who design and evaluate foundations, we will inspect your home and provide you with a better, more cost-effective solution to your structural problems. As licensed Professional Engineers, our knowledge of structures, both in field inspection and design, sets us apart from our competitors, enabling us to provide feasible and cost-effective solutions to any problem encountered. When engaging an engineer, your first choice should be one who specializes in Civil-Structural engineering design and has experience with foundation performance evaluations. If there is a foundation problem, it will show up on the walls, ceiling, floors, etc. I recommend calling a structural engineer for an inspection to get peace of mind. Structural Engineers have the knowledge to assess the structural integrity and foundation performance of the house. In addition, structural engineers use instruments to check the difference in foundation elevation of the house. Based on the elevation reading, collateral indicators of settlement,  and engineering knowledge, the structural engineer will evaluate and give you a recommendation.

Hiring a structural engineer provides independent, expert insight into the condition, safety, and performance of a building. Structural engineers assess how key elements—such as foundations, walls, beams, floors, and roofs—are functioning and whether they can safely support current and future loads.

Structural engineering services are valuable for:

  • Homeowners and property managers who want to ensure the ongoing safety and stability of their buildings through detailed home inspections and structural surveys. A comprehensive building inspection can identify potential issues before they become significant problems.
  • Real estate agents and property buyers seeking professional assessments that provide confidence during property transactions and help identify hidden structural concerns before purchase.
  • Commercial landlords and tenants who need to confirm that premises remain safe, compliant, and capable of accommodating changing operational or occupancy demands.
  • Insurance companies requiring documented evaluations of structural damage, settlement, fire, water intrusion, or overall building condition to support claims and risk assessments.
  • Building contractors and developers who need structural engineering expertise for design validation, construction compliance, renovations, additions, or post-construction verification.

A structural engineer can also help:

  • Identify cracks, movement, or settlement issues
  • Evaluate load-bearing walls before renovations
  • Assess storm, fire, or water damage
  • Support permit applications and code compliance
  • Recommend repair strategies and long-term maintenance solutions
  • Provide formal reports for legal, insurance, or financing purposes

By identifying risks early and providing technically sound recommendations, structural engineers help protect occupants, reduce long-term repair costs, and support informed property decisions.

 

Foundation Investigation

At Lucy Engineering, we have the experience needed to effectively investigate and analyze the structural integrity of foundation systems and provide a cost-efficient solution.  The causes of foundation failures are typically less apparent than most other engineering investigations.  We have worked in and around the Houston, Texas area for years, and we understand that a solution to the underlying issues is more important than fixing only the cosmetic problems.  Be aware that if the cause of the foundation’s movement is not corrected, it will continue to move and crack.
Signs of Foundation Failure
Inside the House:
  • Misaligned doors and windows
  • Cracks in the sheetrock
  • Doors and windows that stick
  • Sloping of the floor
  • Cracks in the floor or tile
Outside the House:
  • Cracks in the brick
  • Gaps around the doors and windows
  • Cracks in the foundation
  • Fascia board pulling away
Garage:
  • Separation from the door
  • Wall rotating out
  • Cracks in the brick or concrete
Basement of the House:
  • Walls leaning in or out
  • Cracks in the poured concrete or block walls
  • Water leakage through cracks at the base of walls
 
What is the cause of Foundation Problems?
 
  • Improper Ground Preparation: In most cases, site preparation includes properly removing inadequate soils from the site, usually the top several inches.  This allows the house to be built on original, undisturbed ground.  However, the site sometimes requires fill dirt to level the building foundation.  If this material is not properly compacted, it can settle.  This settlement causes foundation failures and interior cracks in homes.
  • Evaporation: Due to fluctuations in day-to-day weather conditions, the soil can experience expansion and contraction due to changes in moisture levels.  As moisture evaporates from the soil, the soil contracts, and the foundation settles.  When moisture returns through rainfall, the soil swells again.  This type of foundation problem is cyclic, meaning the building will experience settlement and then uplift, depending on current soil conditions.
  • Water Table Level: Unlike evaporation, changes in the water table happen less quickly under normal circumstances.  Typically, due to seasonal changes or more gradual short-term climate shifts in the area.  These foundation issues are more difficult to diagnose due to their slow progression.
  • Transpiration: Trees, large plants, or large amounts of vegetation require large amounts of water.  If planted too close to the foundation, water will be drawn from the soil, causing foundation settlement.
  • Plumbing Leaks: Leaking pipes typically cause very location-specific problems.  The area near the leak can experience significant soil and foundation movements.  Depending on the severity of the leak, the problem can progress to significant foundation cracking and failure if left untreated.
  • Inadequate Foundation Construction: Foundation construction techniques vary widely depending on the age, location, and type of building.  This introduces problems that require the analysis of a licensed professional engineer to determine the adequacy of the foundation.  Investigations should be made to determine the size and material of the foundation.
  • Poor Soil Conditions: Soil conditions vary based on the general location of the building.  However, soil conditions can vary drastically from one property to the next.  Underlying issues within the soil can also affect its overall stability.  Sometimes, hidden layers of inadequate soil lie beneath upper layers of acceptable material.
  • Improper Drainage: Drainage is a key concern on most properties.  Watershed should be accomplished in most cases through an adequate grade near the building.  Another common issue is gutter downspouts draining near the foundation.  This adds excessive water near the foundation, which will cause foundation movement, among other problems.  Other issues include the type of decorative item that could retain water after rain.

Structural Repair Methods

 

Foundation repair using piers is a method for stabilizing and sometimes lifting a settling foundation by transferring the building’s load to deeper, more stable soil or bedrock.

Common types include:

  • Push piers (resistance piers) — steel tubes hydraulically driven into the ground using the structure’s weight as resistance. Often used for heavier homes or commercial buildings.
  • Helical piers — screw-like steel shafts twisted into the soil. Good for lighter structures, porches, additions, and areas where soil conditions vary.
  • Concrete piers — drilled or poured concrete supports, sometimes called drilled shafts or bell-bottom piers.
  • Slab piers — specialized piers installed through or beside a concrete slab foundation.
 
Wall Tiebacks are commonly used to restore structural integrity to basement or retaining walls that have been over-stressed or overloaded by lateral earth pressures.  As the wall begins to bow under the earth and soil pressures, it begins to crack horizontally.  There are many less invasive techniques that may be introduced to prevent or reverse further wall movement, however the wall tieback system is highly regarded as the best alternative under most conditions.
 
Wall tiebacks are basically rods that are anchored into the ground.  There are many different techniques that have been successfully used in the past for rod anchoring.  In most cases this requires digging behind the wall for securing the anchors.  Metal rods are inserted through holes in the walls, then directed to an excavated area of the yard where a large plate can be attached.  This plate is what produces the pullout resistance.  The metal rod has another plate at the wall end, which is secured by a nut and bolt assembly that can be tightened until the wall has reached its desired position.
 
Waterproofing and drainage are very important factors in the overall durability and structural integrity of soil retaining walls.  To begin, there are typically two methods for reducing water flow through a wall, waterproofing and damp-proofing.  Damp-proofing is a method used on less sensitive walls, which is basically a painted or sprayed material that sticks to the wall and once dry, increases the water resistance of the wall.  The second method, waterproofing, is a technique that uses a membrane (as shown to the right), which when installed properly, prevents water from passing to the wall completely.  The method of water prevention will depend on the sensitivity of the interior space and the wall use.
 
Drainage is key to a successful and long lasting wall design.  When water accumulates behind a soil retaining wall, unexpected pressure builds and may crack the wall allowing water to pass through.  However, if the wall is properly waterproofed and has improper foundation drainage, the structural integrity of the wall may be comprised.  Therefore, it is always a good idea to consult a professional engineer before construction begins or anytime after if you suspect an issue.
 
 
How can I best maintain my foundation?
Following these common sense steps could save you thousands of dollars in foundation repairs.
 
During the rainy season:
Check your drainage around your property. Wait until a hard solid rain (not just a sprinkle), then walk around your house and see if the runoff water is draining away from your foundation without standing or puddling. If you see puddling that’s a problem, the solution is a positive watershed. A positive water shed exists when the dirt is higher at the foundation and slopes away from the house at the minimum rate of one inch per foot and extends past the roofline. If your house has gutters, be sure they are free from obstructions and that the down spouts direct the water away from the house past the roof line. Do not build a dam around your house with landscape timbers, concrete trim, sidewalks or metal trim, that will prevent proper drainage. Fixing a severe problem could include cutting a depression in the ground to direct the water or installing a drain system. Remember, too much water is just as bad as not watering in the dry season.
 
During the dry season:
The ideal way to maintain a constant moisture level around your foundation is to use an automatic sprinkler system with a rain gauge cut off. You can also use a soaker hose positioned 18 inches from the foundation. Turn on the water until you see it form a standing puddle on the ground. The expansion of the soil will provide uniform support for the foundation. Watering should be repeated when drying cracks are observed or when soil is clearly too dry. Do not put a hose in big cracks and try to water the foundation. This can cause additional damage. You may find that the south and east sides of the house will require more watering. Remember… the goal is moisture uniformity on all sides.
 
Trees and shrubs: As a rule of thumb, trees should be planted a distance equal to their mature height from the house. Trees planted too close to the house rob moisture from the soil, allowing the dirt to shrink causing foundation problems.
 
FOUNDATION PROBLEMS

Concrete blocks or Pier

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Exterior Cracks

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Interior crack

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FOUNDATION REPAIR METHODS

PIER AND BEAM LEVELING

Hydraulic jacks are used to lift the framing to level the building. (Jacks need to sit on a strong foundation) Steel shims are placed between the piers and the framing to keep the house level.

HELICAL PIERS LEVELING

Typically used to jack up footings; Can be expensive; Typically spaced approximately every 5 feet along the foundation.

SLAB LEVELING

Mudjacking (Use of flowable concrete or grout to raise slabs) Polyurethane Foam (Use of a closed-cell foam to raise slabs; Typically more expensive, but stronger and last longer than mudjacking; Will not retain moisture; Light, will not add any additional weight to soils.)

FOUNDATION INSPECTION TYPE

Based on the American Society of Civil Engineers' recommendation, the foundation investigation has three levels.

LEVEL A INVESTIGATION

A Level A investigation is one of first impressions. This type of investigation requires the following actions:
  • Interview the occupant, owner and/or client, if available, regarding a history of the property and performance of the structure,
  • Document visual observations made during a physical walk-through, and
  • Observe factors influencing the performance of the Foundation.
 

LEVEL B INVESTIGATION

In addition to the items included in a Level A investigation, a Level B investigation requires the following actions:
  • Review pertinent documents including geotechnical reports, construction drawings, field reports, repair documents,
  • Determine relative Foundation Elevations to assess levelness and establish a baseline,
  • Document locations of large trees and other vegetation,
  • Determine whether site drainage issues exist,
  • Document the analysis process, data and observations, and
  • If requested by the client, provide a report containing a list of the reviewed documents, an Survey Elevation Plan, and a phenomena plan in addition to the report requirements listed under Level A.

LEVEL C INVESTIGATION

In addition to the items included in Level A and Level B investigation, a Level C investigation includes additional services, and testing deemed appropriate by the Engineer. These would include, but are not limited to, the following:
  • Site specific soil sampling and testing,
  • Hydrostatic leak test, with leak location and flow test if applicable,
  • Material testing,
  • Post tensioning cable testing or steel reinforcing survey, and
  • Aerial photographs to determine prior land usage or construction issues.
  • Scaled drawings,
  • Description of factors that affect soil moisture,
  • Observations of cut and fill,
  • Site Photographs,
  • Detailed Phenomena Plan, and
  • If requested by the client, provide a report per the requirements under Level B, incorporating the above data.

Lucy Engineering provides two types of services:

1. Type A Inspection with one-page written report.

2. Type B Inspection with a fully detailed written report and drawing that includes the relative foundation elevation record.

FOUNDATION INSPECTION

Our foundation engineers have a great wealth of experience in evaluating home inspections and foundation cracks. When engaging an engineer during a real estate transaction, your first choice should be one who specializes in Civil-Structural engineering design and has experience in foundation performance evaluations. If there is a foundation problem, it will show up on walls, ceilings, floors, etc. Hence, it is better to call an engineer for inspection to get peace of mind. Lucy Engineers have the experience, training, and education to help you as a foundation inspection expert on residential and commercial building damage assessments. Lucy Engineers have the knowledge to assess the structural integrity and foundation performance of the house. In addition, Lucy Engineering engineers use an instrument to check the foundation elevation difference of the house. Based on the elevation reading, collateral indicators of settlement,  and engineering knowledge, the engineers will evaluate and give you an unbiased professional report.

NEW CONSTRUCTION INSPECTION

Our construction engineers have a wealth of experience in new construction inspection. New construction inspections ensure your new home meets safety, structural, and building code standards.  The minimum required new construction inspection includes inspection of footing excavations and reinforcement material (steel reinforcement) for concrete footings before placement of concrete; inspection of preparatory work before placement of concrete; inspection of structural members and fasteners before concealment; inspection of electrical, mechanical (HVAC), and plumbing materials, equipment, and systems before concealment; inspection of energy conservation materials (insulation) before concealment; final inspection (once all work is complete). Experience, Training, and Education are key to ensure your new home meets safety, structural, and building code standards. Lucy Engineering engineers have the experience, training, and education to help you as a new construction inspection expert on residential and commercial building inspection.

RESIDENTIAL BUILDING DESIGN

Our building designers and engineers have a wealth of experience in residential building design. Our Experience, Training, and Education are key to designing residential buildings. Lucy Engineers have the experience, training, and education to help you as a residential building designer.

COMMERCIAL BUILDING DESIGN

Our building designers and engineers have a wealth of experience in commercial building design. Experience, Training, and Education are key to designing a commercial building. Lucy Engineers have the experience, training, and education to help you as a commercial building designer.

Our method of evidence collection

Lucy Engineering requires its engineers to provide more evidence. Lucy Engineers will perform a leak test that complies with AAMA 501.2 to confirm the source of the leak and collect additional evidence. Instead of doing only observation, our engineers will confirm the leak through this method. If you get more evidence, your report will be more solid. We require our engineers to get more evidence using an approved method. For foundation inspection, our engineers will also use the Zip level to take elevation readings as evidence for any foundation issues. We also use more methods, like Thermal Imaging Services, to resolve any claims by revealing the facts scientifically. We also train our engineers to comply with our requirements.
Rated 5 out of 5
Lucy Engineers will perform leak test that will comply AAMA 501.2 to confirm the source of leak as a means of collecting more evidence. Instead of doing only observation, our engineers will confirm leak through this method.
Roof and wall Water Leak Test using AAMA 501.2
Rated 5 out of 5
Zip Level will hep to read the elevation of the floor to understand the foundation settlement in the building! Instead of doing only observation, our engineers will confirm the settlement through this method.
Foundation Inspection using Zip Level
IMG 4262
Rated 5 out of 5
Lucy Engineers will use Thermal imaging services to identify the source and cause of water damage to residential or commercial buildings.
Thermal Imaging Service
FAQ

Forensic engineers are specialized licensed professionals who investigate the root causes of failures, document and analyze physical evidence, determine causation, prepare detailed reports, and serve as expert witnesses in dispute resolution, insurance claims, and litigation. Failures may result from design flaws, material defects, poor construction, improper maintenance, or human error.

Structural engineers design buildings and structures to safely resist and transfer loads while meeting applicable building codes and safety requirements. Structural engineering is primarily preventive and predictive — calculating how structures should behave under loads such as gravity, wind, earthquakes, and occupancy.

Forensic structural engineers investigate buildings or structures after damage or failure to determine the cause and sequence of events that led to the failure. Forensic engineering is primarily investigative and analytical — examining what actually happened after distress, collapse, cracking, fire, corrosion, or other failures.

Many forensic structural engineers were originally trained and worked as structural engineers before specializing in investigations.

Forensic engineers gather and analyze many types of information to determine the cause of a structural failure, accident, or defect. This typically includes:

  • Physical evidence from the site
  • Site conditions at the time of the incident
  • Documentation and reports available
  • Original building plans and design drawings available
  • Maintenance and inspection logs available
  • Weather conditions before and during the event
  • Soil tests and geotechnical data

By examining these factors together, forensic engineers can identify what went wrong, why it happened, and whether design flaws, construction errors, environmental conditions, or poor maintenance contributed to the failure.

The outcome of the forensic engineering report will not be influenced by who paid for the service. All state engineering boards require engineers to issue public statements objectively and truthfully. Engineers are also required to avoid any conduct or practice that deceives the public, including making statements that contain material misrepresentations of fact or omit material facts. An engineer is obligated to include all material facts that support their conclusions, opinions, and statements. In conclusion, an engineer must conduct themselves ethically, above any client relationship, while upholding the truth and protecting the welfare of the public.

A forensic engineer typically does not reach or communicate a final conclusion during the site inspection. During the inspection, the engineer collects physical evidence and observations. After returning to the office, additional information is reviewed and analyzed, including weather records, soil reports, construction documents, photographs, testing data, and other relevant materials before an opinion is formed.

Another important reason conclusions are not provided onsite is that state engineering boards generally require engineers to protect confidential information obtained in a professional capacity. Engineers are obligated to act as faithful agents or trustees for their clients or employers and may not disclose facts, data, or professional opinions without proper authorization, except when required by law or professional ethical standards.

A building code is a set of laws and regulations that controls how buildings are designed, constructed, and maintained. It covers things like structural safety, electrical and plumbing systems, heating and ventilation, fire protection, and safe exits. The main purpose is to ensure that buildings are safe for the people who live or work in them by establishing minimum safety standards.

In general, a property owner or someone authorized by the owner must get a building permit before doing most significant construction-related work on a building or structure. That includes work such as:

  • Building something new
  • Expanding or remodeling
  • Repairs
  • Moving or demolishing a structure
  • Changing how the building is used or occupied

The owner or agent must apply to the local building official and receive approval before starting the work.

There are some specific exceptions where a permit is not required under the International Code Council’s International Residential Code (IRC). However, even if a permit is not required, the work still must comply with all applicable building codes, laws, and local ordinances.

The following building works are exempt from the building permit requirement as stated in 2021 IRC:

  • One-story detached accessory buildings where limited to 200 square feet in floor area(other than storm shelters)
  • Fences not over 7 feet high
  • Retaining walls not over 4 feet high
  • Water tanks supported directly on grade, if the capacity does not exceed 5,000 gallons and the height to diameter ratio does not exceed 2 to1
  • Sidewalks and driveways
  • Painting, papering, tiling carpeting,  Cabinets, Counter tops and similar finish work
  • Prefabricated swimming pools less than 24 inches deep
  • Swings and other playground equipment
  • Window awnings supported by an exterior wall that do not project more than 54 inches from the exterior wall
  • Decks, if (1) 200 square feet maximum, (2) limited to 30 inches above grade, (3) not attached to a dwelling and (4) not serving the required exit door.

Many residential buildings are exempt from the requirements of the International Building Code (IBC) because they fall under a different code: the International Code Council’s International Residential Code (IRC).

Under the IRC, the following types of residential structures are covered:

  • Detached single-family homes
  • Detached duplexes
  • Townhouses
  • Accessory structures associated with those buildings (such as garages, sheds, etc.)

To qualify under the IRC, the buildings must generally:

  • Be no more than three stories above grade plane
  • Have individual means of egress

The IRC provides comprehensive prescriptive requirements for:

  • Building construction
  • Plumbing systems
  • Mechanical systems
  • Electrical systems
  • Energy efficiency

Structures outside these limits or occupancies are typically regulated by the International Building Code (IBC) instead.

Required Building Inspections

The inspection function is one of the most critical activities in the entire code enforcement process. At various stages of construction, inspectors provide the final verification that a building complies with safety-related code requirements. When appropriate, the building official may accept inspection reports from approved agencies that verify compliance with applicable code provisions. These agencies must be highly qualified and reliable.

Required Inspections (where applicable)

  1. Foundation Inspection
    Inspect setback from lot lines; Inspect footing dimensions; Inspect reinforcement; soil conditions (suitable soil and base materials); Vegetation, loose soil, and debris removed; sufficient depth for frost protection; and foundation construction before concrete placement.
  2. Plumbing, Mechanical, Gas, and Electrical Inspections
    Ensures all systems are installed according to code and safety standards before concealment.
  3. Floodplain Inspection
    For flood hazard areas, confirm compliance with flood hazard area regulations and required elevation standards. Elevation certificate prepared and sealed by a registered design professional before work proceeds above.
  4. Frame and Masonry Inspection
    Checks structural framing, masonry work, connections, and load-bearing components.
  5. Fire-Resistance Rated Construction Inspection
    Verifies fire-rated assemblies, penetrations, fire stopping, and related protection systems.
  6. Other Inspections Required by the Building Official
    Additional inspections may be required depending on the project type, complexity, or local regulations.
  7. Elevation Documentation Inspection
    Reviews elevation certificates or related documentation to confirm compliance with floodplain requirements.
  8. Final Inspection
    Conducted upon project completion to verify the building is safe and ready for occupancy. Inspect comfort heating, cooling, and ventilation equipment and systems; Inspect plumbing fixtures and systems; Inspect electrical circuits, devices, and fixtures; Inspect stairs, railings, landings, and other means of egress components; Inspect smoke alarms; Inspect emergency escape and rescue openings; Inspect other items regulated by the code.

Site development in designated flood hazard areas must meet special requirements for flood-resistant construction to minimize damage during a flood event. State or local floodplain management ordinances often supersede the IRC provisions for flood-resistant construction. Requirements are similar, however, and are designed to satisfy the minimum standards set forth in the National Flood Insurance Program (NFIP), managed by the Federal Emergency Management Agency (FEMA) (Figure 3-8). [Ref. R322].

Houston

We are available to conduct foundation inspections and structural inspections in:

  • Houston, Sugar Land, Katy, League City, Galveston, Baytown, Dayton, Cypress, Tomball, Conroe, Beaumont, Port Arthur, La Porte, Sealy, Lake Jackson, College Station
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Lucy Engineering Inc provides Forensic Inspection and Civil Engineering Consulting services.

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3807 Flatwood Drive
Katy, TX 77449

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