What Are the Key Steps in a UTS Inspection Professional Full Inspection?

The key steps in a UTS Inspection Professional Full Inspection start with a structured pre-inspection review, followed by a rigorous on-site evaluation of the building envelope, mechanical systems, electrical panels, plumbing infrastructure, and structural components, and end with a detailed report that includes thermal imaging scans and moisture readings. This process is not a surface-level walkthrough. It is a methodical, data-driven examination designed to uncover hidden defects, verify code compliance, and assess the overall condition of a property. Based on industry standards and the practices of established firms like UTS Inspection Professional Full Inspection, the process involves several distinct phases, each with its own set of tools, measurements, and documentation requirements.

The first phase is the pre-inspection review. This is where the inspector gathers all available documentation about the property, including building permits, maintenance records, and any previous inspection reports. For a typical residential property, this review takes about 30 to 45 minutes. For commercial buildings, it can extend to 2 hours, especially if the property has complex HVAC systems or multiple electrical subpanels. The inspector also checks the weather forecast for the day of the inspection, as rain can affect roof and gutter evaluations. During this phase, the inspector confirms the scope of work with the client, outlining what will be inspected and what is excluded, such as areas behind locked doors or inaccessible crawl spaces. This upfront clarity prevents misunderstandings later.

The on-site inspection begins with the exterior. The inspector walks the entire perimeter of the building, looking at the foundation for cracks, settlement, or water damage. A standard inspection measures the width of any foundation crack with a crack gauge. Typically, cracks wider than 1/8 inch are flagged for further evaluation. The inspector also checks the grading around the foundation. The soil should slope away from the building at a rate of at least 6 inches over the first 10 feet. If the slope is less than that, water can pool near the foundation, leading to basement leaks. The inspector uses a 4-foot level to confirm the slope. This is not a guess; it is a measured value.

Next comes the roof inspection. The inspector accesses the roof if it is safe and within reach, usually using a ladder that extends at least 3 feet above the roofline. For steep roofs or those over 20 feet high, the inspector may use binoculars or a drone. The inspector examines the roofing material, whether it is asphalt shingles, metal panels, or tile. For asphalt shingles, the inspector looks for curling, cracking, or missing granules. A typical asphalt shingle roof has a lifespan of 20 to 30 years. If the shingles are 15 years old or older, the inspector notes the remaining life expectancy. The inspector also checks the flashing around chimneys, vents, and skylights. Flashing failures are a common source of leaks. The inspector measures the condition of the gutters and downspouts, checking for clogs, rust, or improper pitch. Gutters should have a pitch of about 1/4 inch per 10 feet to ensure proper drainage.

Inside the building, the inspection moves to the structural components. The inspector examines the attic space, looking at the roof trusses or rafters, the insulation, and the ventilation. The inspector measures the insulation depth. For fiberglass batt insulation, the recommended R-value for most climates is R-38, which is about 12 inches of insulation. If the insulation is compressed or missing, the inspector notes that. The inspector also checks the ventilation. The attic should have a ratio of 1 square foot of ventilation for every 300 square feet of attic space. The inspector uses a tape measure to calculate this ratio. In the basement or crawl space, the inspector checks for signs of moisture, mold, or pest damage. The inspector measures the relative humidity in the crawl space. A reading above 60% is a concern because it can promote mold growth. The inspector also checks the floor joists for rot or insect damage, using a screwdriver to probe the wood. If the screwdriver sinks into the wood easily, that indicates dry rot or termite damage.

The electrical system inspection is one of the most detailed parts of the process. The inspector opens the main electrical panel and checks the breaker ratings. The inspector verifies that the breakers are properly sized for the wire gauge. For example, a 15-amp breaker should be connected to 14-gauge wire, and a 20-amp breaker should be connected to 12-gauge wire. The inspector uses a wire gauge tool to confirm this. The inspector also checks for double-tapped breakers, where two wires are connected to a single breaker slot, which is a code violation. The inspector tests a sample of outlets throughout the building, using a plug tester to check for proper grounding, polarity, and GFCI (ground fault circuit interrupter) protection. GFCI outlets are required in kitchens, bathrooms, garages, and outdoor areas. The inspector records the number of outlets that fail the test. In a typical home, about 10 to 15% of outlets may have wiring issues, according to inspection data from the American Society of Home Inspectors (ASHI). The inspector also checks the service panel for signs of overheating, such as melted insulation or burn marks on the breakers.

The plumbing system inspection covers the water supply lines, drain lines, and fixtures. The inspector runs the water in every sink, shower, and tub for at least 30 seconds to check for flow rate and drainage. The inspector measures the water pressure at an exterior spigot using a pressure gauge. The ideal range is 40 to 60 psi. If the pressure is above 80 psi, a pressure regulator may be needed to prevent pipe damage. The inspector checks for leaks under sinks and around toilets. The inspector uses a moisture meter to measure the moisture content of the wood around the toilet flange. A reading above 20% indicates a leak. The inspector also checks the water heater, noting the age, capacity, and condition. The average water heater lasts 8 to 12 years. The inspector checks the temperature and pressure relief valve, which should be tested annually. The inspector records the temperature setting on the thermostat. The recommended setting is 120 degrees Fahrenheit to prevent scalding and reduce energy consumption.

The HVAC system inspection is another critical component. The inspector examines the furnace or heat pump, checking the filter, the blower motor, and the heat exchanger. The inspector measures the temperature difference between the supply air and return air. For a gas furnace, the difference should be between 40 and 70 degrees Fahrenheit. For a heat pump, the difference is typically 15 to 25 degrees Fahrenheit. The inspector uses a digital thermometer to take these readings. The inspector also checks the air conditioner condenser unit outside, looking for debris, bent fins, and refrigerant line insulation. The inspector measures the temperature difference across the evaporator coil. A difference of 14 to 20 degrees Fahrenheit is normal. The inspector checks the condensate drain line for clogs, using a wet/dry vacuum to clear it if necessary. The inspector also inspects the ductwork for leaks, disconnections, or insulation damage. Leaky ducts can reduce system efficiency by 20 to 30%.

Thermal imaging is a key tool in the inspection. The inspector uses an infrared camera to scan the walls, ceilings, and floors for temperature anomalies. These anomalies can indicate missing insulation, air leaks, or moisture intrusion. For example, a cold spot on a wall in winter suggests inadequate insulation. A warm spot on a ceiling in summer may indicate a heat leak from the attic. The inspector records the temperature readings from the thermal camera. A temperature difference of more than 5 degrees Fahrenheit between adjacent areas is considered significant. The inspector also uses the thermal camera to check the electrical panel for hot spots, which can indicate loose connections or overloaded circuits. The inspector documents all thermal images in the report.

Moisture readings are taken throughout the property. The inspector uses a pin-type moisture meter to measure the moisture content of wood, drywall, and concrete. The inspector takes readings in areas prone to moisture, such as around windows, doors, and plumbing fixtures. The moisture content of wood should be between 6 and 12%. If it is above 14%, that indicates a moisture problem. The inspector also uses a non-invasive moisture meter to scan walls for hidden moisture. The inspector records the readings in a table format in the report. For example, a reading of 18% in a wall near a bathroom may indicate a leak behind the tile.

The inspection report is the final deliverable. It is not a simple checklist. It is a comprehensive document that includes a summary of major defects, a list of minor issues, and a prioritized list of recommendations. The report includes photographs of every defect, thermal images, and moisture readings. The report also includes a table of measured values, such as the roof slope, insulation depth, and water pressure. The inspector provides a cost estimate for major repairs, based on local labor rates and material costs. The report is typically delivered within 24 to 48 hours after the inspection. The inspector also offers a follow-up call to discuss the findings and answer questions.