Home » (Page 2)

Archives

Indirect Water Heaters

1.indirect water heaterThese highly insulated tanks are attached to the boiler and heated by it as a separate zone. Boiler water is circulated, usually though a coil, where its heat is exchanged with the domestic water in the tank. A typical stand alone tank type water heater has a firing chamber at the bottom, which cannot be insulated, and a chimney through the tank. This chimney continues to draw cool air into the heater and to take heat out with it when the unit is not firing. This heat migration is called stand-by loss. Because indirect water heaters have no flame and therefore no chimney, they can be insulated completely and therefore have almost no stand-by loss. Once the water is heated, it stays warm, as in a thermos, until it is used.

The best indirect tanks are made of excellent materials and have lifetime warranties. Because they are heated by the boiler, their “engine” is more efficient than that of a typical water heater. Likewise, they have much larger and better designed heat exchange area, allowing more of the fuel’s heat to be captured quickly. Their downside is their dependence on electricity – a conventional tank type heater will work during a power outage, the indirect will not, because the boiler and circulating pump will not be able to heat it.

Stand Alone Water Heaters

Pipelines, Inc. Plumbing ProjectStand-alone storage heaters are a common type of domestic water heater in New England. They can be fired by gas, oil, or electricity. The tank has an aquastat which senses the temperature of the stored water and turns the heat source on and off as necessary. The tanks are usually made of steel, and contain a magnesium anode rod to slow the inevitable corrosion which must take place in the presence of water, oxygen and heat. Electric models have resistance elements which heat the water- a very inefficient and costly method. They do not produce combustion fumes, however, and have the advantage of not having the heat waste associated with having a flue. In contrast, stand alone gas and oil fired storage heaters lose heat through their flues. The same natural draft which takes combustion fumes into the chimney continues when the burner shuts off, pulling cool air through the central flue and taking the just-added heat back up the chimney and out into the atmosphere. Stand alone tanks also lose heat through their poorly insulated sides, and because they contain a large volume of water, they set up a gravity circulation in their piping, which moves hot water upward through the hot and cold water pipes connected to the tank. If uninsulated, the water pipes radiate the heat from the hot water into the environment, adding to the tank’s woeful stand-by loss record. One “benefit” of this gravity creep in the pipes is that the hot water is “closer” to the user when the tap is opened, causing less water to be wasted while the user waits for hot water to appear. Older stand alone gas fired models have the benefit of operating without need of electric power. 

Conserve Water

You are reading the words of a person who thinks the main reason for civilization is hot running water, so please don’t take me for a water tee-totaler. It’s just really easy to lower your water consumption, and in the case of hot water fixtures, to lower your energy costs as well.

  • Replace your older toilets with low-flow models. Toilet flushing accounts for a huge portion of your water use. Well designed low flow toilets work, as we in this area allegedly say, pissah. Please see our information on products we like for our toilet recommendations. New low flow models can use as little as 1 gallon per flush, and all low flows use 1.6 gallons or less. If you have a toilet of the 1970’s in your house, you are using 3.5 gallons for every flush, a toilet of the 1940’s will use up to 5 gallons for each flush. A 1920’s model (with the tank attached to the wall and a chrome elbow between the tank and the bowl) will use 6 gallons or more per flush, even with that half gallon milk jug full of  pebbles you put in there… Switch your 5 gallon model for a 1.6 and you’ll save 34 gallons in a ten flush day. Multiply by 365 and you save 12,410 gallons per year. For one toilet. Just saying.
  • Replace aerators on your kitchen and bathroom sink spouts with new lower flow models. An aerator forces the water stream to pass through a series of restrictors and screens which breaks up the stream, increases the velocity and adds air to it. The result is a bit like whipped butter- more volume from the same amount of material; you use less without noticing. Replacement aerators come in half gallon per minute increments, so you can experiment with what works best for which faucet. New faucets may not accept a standard aerator but most new faucets already have low flow aerators on them.
  • Upgrade your showerhead. Energy saving and water saving come together in your shower. There are a million kinds of showerheads, and a good plumbing showroom will have displays where you can see and feel what comes out of different models. A new showerhead is rated for 2.5 gallons per minute. Reputable companies, like Grohe, make excellent shower fixtures, even “rain shower” heads that use only 2.5 gallons per minute.
  • Choose water saving appliances. Dishwashers and clothes washing machines use way less water than they used to. You do know that a typical top loader uses 40 some gallons for one large load? A new front loader can use as little as 15 gallons per load. This is another place where you get double savings for using less hot water as well.
  • Check yourself.  Don’t let the water run when you are not using it. Just do the math. If your bathroom sink faucet lets out 2.5 gallons a minute and you brush your teeth for 2 minutes twice a day that’s 10 gallons of water a day to brush your teeth. Think you need that much? How about if we multiply by 365? You can do that in your head: 3,650 gallons of water just for the teeth of one American. What if you had to carry that to your bathroom in a 5 gallon bucket at 42 lb. per trip (for a 30,441 lb. total)? Who needs a gym? Same thing but worse washing dishes- worse because people take longer to do the dishes. At 2.5 gallons a minute for twenty minutes, let’s see…50 gallons-that’s more  than a load of laundry. If you can’t feel good about using a dishpan, use the dishwasher- that will really save you water. (But see the Swedish study about child immunity and automatic dishwashers for another side to this debate).
  • Don’t water your lawn when it’s raining. They have moisture sensors to keep your lawn sprinklers from coming on when they don’t have to. Better yet, landscape to save water, be more pollinator friendly and cut back on having to mow grass. These folks can help.
  • Harvest water. I know where you can get water for free. Tons of it. Ask us, and we’ll help you take advantage of this free offer. Operators are standing by at Pipelines.

Prevent Water Leaks

I don’t even know where to start with the subject of water service. We are lucky and spoiled with the quantity, quality and ridiculous low price of the water that comes into our houses in Boston. If you’ve ever lived in another part of the world, or even a part of this country where water is scarce, you’ll understand what I’m talking about. If not, take my word for it, it’s a sin to waste water.

If you don’t believe that, how about this? You get charged for water and you get charged for sewer use at the same time. So preventing water leaks saves you double money and double karma.

How can you tell if you have leaks? Do you know where your water meter is?

1.water meter
Click for larger image

Your meter has a small indicator (often orange) on its dial called a telltale. The telltale will move when even a small amount of water passes through the meter. If you see that moving when no water is being used in the house, something is amiss. (Good to do this test when no one else is home, no laundry or dishwasher is on, so you know nothing should be running.  

  • Is a toilet letting water pass out of its tank? It is harder to see water running down the side of the toilet bowl than it is to see it dripping out of a faucet spout. You may be able to hear the water running in the toilet- there are people in the world for whom that sound is not a high alert (hard for a plumber to believe, but true). The gushing, waterfall sound means the flapper which shuts off the drain hole in the tank isn’t closed, or you may hear a high pitched hiss or whistle/squeal, sometimes quite faint, which tells you the fill valve isn’t shutting off. Take off the tank lid and look inside (nothing bad will happen). There is a tube about the diameter of a quarter which is there to lead excess water out of the tank so it can’t overflow. Is the water in the tank running over the top of the tube? The fill level or the fill valve itself needs to be adjusted/ replaced. An enormous amount of water can pass through a toilet every hour, and repairs are usually not difficult. Even if you suspect the toilet is letting a small amount of water pass through, but can’t be sure, you can test by putting a few drops of food coloring into the tank. Leave the toilet alone for 20 minutes or so (don’t flush). If the food coloring makes its way into the bowl, the flapper should be adjusted or replaced.  
  • Shut off your garden hoses between uses. If you leave a rubber or plastic hose with water pressure in it, you are asking too much of the hose. If you leave a garden variety nozzle on the end of the constantly charged hose, you are asking for a leak which may never show itself as the nozzle lies in the pile of leaves where the hose is.
  • Dripping faucets not only waste water, they waste energy if they are leaking from the hot side.
  • A constantly dripping faucet will eventually erode the surface against which it is supposed to shut, so repairing it will require more time and more parts. If left to run long enough, the stream of water can even erode and weaken the drain pipes it runs down. Not kidding, you are making the grand canyon in your own house.

Why Pipes Freeze

If ever there was a time for a pipe in your house to freeze, the winter of 2014-15 was it. It was very, very cold for long periods of time, and there were extremely windy days as well. If nothing in your house was affected by the weather this winter, you can stop reading now…or not. We have seen all sorts of reasons for pipes to freeze, and many of them involve human error- your house may be subject to one of these conditions in the future and I hope we can help you avoid the disaster that is a freeze-up.

Why freezing damages things.
Water is weird stuff- it is a liquid that gets less dense when it turns to a solid. That’s why ice floats, but more to the point here, when water freezes it gets bigger– it expands and that expansion is pretty unstoppable. I have seen every cast iron radiator in a house in Boston burst by ice. Those folks were lucky that the house didn’t start to thaw out before they caught the problem. About the only thing worse than having your house freeze is having it freeze and then thaw so the water now runs out of the breaks and finishes destroying the house that way.

Conditions that allow otherwise good pipes to go bad:

1.frozen-pipe-drawing
Click for larger image

Air leaks at the basement sill. The sill is the big horizontal chunk of wood sitting on your foundation, on top of which the rest of the house is built. Nowadays, the junction between the masonry and the wood should be well sealed, which is easier to do with a concrete foundation than with a fieldstone or rubble one, but earlier concrete foundations also have voids and nothing sealing them to their sills. In New England, our old stone foundations have crumbling mortar, missing pieces and great whopping cracks where the buildings have settled, not to mention unplugged holes from the removal of oil fill pipes, roof drains and outside faucets. Place a pipe in the laser of cold air coming through one of these penetrations and it’s no wonder the pipe freezes. Add “insulation” to the basement (see drawing) in an ignorant way and you have guaranteed disaster by actually insulating the pipe into the cold. A majority of your pipes have to pass along the outside walls of the house, because that’s where the radiators, kitchen sink and bath fixtures are, so they are susceptible to abuse by bad insulators. Proper air sealing of your sills is a number one way of protecting your pipes and saving energy. 

Basement windows and doors. As our heating equipment gets less wasteful we lose a source of heat in our basements. The old 30’s converted coal burner and great honking pipes left from the gravity circulation system used to pee off enough heat to keep everything from freezing, but now the boiler has some insulation on it and new pipes have a lot less surface area; the cold entering through the rotted, uncaulked, cracked and (you know who you are) broken paned windows can reach the pipes passing by and freeze them but good. Likewise the un-weatherstripped door which lets the wind whip the cobwebs into a frenzy. The water pipes passing over that door have no chance on a 5°F day. There are good people whom you can hire to glaze the windows, or better yet, put in insulated, sealed, double paned numbers that will keep the cold out. The same folks can improve your basement doors so that your heat will stay in and the pipes will stay warm.

Piping in former porches or overhanging bays. That porch used to be outdoors, hanging in space, nothing below it to keep it warm, then someone closed it in, but it’s still hanging out with nothing below to warm it. We’ve seen heating pipes left out in the open below former porches, water pipe stapled to the bottom of floor joists and left with only lattice closing off the perimeter. Even if the space is fully closed in, is it fully insulated? The more exposed surface a room has, the greater the heat loss and the larger the risk of freezing temperatures at the perimeter (where the pipes are).

Piping in and above crawl spaces. Much the same as above. If even a small stretch of pipe is exposed in an unheated/ drafty crawl space, that piece can freeze. Frigid air from a crawl space can enter through cracks in floor boards and joints between floors and walls (where the pipes are).

Human error.  The worst thing we do is set our thermostats too low on very cold and especially on windy days. If you feel the walls facing the outside on such a day you will notice how cold they are, especially if there is no insulation. The inside of the outside facing walls is colder than the middle of the room where the thermostat is. Much colder. Wind causes even more heat loss through those walls. (You know how the weather people are always talking about wind chill? It works for buildings, too.) Things like heating pipes and kitchen water pipes will be vulnerable long before the thermostat knows there’s trouble. It is much cheaper to pay for the heat to keep the room at 65° than it is to replaster the house. And replace the floors. And the radiators. And the sink traps and toilet tanks, etc., etc. The laws of thermodynamics apply to us equally, and as always, ignorance is no defense. If you fall into one or more of the categories listed below, you are a likely scofflaw. Pay attention, the fines are brutal.

  • Winter vacationer, particularly February school vacation, when the weather may fluctuate between mildish and very cold, and you may be tempted away from thermostat vigilance.
  • Students/ new tenants. May be unaware of laws of thermodynamics. May not focus on their responsibilities to the building vs. the heating bill.
  • Folks from places down South, including equatorial climes. If you have never experienced winter, you will have no idea what can happen to a house when it gets too cold.
  • First time homeowners/ owners new to a home. You won’t know the peculiarities (which cabinet doors to leave open, which faucet to leave a drip) of a new home until you’ve spent a winter in it. It’s a good idea to ask the previous owners if there is a protocol for avoiding frozen pipes in the house.
  • Renovators. Beware the contractor who tells you you won’t need that heat in the kitchen, or bathroom, or entry hall with the second floor bathroom water pipes running through it.
  • Nest thermostat. Having a Nest thermostat does not give you a free pass to the Land of Ignorance. You need to think about what the temperature is throughout your house. The Nest doesn’t know about anything but what’s right in front of it. See thermostat section in Knowledge for more thoughts on the Nest.

Solutions

  • Insulate professionally, insulate, insulate. Insulate the perimeter, heat the interior. Warm hat, coat and mittens, good lunch in the stomach. How else can I say this?
  • Run piping in heated areas only. Reroute pipes that constantly freeze. Some day, someone will forget to leave the cabinet door open, or the heat tape plugged in, or the hot tap running and that sucker will freeze and break again. Why pretend otherwise? Fingers in the ears is more expensive.
  • Add heat to your basement. Yes. Especially if you change to a high efficiency heating system that keeps its heat to itself. Your first floor will attempt to heat the basement, because hot goes to cold. If you insulate the basement ceiling to keep the first floor heat in, you will exacerbate the cold in the basement and put the basement piping at greater risk.
  • Frost alarm. For very little outlay, you can get a device that attaches to your phone and will call you when the temperature in your house drops below 40. Home security systems may have an option like this. Your Nest and other thermostats of that type will send alerts to your phone that the temperature has dropped below the desired point.
  • Get a real (reliable) human being to check on your house in cold weather. This one is the most foolproof. Have the person check in every day you are gone. Takes 5 minutes. Bring them back a nice gift. I cannot tell you the amount of damage a frozen house can sustain, except to say it can approach a tear down.
  • Once more- seal and insulate the outside, heat the inside, move vulnerable pipes to a safe place, have someone check to be sure the heat is on while you are away, and your house will be safe from damage.

Condensing Boilers

These are the most compact of boilers. Condensing boilers are often hung on a wall, near the point of vent penetration out of the house. They not only take nearly all the sensible heat from their combustion gases, they are also designed to condense the water vapor in the gas to wring out the last bits of latent heat. These boilers have efficiencies above 95 percent. Because they purposefully condense water vapor, they require a way to dispose of the condensate. The condensate is acidic and cannot be sent directly to a drain, so it must be passed through a neutralizing medium, such as limestone beads. After neutralization, the condensate is sent to a drain, usually through a small pump. Condensing boilers also require a carbon monoxide detector to be installed on the floor with the boiler and on every habitable floor in the house.

Condensing boilers have a modulating burner which matches its output to the demands of its sensors and thermostat. A computer calculates the required water temperature and ramps the burner up or down.

The boilers are designed to have cool return water and combustion gases passing across one another, causing the gas and vapor to exchange their heat with the return water. The cooler the return water, the more the condensation, so condensing boilers are unusual in that they work best when water temperatures are low and condensate formation is at its highest. Conventional types of boilers must be protected from condensate because it is corrosive and therefore they have a limit on how low water temperatures are allowed to be within them – generally water must be above 135°F at all times, whereas condensing boilers happily accept water temperatures as low as room temperature for heating applications and just above freezing for snowmelt jobs. This ability to handle low water temperatures is another reason condensing boilers are so efficient. (Please see outdoor reset information).

Steam Main Vents

One Pipe Steam Heating Systems- Venting Mains Steam heat distributes itself by differential pressure. As the vapor is formed it expands to 1700 times the volume of liquid water. The expansion pressurizes the boiler and then the race is on as the system tries to equilibrate with the outside world- high pressure seeking low pressure. The goal, the bait, the place where equilibrium can be reached is at the designed holes in the system, in the vents. Steam heads for those holes as soon as it is formed, and it is this ability to move without mechanical help that made steam the central heating choice in the era before electricity. (No electricity, no pumps.) A steam system at rest is full of air, right down to the water line of the partially full boiler. Once the boiler fires and heats the water, steam begins moving up through the boiler, pipes, and radiators, pushing air in front of it. You may hear a hissing sound from the vents as air is forced out of the radiators. When the steam reaches a functioning vent, the heat in the vapor will cause the vent to shut, often with an audible click. The trapped steam then condenses in the cold radiator, giving up its heat and transforming back to liquid, which returns to the boiler for another cycle. A steam vent which is stuck shut doesn’t allow air to pass through it; steam can’t get into the radiator and no heating can take place. A vent stuck open will allow steam to blow right past; the system will lose water like a teakettle left on the stove too long, not to mention removing the wall paper and setting off the smoke alarms. The locations and sizes of the holes in the steam system’s vents control how fast the rooms heat and therefore how soon the thermostat is satisfied and the burner shuts off. Quick distribution equates directly with the size of the fuel bill. The sooner the thermostat is satisfied, the sooner the burner shuts off, the smaller the fuel bill. There are vents on each radiator, but also on the mains, the big pipes which distribute steam from the boiler and gather the condensate to return it to the boiler. These main vents are very important because they allow the air to be removed from the big piping quickly, (having bigger holes and being located at the level of the mains). If the main vents are missing or broken, the only place air can leave the system (and let the steam come after it) is at the radiators. When this happens, all the air from the large main pipes has to be pushed out through the radiator piping and small radiator vent holes. The entire system takes longer to heat- the burner is running while the steam is held up in traffic, backed up waiting for the air to leave, and the last radiators in line are still waiting for their steam while the first are baking. Those last-in-line radiators may never even get their steam, if the thermostat is located near the first-in-line radiators. If you have cold rooms, or rooms that only heat on a very cold day, this may be the cause. Ideally, the main vents on your system should be located on the main piping right after the take-off to the last radiator. The vent should be as high above the main as possible, but often the vent or vents will be in a tee fitting at the end of the return mains where the pipe drops down to rejoin the boiler. Installers did this because it was convenient, but it is a dangerous place for the vents as each cycle of steam, moving at up to 20 mph, roars down the pipe and crashes into the fitting at the end, squirting condensate and pipe debris up into the base of the vent and hastening its demise. When we find main vents which are no longer working, we recommend moving them back at least 12” from the end of any pipe run and setting them as high as possible. The cost of repiping will quickly be repaid in shortened run times for the burner, and better balance as rooms heat at the same time.

Boiler Replacement

A heart transplant for your home
First, we think of a boiler replacement as a heart transplant for the house, and just like a transplant patient, we don’t walk away from the work saying, “see ya, hope that heart works out”, never to be heard from again.

Ongoing service
Our work doesn’t end when the boiler lights up for the first time. We know a homeowner needs to experience the new system in operation, over real heating conditions, before we can say everything is right. We know we are on call to make any adjustments. Installers who under price have no ability to or intention of returning to the job. Likewise, we install to allow for least disruption and expense during future work or service on the system- isolation valves (and labels) for each zone and for components requiring service, like expansion tanks, circulators and zone valves allow them to be worked on without draining the entire system. If one is not ever intending to service anything, one can eliminate a fair portion of time and material cost from the bid, but that cost is easily recouped at the first need for service. In fact, those who do not intend to service what they install often don’t bother to comply with manufacturer’s instructions at all. Why take the time to go to training or read all that annoying paper clogging up the box? Pssht, we didn’t put time for that in the bid!

Installing peace of mind
Our installations are also designed to take up a minimum of the homeowners’ space, to be orderly and easily grasped (physically and mentally) and supported for stability and to eliminate noise. All these things may take a little extra time; we do them because we are providing a long term product. One’s mechanical systems should inspire confidence and peace of mind. Ours do. We have customers who make the boiler installation part of their house tour for guests. I’d like to show you one of our jobs, if you have the time.

Walking gently on our planet
While recycling is not important to everyone, it has always been to us. We recycle all materials from our work, even the darn styrofoam-that includes cardboard, tagboard, paper, plastic, wood, foam wrap and peanuts, ferrous metal and noble metal. It all gets segregated on the jobsite and sent off to various destinations at the end of the job.

Walking gently in your home
Neatness in the work zone keeps the astounding tide of materials necessary to change the system from a conventional boiler to a condensing boiler in check, it keeps our job sites safer for us, it keeps our customers’ houses pleasant to live in while we work, and after we have left.

All the things I’ve listed above are part of every heating system we install and often not part of a lower priced job.

Know Your Toilet

The first thing to know about your toilet is that it is not magic. Things you put in it do not magically disappear forever, even if you stick your fingers in your ears and say la-la-la while the flushing is happening. There is a limit to the size of the passageway inside the toilet and there is a limit to the pipe the toilet is attached to. For those of us on the MWRA sewer system, most everything that gets flushed ends up at one of the headworks in South Boston, Chelsea or Mission Hill, or it makes it all the way to Deer Island, being processed at whatever length necessary to keep it from washing up on the beach. And you pay for that processing. With this in mind, do not put anything which does not come out of your body into the toilet, unless it is toilet paper. This especially means no dental floss, which is in a category of egregiousness all by itself. Dental floss rarely makes it past your own piping and ends up in an unremovable net of nastiness. It also means no “wipes” even if they say they are flushable. Believe me, they are not. Repeat after me: My toilet is not a waste basket.

How do toilets work?
The water used to flush the toilet is stored in a tank and released into the bowl when the flush lever or button is activated. The activator is connected to the stopper (called the flapper) between the bowl and the tank by various methods including chains, rods and rubbery tails. One way or another, the flush activator lifts the flapper and water drains out of the tank and into the bowl by gravity. When the water begins to leave the tank, a mechanism is activated to add water to the bowl and eventually to refill the tank. The water-adder is called the fill valve, or ballcock. It usually has a float of some sort (a ball or cup) which drops with the lowering tank water level and opens a passageway for water, then when the flapper closes again and the tank water level rises, the float rises and closes the passageway and the water stops. All toilet tanks have a designed water level, (newer toilets will have a mark in the tank to allow you to set the proper level) and all toilets have an overflow pipe which takes the excess flow down through the bowl if the water should fail to shut off.

Toilet bowls are designed to clear their contents over an integral trap-way when a measured amount of water is sent through them. Each bowl is designed with its own flow pattern, and the speed, direction and timing of the water release must be right for the toilet to operate properly. The smaller the amount of water to be used for each flush, the more important it is the designed pattern be followed. This is why early low flow toilets were such a hideous failure- instead of embracing new water use standards and designing toilets which would work well, American manufacturers took the cheap road (can you say K car?) and ran less water through the same bowls. People are still complaining- and this happened in the 1980’s. Low flow toilets work very well now, but it is important to make repairs on modern low flow toilets with the right parts.

Call your toilet by its proper name.
Toilets are designated tankless or tank type, and if tank type, one or two piece. They are designated as 10, 12, or 14 inch rough. Toilet bowls can come in many shapes, but the most common are round and elongated.

  • Tankless, or flushometer toilets are the kind most commonly seen in commercial spaces. There is no tank, just a pipe entering the china at the back of the bowl. Flushing is activated by pressing a handle, and a measured amount of water enters the bowl directly from the water main through the flushometer.
  • One piece toilets are just that; the tank and bowl are a single piece of china.
  • Two piece toilets have a separate tank and bowl. Two piece toilets can be high tank, flush ell, or close coupled.
  • High tank toilets are the really old fashioned kind with a (usually) copper lined wooden tank high on the wall above the bowl, connected by a long flush pipe, and activated by a pull chain.
  • Flush ell toilets have a tank which hangs on the wall just above the bowl and are connected to the bowl by a chrome flush elbow.
  • Close coupled toilets have tanks which sit directly on the bowl.

The “rough” designation refers to the distance from the wall to the outlet of the bowl. This is important to understand when locating the piping for a new toilet or when choosing a replacement for an existing one.

Choose the wrong toilet and there may not be enough room for the tank to attach to the bowl or you may have a great whopping gap behind the tank that begs to have someone unsteady on their feet fall onto the bowl and snap the tank off during a party late one night. To find the rough measurement of any toilet, locate the bolts on the base of the bowl where it sits on the floor. The bolt holes mark the center of the outlet of the bowl. If there are two sets of bolt holes (older bowls may have this) measure from the rearmost set. Measure from the center of the bolt hole to the wall behind the toilet- not the baseboard trim, but the actual wall the tank will be closest to. If you have less than 12″, you have a 10″ rough toilet. 12-14″ from the bolt holes= a twelve inch rough, 14+” = a fourteen inch rough. Flush ell toilets often have 16″ measurements- you will have a gap behind the toilet even with a 14″ rough. If you are replacing a toilet, it is best to check the specifications of the toilet with your particular layout. Dimensional drawings are available on line. Toilets are particularly unforgiving in their insistence on taking up space. You really can’t  trim or tweak them.

Which toilet is right for me?
As you can see from the information above, there is much to know and there are many choices to make. We are familiar with the good brands and models and well aware of the bad actors, the cloggers, the double flushers, the models that sound like a jet plane taking off in your bathroom, the ones that take an act of Congress to install, and the ones whose designers said oops!, then moved on, leaving no replacement parts in their wake. We will be glad to help you make a good choice.

Reduce Your Bill

Time is money when it comes to plumbing repairs. Though parts can be expensive, labor is always the largest portion of your bill. Anything you can do to help us complete our work quickly will pay for itself on the final bill. Here are some ideas to help get us in and out of your house more efficiently. 

  • Clear areas where we will have to work– in and under kitchen or bathroom sink, around water heater or heating boiler. Remove tchotchkes from radiator covers- if the heating system needs to be drained and refilled, we will need to access every radiator to bleed the air from them. Moving your belongings and keeping them safe will take us extra time and cost you more in labor.
  • Make a list of things you’d like us to do and email it to us so we know what to expect ahead of time and can come prepared to fill the time productively.
  • Sequester your pets and children, especially if they like to help (or in the case of pets, if they like to escape). We like pets and children, but don’t want to charge you for watching them.
  •  Know what type of heating system you have (see whatayagot heat). If you can tell us what type of fuel your system uses, whether you have hot air or hot water heat, what type of heating elements your house has, we can start the diagnosis over the phone, perhaps help you solve the problem remotely, tell whether the problem can wait for regular hours or if it needs to be taken care of immediately. Knowing basic information can help us bring the right materials with us, saving travel time to a supply house.
  •  Know what type of toilet you have. Keep a folder with information about model numbers for the fixtures and faucets in your house. If we can come with the parts, or if we order them and then schedule a time to come, no time will be wasted on travel or on the phone with suppliers.
  •  If you have a phone with a camera, you can take pictures of the item needing repair and email the pictures to us. Our suppliers can help us identify the item and get us parts.
  •  Know the location of emergency shutoffs for all the systems in your home. Don’t pile things in front of them. If you have a finished basement with shutoffs behind doors or above ceilings, write down the locations, or better yet, label them so someone coming to do repairs, a house sitter, or your kids can find them quickly.
  • Do not wait to call about an ongoing problem after work hours or on a Friday afternoon. If you can, please call us when we are fully staffed and supply houses are open. Do not do “home repairs” that turn into emergencies on Saturday afternoons or Sundays. (You know who you are.) If you call us outside of business hours, we are going to have to charge you overtime rates, and we may not be able to locate parts, or may have to do a temporary repair that requires a second visit.