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.

Unless the wiring in the building has been fully updated, this building likely has wiring that predates the late 1980's. Branch circuit wiring installed in buildings built prior to the late 1980s is typically rated for a maximum temperature of only 60 degrees Celsius. This includes non-metallic sheathed (Romex) wiring, and both BX and AC metal-clad flexible wiring. Knob and tube wiring, typically installed in homes built prior to 1950, may be rated for even lower maximum temperatures. Newer electric fixtures including lighting and fans typically require wiring rated for 90 degrees Celsius. Connecting newer fixtures to older, 60-degree-rated wiring is a potential fire hazard. Repairs for such conditions may involve replacing the last few feet of wiring to newer fixtures with new 90-degree-rated wire, and installing a junction box to join the old and new wiring. It is beyond the scope of this inspection to determine if any such incompatible components are installed. Based on the age of this building, be aware that such components may be present.

In 1978, federal laws were passed to prohibit use of lead and asbestos in building materials. Manufacturers of building materials were allowed to sell existing stocks of materials that were manufactured with lead and asbestos, so even buildings constructed as late as the mid-1980's could possibly contain lead or asbestos. Identification and testing for lead and asbestos and other environmental testing is beyond the scope of this home inspection. If you wish to seek additional information, I recommend contacting an environmental lab or industrial hygienist.

Roof flashings are used to keep a roofing system waterproof 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.

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. However, there are many things that can lead me to recommend further evaluation of the grounding system by a licensed electrical contractor and they will be documented in the observations below if discovered.

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. .

A representative number of receptacles and switches were tested during inspection. Any defects found during inspection are noted in this report. Only visible and accessible receptacles and switches were tested during inspection and personal items and furnishings are not moved to access any receptacles or fixtures.

During the home inspection, I try and test a representative sample of the smoke alarms by using the test button on the alarms. This is NOT an accurate test of the sensor just a test to see if the unit is powered. For reliability, fire marshals recommended updating smoke alarms every 10 years and changing batteries bi-annually. The latest data indicate that we should be using photoelectric 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. For more information, please read this link. For more information, please read this link.

This house has a gas forced air furnace. A critical component to all combustion heating equipment is the heat exchanger. This is the welded metal assembly 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 concealed inside the heating equipment; they are not visible and specifically excluded from a home inspection. Cracks in heat exchangers may be concealed and can pose a potential safety hazard.

This shows the data plate from the furnace. 📸

The heating and cooling 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.

The following list is a minimum set of requirements to be expected of heat pump or air conditioning servicing. I provide these as a courtesy to show they types of check-ups that should be expected from a professional servicing.

• Check compressor efficiency
• Check refrigerant level
• Clean the condenser coil
• Change or clean air filters
• Inspect contactors and wiring
• Inspect drive-sheaves, pulleys and belts
• Check and adjust for proper air flow
• Clean the blower motor as needed
• Lubricate all motors and shaft bearings
• Check, calibrate and program the thermostats and be sure the thermostat has adequate batteries as needed
• Check unit smoke detector, clean filter if applicable
• Check safety disconnect, laser-temp -- check across contacts

This shows the data plate from the exterior compressor. 📸

The wood burning fireplace in the kitchen 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.

Copper water supply pipes were installed. Copper pipes installed prior to the late 1980's may be joined with solder that contains lead, which is a known health hazard especially for children. Laws were passed in 1985 prohibiting the use of lead in solder, but prior to that solder normally contained approximately 50% lead. Note that testing for toxic materials such as lead, is beyond the scope of this inspection. Consider having a qualified lab test for lead, and if necessary take steps to reduce or remove lead from the water supply. Various solutions include:

• Flush water taps or faucets. Do not drink water that has been sitting in the plumbing lines for more than 6 hours
• Install appropriate filters at points of use
• Use only cold water for cooking and drinking, as hot water dissolves lead more quickly than cold water
• Treat well water to make it less corrosive
• Have a qualified plumber replace supply pipes and/or plumbing components as necessary

This shows the location of the sewer cleanout found during inspection - basement. 📸

This shows the data plate for this water heater.

A temperature and pressure relief valve (TPRV) is required on all water heaters to discharge any excessive pressure within the tank. A discharge pipe should be attached to the valve and directed to a safe location away from body contact. Newer installations must be directed to the building exterior or to an approved indoor drain receptor. Most manufacturers suggest that homeowners test these valves at least once a year by lifting the lever to ensure the valve discharges properly and also recommend inspection of these safety devices every three years. The picture here shows a typical TPRV. They may also be found on the side of the heater on some models. I do not test these valves due to the possibility that they may leak after testing. A leaking or inoperative TPRV should be replaced immediately by a licensed plumber.

Due to inconsistencies between both UPC and IPC Plumbing codes, and water heater manufacturer's instructions, and TPRV manufacturer instructions, it is not actually possible to install the drain from the Water Heater TPRV "properly." There are conflicts with distance of termination to the floor/ground, types of pipes approved, and diameters of pipes approved. Additional confusion is added when jurisdictional inspectors approve installations/materials specifically not allowed by both codes and manufacturers. My recommendations will vary depending on the installation and will be included in the applicable narratives below.

Most codes defer to manufacturer instructions and I favor those recommendations. The yellow tag on the valve states clearly the termination should be 6" above the floor which is more consistent with the UPC code requirements.

This building has a sump pump installed. Sump pumps are generally installed as a means of collecting and discharging ground water that is entering a building's crawl space or basement. These are difficult systems to inspect during a one-time inspection as much depends on how critical the sump system is for keeping the space dry. Some systems are installed as prophylactic measures to provide a back-up in case of other drainage failures. Other systems can be critical to keeping a space dry. It is important when buying or selling a home to learn more about or provide more information about sump systems so owners can plan accordingly. During inspection we make an effort to see if the pump is working and evaluate the overall quality of the installation - some comments may be noted below. If it is determined that a sump pump is critical for keeping a space dry, I would consider installing additional back-up measures such as:

1. Install a back-up battery in case of a power outage
2. Have a back up pump in case of pump failure
3. Install a high water alarm to warn occupants of a failing sump system.

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.

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