The approximate square footage listed here is listed as a courtesy and is based off of public records and disclosure. An evaluation of square footage of the buildings and property lines is beyond the scope of this inspection.

Here are some general grounds photos:

To see a prescriptive guide for residential wood deck construction click this link:

Roof flashings are used to keep a roofing system water proof where the roofing material starts, stops, changes direction or is penetrated. During inspection, we look for standard flashing techniques that could be considered normal or standard in our region. Damaged, incomplete or non-standard flashings can be a sign of an older or less reliable roofing system and may require repair. Any non-standard flashings noted during inspection will be reported on below if found.

These images show electric permits found during inspection.

This shows the location of the electrical meter

During inspection I test all Ground Fault Circuit Interrupter (GFCI) devices that are readily accessible. GFCI's are those electric receptacles with re-set buttons that you commonly see in bathrooms, kitchens and at the exterior of the home. GFCI's are important safety devices that limit the duration of electrical shocks and have demonstrably saved lives. I recommend being aware of where re-set buttons are located in the house as GFCI's can trip and disable a circuit which can not be re-energized without re-setting the button. I avoid testing to determine if a receptacle or circuit is GFCI protected if it is not clear where the re-set button can be found. This is because re-set buttons can be concealed behind stored items, so such a test risks disabling a circuit in the home. Occasionally, during testing of GFCI's one can fail. This is a statistical reality that some of these devices will fail under testing and require replacement after testing.

The installation of carbon monoxide alarms is recommended for all homes that have fuel burning appliances such as gas or oil furnaces, gas water heaters, gas ovens and cook-tops, gas fireplaces and wood stoves. In addition, Washington State law (WAC 51-51-0315) now requires UL 2034 approved carbon monoxide alarms in ALL homes and condominiums being sold in Washington State. The location should be: at least one alarm outside of all sleeping areas and one on each floor of the house. Best practices are to have these alarms hardwired with a battery back-up - though requirements are for the installation to meet manufacturer's specifications. Carbon monoxide is a colorless, odorless gas that can cause sickness, nausea and even death. Alarms have a useful service life of roughly 6 years, so changing them more frequently than smoke alarms is recommended.

For reliability, fire marshals recommended updating smoke alarms every 10 years and changing batters bi-annually. Modern standards recommend smoke alarms in all bedrooms, in all hallways outside bedrooms and at least one on each floor of the building. The latest data indicate that we should be using photo-electric technology in our smoke alarms for improved fire detection and to reduce problems with false alarms which can lead to disabling of this important safety system. Unfortunately, the alarms have to be removed to determine if they are photo-electric or ionization types. It is surprisingly complex to accurately test a smoke alarm system and determine the reliability, age, and type of sensor technology used, especially as many homes can have half a dozen or more alarms throughout the house. A complete evaluation of smoke alarms is beyond the scope of this inspection. For optimal fire safety, I recommend taking control of these important safety devices and learning about how to service and maintain your smoke alarm system to keep the building occupants safe.

During a home or property inspection, every effort is made to inspect the visible components of the electrical system grounding. The grounding system is critical for safely discharging electrical surges, especially in the case of lightning strikes. There is no way in the context of a home inspection to verify the "effectiveness" of the grounding system as much of the system is not visible and there are not practical tests one can perform in the way we can test a furnace or a plumbing fixture.

During the inspection, I attempt to visually document electrical system bonding. There is no way in the context of a home inspection to verify the "effectiveness" of system bonding. All metallic systems in the building are required to be "bonded" (connected) to the the building's electrical grounding system. Bonding creates a pathway to shunt static charges (that would otherwise build up on the system) to earth, and to provide a pathway to trip a breaker in the event that these bonded metallic components became energized.

Bonding connections were noted on the water pipes.

Bonding connections were noted on the gas piping.

This shows the location of the water meter at the street side of the house. The meter was not spinning when viewed, indicating that there are likely no leaks in the supply.

This shows the water pressure tested during inspection.

This shows the location of the main water shutoff located entry coat closet.

Angle stops are the shut offs located below plumbing fixtures such as sinks and toilets. These are designed so that water can be shut off locally to a fixture without shutting off the water to the entire house so that localized fixtures can be serviced and repaired or replaced. Home inspectors do NOT test angle stops during inspection as there is a risk of leakage which could cause damage to the home.

The temperature and pressure relief valve is arguably one of the most important safety devices in your house. Should the thermostats fail inside your water heater, the TPRV allows excess pressure to "blow off," which will prevent catastrophic build up of temperature and pressure which can make water heaters explosive. I do not test the "blow off valve" during inspection as there is a risk it could stick open and testing could cause the need for a repair. Manufacturers of these relief valves recommend that these be tested annually. You need to decide for yourself if this is the type of annual testing you wish to perform.

Please note that when the sewage discharge type is listed here, it is listed based on public records and disclosure. It is always possible that the system is not as it is listed; for example, a property could be listed as a public sewer system when in fact it is on a private septic system. This is unlikely, but is another reason why we recommend further evaluation of all sewage discharge systems.

This house has a gas forced air furnace. A critical component to all combustion equipment like this is the heat exchanger. This is the welded clam-shell piece of metal inside the furnace that contains the products of combustion so that moisture, carbon monoxide and other products of combustion do not mix with interior air and get safely vented to the exterior. Heat exchangers on modern furnaces have an average life expectancy of 15-20 years. Unfortunately, heat exchangers are buried inside of heating equipment; they are not visible and specifically excluded from a home inspection.

These photos show the most recent service records on the furnace.

Your heating system has disposable air filters installed. These should be changed quarterly or more to ensure proper air flow at the furnace. Be sure to install the filters with the arrows pointing in the same direction as the air flow in the furnace.

Determining proper ventilation to the exterior from kitchen, bath and laundry fans can be tricky as exhaust fan ductwork is often concealed behind finishes and fan terminations can be all over the house from the roof to the foundation, presenting difficulties for systematically checking every fan termination. During inspection, every effort is made to verify proper terminations of fan vents to the exterior, but it is possible to miss something here that is latent or concealed.

The wood burning fireplace has a flue damper up inside. This is designed to keep cold air out of the house when the fireplace is not in use. Be sure to keep the flue damper closed during the heating season when the fireplace is not in use to prevent heat loss.

Proper dryer exhaust venting is critical for safe and reliable performance from the dryer. Here are some basic rules of thumb for dryer exhaust duct installation: Unless a vent-free appliance is being used, the dryer exhaust vent must terminate outdoors. It should be no more than 25 feet long and for every 90 degree turn subtract 5 feet and for every 45 degree bend subtract 2.5 feet. Use only smooth-wall metal vent pipe @ 4 inch pipe diameter. Do not use plastic pipe and plastic flex pipe. If a flexible connector is needed behind the dryer use a short amount of corrugated metal pipe. If the exhaust duct is getting pinched behind dryer, consider use of a dryer vent box, pictured here. Flex and corrugated pipes should never be used in concealed spaces such as through walls or in attic or crawl spaces. Insulate dryer exhaust duct where it passes through unconditioned spaces to prevent condensation that could hasten lint build-up inside the pipe. Do not use screws to connect pipe as these can trap lint. Secure duct with foil tape as needed. Be sure duct is sleeved properly so that it will not trap lint and clean the vent regularly, especially if it is a long exhaust run.

No fuel storage devices were found on site during our visual inspection.

This shows the gas shutoff at the meter.

During this inspection, a thermal imaging camera was used to check walls and ceilings for thermal anomalies and also to check specific appliances for verification of proper function. Thermal imaging cameras use the infrared light spectrum to build a picture of the house. Experienced thermogrophers look for clues in these thermal images that could lead us to otherwise concealed water leaks or missing air or thermal barriers. In older homes, incomplete air and thermal barriers are so common, we will only report on items that look significantly deficient and are worthy of correction. This service is included with our home inspection; it is limited and is not a complete thermal mapping of the house. The use of an infrared camera is well beyond the minimum standards for a home inspection, but we offer this service because we know it is valuable and can help us help our clients by improving our inspection services. Relevant thermal images if found will be included in this report.

Here are some general photos of the attic:

Attic and roof cavity ventilation is a frequently-misunderstood element of residential construction. All roof cavities are required to have ventilation. The general default standard is 1 to 150 of the attic area and ideally, this comes from at least 60% lower roof cavity ventilation and 40% upper, but this is a wild over-simplifications of the subject. As a good guiding principle the most important elements for healthy attic spaces, which are traditionally insulated and ventilated are:

1. Make sure the ceiling between the living space and the attic is airtight
2. Ventilate consistently across the whole lower part of the roof cavity with low, intake soffit venting
3. Upper roof cavity venting is less important and if over-installed can exacerbate air migration into the attic from the living space.
4. Avoid power ventilators which can depressurize the attic and exacerbate air migration from the house into the attic.

For more information, please see: Link

During inspection of the crawl space, every effort is made to inspect the entire space. Visual inspection of crawl spaces is difficult and limited as access is often restricted by pipes, ducts and sub-floor insulation as well as limited clearances.