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In the wind. . . .

John Bishop
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Keeping up appearances

Fifth Avenue and Madison Avenue in New York City run north and south, parallel to each other a block apart. Together they form one of the world’s premier high-end shopping districts starting around 34th Street and continuing north. On Fifth Avenue, the shopping district ends at 59th Street, which is the southern edge of Central Park, a few blocks north of Trump Tower, and on Madison Avenue it continues north to perhaps 86th. That’s where you find the shops where people pay more for a handbag than I pay for a car. Saks Fifth Avenue, Shreve, Crump & Low, and Tiffany & Co. are some of the big landmarks. Rolex, Ferragamo, Versace, and Louis Vuitton continue the roster along with a host of lesser but equally dear names. The NBA Sportswear Store and the Disney Store are newer arrivals that cater to a different crowd.

Manhattan’s Upper East Side boasts some of the most expensive residences in the world. There’s a four-floor, 20,000-square-foot, 16-bedroom place on Central Park South that’s listed for $250,000,000. If you can afford a place like that, you can certainly afford a $100,000 handbag.1

The sidewalks in that neighborhood are full of designer people with designer handbags, designer dogs, and designer facelifts, doing their expensive best to show the world who they are. While I expect many of them live in multi-million dollar homes and can actually afford all that, I’m sure there are people spending above the reasonable limits of their disposable income, going deep into holes to keep up appearances.

I’m reminded of an exchange I overheard 40 years ago in an auto parts store in Oberlin, Ohio, when a fellow customer asked the clerk for a CB antenna. The clerk asked what kind of radio he had, and the customer relied, “I don’t have a radio, I just want people to think I do.” That CB antenna had a lot in common with a $100,000 handbag.

 

What you see is what you get.

The pipe organ is the only indoor monumental musical instrument, and the only one with the possibility of having an architectural identity. Of course, many organs are housed in chambers, separate from the rooms into which they speak. Some of those have façades of organ pipes, while others have simple screens of cloth and wood. I’ve always felt that there’s something dishonest about concealing an instrument behind a grille. I love the feeling of walking into a building and knowing right away that I’m in the presence of a pipe organ. Whether the organ displays a simple fence of pipes with some woodwork surrounding to hold them up, or it has a grand decorated case, either freestanding or projecting from the front of a chamber, the visual information about the instrument is an exciting prelude to hearing it.

We can argue about when the development of the modern pipe organ began, but since I’m the one writing and there’s no one else here just now, and since I know I can back this up simply enough just with photos, let’s say that things were rolling along pretty well by the middle of the 16th century. By then, many organs had been built that had multiple manuals, stop actions that were easy to operate, and highly decorated architectural cases. An important feature of many of those cases was the fact that one could tell a lot about the content and layout of the organ with only visual information. The layout of the façade directly reflected the number of manuals, the principal pitches, and even the layout of the windchests.

There’s typically a Rückpositiv installed on the balcony rail, which is necessarily played by the bottom manual, because the tracker action would go down to the floor behind the knee panel (sometimes called kick-panel) and then under the pedalboard to the balcony rail. There’s an impost, the heavy molding that traverses the organ case above the console, forming the transition from the narrow base of the organ to the wider upper case. That upper case contains the Hauptwerk (Great), which includes the central Principal Chorus, the tonal foundation of the organ. The layout of that façade might show that the windchests are arranged diatonically (odd-numbered notes on one side, evens on the other), and it might further show that the trebles of the chests are arranged so major thirds are adjacent to each other. That’s when the “C side” (whole tones C, D, E, F#, G#, A#) is split, so one side reads “C, E, G#” while the other reads “D, F#, A#.” Likewise, the C# side of the organ is split so one side reads “C#, F, A” and the other reads “D#, G, B.”

That may seem complicated, but it’s a simple reordering of the notes that results in lovely symmetrical visual appearance. Also, in an organ tuned in a historic temperament, when major thirds are adjacent, chords draw beautifully in harmony with each other.

If there are three manuals, the top one might be a Brustwerk (literally, “Breast Work”) located above the music rack and below the impost. That division would be based on a higher Principal pitch, and would contain smaller, lighter stops—likely an 8 stopped flute such as a Gedeckt, a single 4, mutations, upper work, and a reed with short, fractional resonators such as a Schalmei or Regal.

The top manual of a three-manual instrument could also be an Oberwerk, a separate division above the Hauptwerk at the top of the case. If there are four manuals, you might have both Oberwerk and Brustwerk in addition to the Hauptwerk and Rückpositiv.

Some people are better at judging measurements than others, but I’m guessing that if challenged, most anyone could tell the difference between 16 and 32 feet. And, you could also pretty easily guess at a succession of lengths, each half as long as the one previous. So you know all you need to know to judge the pitches of the divisions in an organ with classic case design. If you’re sure that the largest pipes in the pedal towers are 16-footers, then you can tell that the Principal pitch of the Hauptwerk is 8, the Positiv is 4, and the Brustwerk is 2. If the Pedal has 32 Principal, the Hauptwerk is 16, the Positiv is 8′, and the Brustwerk is 4. In a four-manual organ, the Oberwerk is likely to be an 8 division, with smaller scales than the Hauptwerk.

Are you not sure you could tell the difference between a 16 or 32 pipe? Sixteen feet is a length or width measurement for a room in an average home. Our bedroom in New York is about 16 feet long. If you could get a 32-footer into your living room, you live in a big house!2

Werkprinzip is a twentieth-century term coined to describe an organ that’s arranged in clearly defined divisions that can be easily identified by viewing the façade. This simple and elegant style of organ design evolved from the simplest ancient organs where the keyboard of the Positiv division was on the back of the Positiv case, and the organist had to turn around to play it.

 

The Hamburger Schnitger

Arp Schnitger (1648–1719) was a prolific organbuilder whose work influenced all of organ history since then. Forty-eight of his organs survive, a great achievement by modern standards. But when you realize that he accomplished all that without electricity, power tools, trucks, or even FedEx, Mr. Schnitger’s output seems staggering. I was introduced to his work as a kid by E. Power Biggs’s 1964 recording, The Golden Age of the Organ. Biggs was right in choosing that title. Schnitger’s organs were the epitome of the high Baroque with thrilling voicing, marvelous complex actions, and stunning architectural cases.  

One of his largest organs is in the Jacobikirche in Hamburg, Germany’s second-largest city. It has four manuals, 60 stops, and is a terrific example of a classic Werkprinzip organ. There are two 32pedal towers, a 16 Hauptwerk, and an 8 Rückpositiv visible. There are two additional divisions that cannot be identified just by looking at the façade, an 8 Oberpositiv (at the top of the organ), and an 8 Brustpositiv above the keydesk.3

The façades of the Hauptwerk and Rückpositiv cases reflect the windchest layout of major thirds. On either side of the large center towers, there are fields (flats) of façade pipes arranged with the largest in the center, the pipes getting smaller in each direction. I don’t know exactly which note is in the center of the flats, but by counting the pipes in the center and side towers, I’m guessing that it’s A# (below middle C) on the left, and B (below middle C) on the right. So starting in the center of the lower left flat and going toward one side, the pipes would be A#, D, F#, A#, D, F#—and in the other direction C, E, G#, C, E. To the right of the center tower, starting in the center, you have B, D#, G, B, D#, G#—and in the other direction C#, F, A, C#, F. If you’re confused, just think of these sequences as every other whole tone.

 

What window?

The First and Second Church in Boston, Massachusetts, is located at the corner of Berkeley and Marlborough Streets in the neighborhood known as the Back Bay. The fifth church building on that site was a large stone Gothic structure, built in 1867 with a large rose window and a tall stone steeple. The building housed a large Aeolian-Skinner organ—no coincidence, as William Zeuch, vice-president of Aeolian-Skinner, was organist of the church from 1930 until 1958, and famously played weekly organ recitals on Sunday afternoons to huge audiences.

There’s a story about that rose window. Leo Collins was organist at First and Second Church from 1964 until 1997. Shortly after he started there, interested in the newly emerging movement of the return to classic styles of organ building, he assembled an organ committee to research the possibilities of replacing the Aeolian-Skinner with a new tracker organ. Rudolf von Beckerath was invited to propose a new organ, and he traveled to Boston to present his design to the committee. Predictably enough, his drawing showed a tall free-standing organ case with pedal towers in front of the rose window. An elderly and proper woman, denizen of the Back Bay, asked him, “Mr. Beckerath, what about our window.” He replied, “We have covered windows lovelier than this.”

That project never happened because the building burned in 1968, leaving only the east wall with the rose window and the steeple. A new building was designed by architect Paul Rudolph that incorporated the remains of the stone edifice. Leo got what he wanted. The church commissioned a fine mechanical-action organ by Casavant Frères (Opus 3140, 1972) with three manuals and 64 ranks.4 I assume that the organ was paid for with the help of the insurance settlement after the fire. I first tuned the Casavant organ when I joined the staff of Angerstein & Associates in 1984, and six organists later, I still maintain the instrument.

While it may seem apocryphal, the story about Beckerath and the rose window was told to me by Leo Collins, who was present at that meeting. That’s a good way to lose a job.

 

A new way to look at it

The Casavant organ at First Church in Boston is a great example of a modern Werkprinzip organ. If you’ve been paying attention as you read, you can tell instantly just by looking at the photo that the Pedal has a 16 Principal, the Great (at the top of the main case) has an 8Principal, and the Positiv has a 4. The modern adaption of the style allows for a large Swell division above the keydesk. You can see that the Great and Positiv are arranged in major thirds: the largest pipes in each of the spiky towers, from left to right, are C, C#, D, and D#. So the “C” tower has C, E, G#, C, E, G#­. The next has C#, F, A, C#, F, A. The next has D, F#, A#, D, F#, A#. And the last has D#, G, B, D#, G, B.

Though you can’t see it, behind the shutters, the Swell is arranged in major thirds, mirroring the Great and Positiv.

The arrangement of the Pedal tower is unconventional. There are three towers that start with C, C#, and D, so minor thirds are adjacent. That means that tuning the Pedal is arpeggios on diminished chords. I assume that the three-tower arrangement is for visual effect. The three spiky pedal towers nicely answer the four of the main case. Perhaps Paul Rudolph was involved in that design.

While tuning the minor-third Pedal division is arpeggios on diminished chords, tuning the major-third divisions provokes a parody on the main theme of Johann Strauss’s An der schönen blauen Donau (On the Beautiful Blue Danube), which starts with the three notes of a major triad. Altering that theme by playing two adjacent major thirds, with the answering treble triads adjusted accordingly, provides a comical effect—just the right tonic after tuning all the mutations and mixtures in that fully equipped organ.

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While I’m talking about pipe organ façades, there’s another interesting thought to share. Many organ cases, both ancient and modern, have large towers in their façades. Some are round or multi-sided in plan, while some are “pointed,” triangular in plan. It’s easy to identify them as purely architectural elements, but they also conserve space within the organ case, as they bear the largest pipes of an organ outside the confines of the case. Giving them rounded or pointed profiles also diminishes the width of the entire instrument. Standing five or seven 32 pipes next to each other would add up to a lot of additional width.

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Of course, many wonderful organs have been built with clearly defined internal divisions whose façades don’t reflect the internal design. The massive Cavaillé-Coll organ at St. Sulpice in Paris is a good example. There is a massive wood case festooned with a procession of larger-than-life statues that take up so much space that it’s a wonder the sound can get out at all. What appears to be a Rückpositiv is actually concealing the back of the console. Of course, that’s not a reflection on the quality or content of the organ, just another way to present the instrument as a monumental work of visual art.

I’ve been in many churches where a modest organ is concealed behind a huge case. In some of those cases, the organ is a small, cheaper replacement for a much larger original instrument. But sometimes, the monumental case was designed by the architect of the building, and there was no funding for an instrument of appropriate size. That’s the equivalent of the guy in the auto parts store who didn’t have a radio but wanted an antenna for appearances, or buying a $100,000 handbag to imply that you live in a $100,000,000 house. Who’s going to wash the windows?

 

Notes

1. Maybe you think I’m kidding. Google “Hermès crocodile bag” and see what you get.

2. Our standard pitch designations refer to the “speaking length” of a pipe, which is the measurement from the bottom of the pipe’s mouth to its tuning point. Almost all façade pipes are two or three feet longer than speaking length to allow for the height of the pipe’s conical foot, and any “false length” at the top to allow for a tuning slot at the back. So a 32 façade pipe is often close to 40 feet long. A standard semi-trailer passing you on the highway is 53 feet long. I’ve been working with pipe organs for more than 40 years, and I still marvel at the idea of a 32 organ pipe, a thousand-pound whistle that can play one note at one volume level.

3. You can see the specifications of the Hamburg Schnitger organ here: http://www.arpschnitger.nl/shamb.html.

4. You can see the specifications of the First Church Casavant organ here: http://database.organsociety.org/OrganDetails.php?OrganID=23152.

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In the Wind. . . .

John Bishop
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What’s it going to cost?

When you’re shopping for a car, it’s reasonable to start by setting a budget. Whether you say $10,000, $30,000, or $75,000, you can expect to find a vehicle within a given price range. Of course, it’s up to you whether or not you stick to your budget, but we all have experience with the exercise, and there’s plenty of solid information available. Printed advertisements broadcast prices in huge type, and you can fill in forms online with details about a given car to receive a generated price.

When you set out to buy a piano, you can start with a simple search, and get a quick idea of price ranges. I just spent a minute or two surfing the internet to learn that a new Steinway “B” (that’s the seven-foot model) sells for over $80,000, and that you should expect to pay about 75% the price of a new instrument to purchase a reconditioned used piano. If you start with that in mind and do some serious shopping, you may well get lucky and find a beautiful instrument for less, but at least you have a realistic price range in mind before you start.

There is simply no such information or formulas available for the acquisition of a pipe organ, whether you are considering a new or vintage instrument. In a usual week at the Organ Clearing House, I receive at least two, and as many as ten first-time inquiries from people considering the purchase of an organ. These messages often include a stated budget, usually $100,000, sometimes $200,000, and they typically specify that it should be a three-manual organ. Each time, I wonder how that number was generated. Was it the largest amount they could imagine spending? Did they really think that an organ could be purchased for such an amount?

It’s as if you were shopping for that car, but you promised yourself that this time, you’re going to get your dream car. You test-drive a Mercedes, a Maserati, and a Bentley, and oh boy, that Bentley is just the thing. You offer the salesman $20,000. He rolls his eyes and charges you for the gas. It’s a $250,000 car.

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There’s a popular myth out there that people think that organ companies can be compared by their “price per stop.” The most common source for public information about the price of an organ is the publicity surrounding the dedication of a monumental new organ. You read in the newspaper that Symphony Hall spent $6,500,000 on a new organ with 100 stops. Wow. That’s $65,000 per stop. We only need a ten-stop organ. We could never raise $650,000.

The problem with this math is that the big concert hall organ has special features that make it so expensive. The most obvious is the 32 façade. How much do you think those pipes cost? If they’re polished tin, the most expensive common material, maybe the bottom octave of the 32 Principal costs $200,000? $250,000? More? And if the organbuilder pays that to purchase the pipes, what does it cost to ship them? A rank of 32-footers is most of a semi-trailer load. What does it cost to build the structure and racks that hold them up? This week, the Organ Clearing House crew is helping a colleague company install the 32 Open Wood Diapason for a new organ. It takes ten people to carry low CCCC, and once you have it in the church, you have to get it standing upright. Years ago, after finishing the installation of a full-length 32 Wood Diapason in the high-altitude chamber of a huge cathedral, my colleague Amory said, “Twelve pipes, twelve men, six days.” It’s things like that that pump up the “price per stop.” In that six-million-dollar organ, the 32Principal costs $400,000, and the 135 Tierce costs $700.

Here’s another way to look at the “price per stop” myth. Imagine a two-manual organ with twenty stops­—Swell, Great, and Pedal, 8 Principal on the Great, three reeds, and the Pedal 16stops are a Bourdon and a half-length Bassoon. The biggest pipes in the organ are low CC of the Principal, and low CCC of the Bourdon, and the organ case is 18 feet tall. Add one stop, a 16Principal. Suddenly, the case is twice as large, the wind system has greater capacity, and the organ’s internal structure has to support an extra ton-and-a-half of pipe metal. The addition of that single stop increased the cost of the organ by $125,000, which is now divided over the “price per stop.”

Or take that 21-stop organ with the added 16Principal, but instead of housing it in an organ case, you install it in a chamber. In that comparison, the savings from not building a case likely exceeded the cost of the 16Principal.

 

Ballpark figures

On June 10, 1946, a construction manager named Joseph Boucher from Albany, New York, was sitting in seat 21, row 33 of the bleachers in Boston’s Fenway Park, 502 feet from home plate. Ted Williams hit a home run that bounced off Boucher’s head and wound up 12 rows further away. Boucher’s oft-repeated comment was, “How far away does a guy have to sit to be safe in this place.” That still stands as the longest home run hit at Fenway, and Boucher’s is a solitary red seat in a sea of blue. That’s a ballpark figure I can feel comfortable with. I have other stories saved up that I use sometimes as sassy answers when someone asks for a “ballpark figure” for the cost of moving an organ.

If you’re thinking about acquiring a vintage organ, you’ll learn that the purchase prices for most instruments are $40,000 or less. Organs are often offered “free to a good home,” especially when the present owner is planning a renovation or demolition project, and the organ has transformed from being a beloved asset to a huge obstacle. But the purchase price is just the beginning. 

If it’s an organ of average size, it would take a crew of four or five experts a week to dismantle it. Including the cost of building crates and packaging materials, dismantling might cost $20,000. If it’s an out-of-town job for the crew, add transportation, lodging, and meals, and it’ll cost more like $30,000. If it’s a big organ, in a high balcony, in a building with lots of stairs, and you can’t drive a truck close to the door, the cost increases accordingly. With the Organ Clearing House, we might joke that there’s a surcharge for spiral staircases, but you might imagine that such a condition would likely add to the cost of a project.

Once you’ve purchased and dismantled the organ, it’s likely to need renovation, releathering, and perhaps reconstruction to make it fit in the new location. Several years ago, we had a transaction in which a “free” organ was renovated and relocated for over $800,000. The most economical time to releather an organ is when it’s dismantled for relocation. Your organbuilder can place windchests on sawhorses in his shop and perform the complex work standing comfortably with good lighting, rather than slithering around on a filthy floor in the bottom of an organ.

The cost of renovating an organ is a factor of its size and complexity. For example, we might figure a basic price-per-note for releathering, but the keyboard primary of a Skinner pitman chest with its double primaries costs more than twice as much to releather as does a chest with single primary valves. A slider chest is relatively easy to recondition, unless the windchest table is cracked and split, and the renovation becomes costly reconstruction.

It was my privilege to serve as clerk of the works for the Centennial Renovation of the 100-stop Austin organ in Merrill Auditorium of City Hall in Portland, Maine. (It’s known as the Kotzschmar Organ, dedicated to the memory of the prominent nineteenth-century Portland musician, Hermann Kotzschmar.) That project included the usual replacement of leathered pneumatic actions, but once the organ was dismantled and the windchests were disassembled, many significant cracks were discovered that had affected the speed of the actions for generations. Another aspect of the condition of that organ that affected the cost of the renovation was the fact that many of the solder seams in larger zinc bass pipes were broken. The effect was that low-range pipe speech was generally poor throughout the organ, and it was costly to “re-solder” all of those joints, a process that’s not needed in many organ renovations.

It’s generally true that if an organ that’s relatively new and in good condition is offered for sale, the asking price will be higher knowing that the renovation cost would be low or minimal. But sometimes newer organs are offered for low prices because they urgently need to be moved.

Let’s consider some of the choices and variables that affect the price of an organ:

 

Reeds

With the exception of lavish and huge bass stops, like that 32-footer I mentioned above, reeds are the most expensive stops in the organ. They’re the most expensive to build, to voice, to maintain­—and when they get old, to recondition. When you’re relocating an organ, the quality of work engaged for reconditioning reeds will affect the cost of the project and is important to ensuring the success of the instrument. You would choose between simply cleaning the pipes and making them speak again by tuning and fiddling with them or sending them to a specialist who would charge a hefty fee to repair any damage, replace and voice the tongues, mill new wedges, and deliver reeds that sound and stay in tune like new.

 

Keyboards

An organbuilder can purchase new keyboards from a supplier for around $1,000 each to over $10,000. The differences are determined by the sophistication of balance, weighting, tracker-touch, bushings, and of course, the choice of playing surfaces. Plastic covered keys are cheaper than tropical woods, bone, or ivory, which is now officially no-touch according to the United States Department of the Interior (remember President Obama and Cecil the Lion). Some organbuilders make their own keyboards and don’t offer choices, but especially in renovations, such choices can make a difference.

 

Climate

If an older organ has been exposed to extremes of dryness, moisture, or sunlight, it’s likely that the cost of renovation will be higher because of the need to contain mold, splits, and weakened glue joints.

 

Casework

A fancy decorated organ case with moldings, carvings, and gold leaf is an expensive item by itself. As with keyboards, some builders have a “house style” that is built into the price of every organ they build. If you don’t want moldings, towers, and pipe shades, you can ask someone else to build the organ. Especially with electro-pneumatic organs, chamber installations are often an option, and are considerably less expensive than building ornate casework. However, I believe that it’s desirable for a pipe organ to have a significant architectural presence in its room, whether it’s a free-standing case or a well-proportioned façade across the arched opening of a chamber.

 

Console

Drawknob consoles are typically more expensive than those with stoptabs
or tilting tablets. Sumptuous and dramatic curved jambs speak to our imagination through the heritage of the great Cavaille-Coll organs, especially the unique and iconic console at Saint-Sulpice in Paris. Those dramatic monumental consoles were the successors of the seventeenth- and eighteenth-century stop panels, as found on the Müller organ at Haarlem or the Schnitger at Zwolle, both in the Netherlands. The default settings of most woodworking machinery are “straight” and “square,” and by extension, curves require more work and greater expense.

Many modern consoles and most renovation projects include the installation of solid-state controls and switching. There is a range of different prices in the choice of which supplier to use, and the cost of individual components, such as electric drawknob motors, vary widely.

 

What’s the point?

Some of the items I’ve listed represent significant differences in the cost of an organ, while some are little more than nit-picking. Saving $30 a pop by using cheap drawknob motors isn’t going to affect the price of the organ all that much. And what’s your philosophy? Is cheap the most important factor? When you’re commissioning, building, purchasing, or relocating a pipe organ, you’re creating monumental liturgical art. I know as well as anyone that every church or institution that’s considering the acquisition of an organ has some practical and real limit to the extent of the budget. I’ve never seen any of the paperwork between Michelangelo and Pope Julius II, who commissioned the painting of the Sistine Chapel, but it’s hard to imagine that the Pope complained that the scheme included too many saints and should be diminished.  

You may reply that putting a 20-stop organ in a local church is hardly on the scale of the Sistine Chapel, but I like to make the point that the heart of planning a pipe organ should be its artistic content, not its price. If you as a local organist dream of playing on a big three-manual organ, and you imagine it sounding like the real thing, and functioning reliably, you can no more press a job for $100,000 or $200,000 than you can drive away in the Bentley for $20,000.

Let’s think about that three-manual organ. Money is tight, so we think we can manage 25 stops, which means that while you’ve gained some flexibility with the third keyboard, that extra division might only have five or six stops, not enough to develop a chorus and provide a variety of 8 tone or a choice of reeds. Sit down with your organbuilder and work out a stoplist for 25 stops on two manuals, and you’ll probably find that to be a larger organ because without the third manual you don’t need to duplicate basic stops at fundamental pitches. Manual divisions with eight or ten stops are more fully developed than those of five or eight, and let’s face it, there’s very little music that simply cannot be played on a two-manual organ. Further, when we’re thinking about relatively modest organs in which an extra keyboard means an extra windchest, reservoir, and keyboard action, by choosing two manuals instead of three, you may be reducing the cost of the mechanics and structure of the organ enough to cover the cost of a few extra stops.

 

Let the building do the talking.

Because a pipe organ is a monumental presence in a building and its tonal structure should be planned to maximize the building’s acoustics, the consideration of the building is central to the planning of the instrument. It’s easy to overpower a room with an organ that’s too large. Likewise, it’s easy to set the stage for disappointment by planning a meager, minimal instrument.

Maybe you have in your mind and heart the concept of your ideal organ. Maybe that’s an organ you played while a student or a visiting recitalist. Or maybe it’s one you’ve seen in photos and heard on recordings. But unless you have the rare gift of being able to picture a hypothetical organ in a given room, there’s a good chance that you’re barking up the wrong tree.

While I state that the building defines what the organ should be, five different organbuilders will propose at least five different organs. Think about what the room calls for, think about the needs of the congregation and the music it loves, and conceive what the organ should be. Then we’ll figure out how to pay for it.

In the wind . . .

The most important reason for assessing the value of a pipe organ is for the purpose of determining appropriate insurance coverage

John Bishop
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What’s it worth?

When my kids were growing up, we were active in a small inland sailing club that ran weekly races from April to October. My son Michael was part of a group of five boys of the same age who were great competitors—one of them went on to race and win in the Olympics—and the five fathers had a blast supporting the boys as they competed in regattas in the fabled yacht clubs up and down the Massachusetts coast.  

Our club was a modest place—annual membership was less than five hundred dollars, and even when I had been elected commodore, I was not immune from the regular chore of cleaning up after the geese that occupied the docks whenever we were not on the premises. Many of the clubs we visited for races were rich and formal affairs, with stewards in uniform, and clubhouses with catering kitchens that could handle high-society wedding receptions. One breezy afternoon, my sailing-dad buddies and I were sitting in a boat in Marblehead Harbor doing duty on the safety committee, seaward of the mooring area that is home to some of the most beautiful pleasure boats in the area, and I commented that there must be a half-billion dollars tied to those moorings.

It seems as though we are preoccupied with the value of things. “That purse must have cost a thousand bucks.” “He has a million-dollar house and a hundred-thousand-dollar car.” “That organ cost forty-grand a stop.”

The other day I received a call from someone at a wrecking company in a big midwestern city. His company was about to demolish a church building and the diocese wanted bids for dismantling and preserving the organ, a 25-stop instrument built in the 1890s. He assured me that the organ was “one of the 20 best in the country, worth at least a half-million dollars.” I didn’t want the conversation to end prematurely so I kept my thoughts to myself. It would certainly cost a half-million dollars to build the same organ today, but the actual cash value is more like $25,000. It’s worth what someone would pay for it.

When you reflect on the thousands of hours it takes craftsmen to build a fine organ, and the tons of expensive materials involved, it’s hard to accept that an organ would be worth so little, but at the risk of over-simplifying, there are two basic reasons: the high cost of renovating and relocating a pipe organ, and the huge number of redundant organs available around the United States and abroad.

 

You must remember this . . . 

Yesterday there was an auction at Sotheby’s in New York and a funny-looking piece of movie-prop memorabilia sold for $500,000—plus $102,000 in commissions. It’s a good thing it was a black-and-white movie, because I doubt the sickly green-and-yellow paint job would have added to the poignancy of the moment. As a musical instrument, the Casablanca piano is hardly more than a ruse. It has only fifty notes; it’s barely the height of a cheap spinet. A short video on the website of the New York Times showed artists playing it in an opulent room at Sotheby’s—it looked a little like an adult riding a tricycle. And in the famous scene with Humphrey Bogart and Ingrid Bergman (listening to “As Time Goes By”), the guy at the piano wasn’t even really playing. Dooley Wilson, who played Sam, was a drummer, crooning to the accompaniment of an offstage instrument while he pretended to play. Of course, the scene wouldn’t have worked if it were a full-size upright (like the one off which Lauren Bacall dangled her famous gams in front of Harry Truman1) because the actors would have been hidden behind it.

I understand that the handsome price paid for the piano was not based on its artistic value. But in a world in which a cheap toy instrument would claim such a grand sum, and a magnificent pipe organ would be pretty much worthless, how do we assess and justify the value of a pipe organ?

 

How much per stop?

Think of a prospective home buyer calling a realtor and asking how much does an eight-room house cost? The realtor responds with a list of variables: how many acres of land, how many fireplaces, is there a swimming pool, central air, master bedroom suite, water view, three-car heated garage . . .? These are all basic questions that would have a big effect on the value of an otherwise simply described house. And we haven’t touched questions like new kitchen, Jacuzzi, great room with cathedral ceilings, or theater seats with cup-holders.

Asking an organbuilder “how much per stop” is equally meaningless. For fun, let’s think about an organ with three manuals and 60 stops. It might be located in a chamber with a simple façade of zinc pipes sprayed with gold paint. Compare it to what must be the most famous visual image of a pipe organ, the one built by Christian Müller in the St. Bavokerk in Haarlem, the Netherlands—you know, the one with the lions on top. (It actually has 62 stops, no borrows!) Imagine what it would cost to build that case today. Two million bucks, three million? I have no idea. But let’s say it would be two and a half million, and divide that by the number of stops. The case alone would cost $40,322.58 per stop. And we haven’t made a single tracker. Add forty grand per stop for the organ itself and we’re over eighty. Woot!2

It’s common to hear people in pipe organ circles talking about how a new organ cost “so much” per stop. It’s typically a prominent instrument in a central church or concert hall where the price of the organ has been publicized—or leaked. When the local newspaper publishes the “three-point-five” price tag of the organ, the smart organist looks at the specifications, does the math, and comes up with “so much” per stop.

I think that it’s counterproductive, even destructive, to refer to the cost of an organ as “so much” per stop. If an organist mentions at church that the organ in Symphony Hall cost fifty-grand per stop, the church looks at its 20-stop organ as a million-dollar asset, and worse, vows never to consider acquiring a new pipe organ. They fail to realize that the simple organ in their church would cost a fraction as much to replace.

 

Get real.

There are many factors that contribute to the price of an organ in the same way that a sunken living room affects the value of a house. Let’s consider a few of them.

There are plenty of organs out there that don’t have “swell boxes,” so we should consider the independent cost of building one. (We almost always call them swell boxes, even if they actually enclose a Choir, Positiv, Solo, or Echo division. “Expression enclosure” is a more accurate term.) A free-standing expression enclosure in an organ chamber might be something like a 10- or 12-foot cube of heavy hardwood construction. There’s a bank of shutters, carefully built and balanced, that are operated by a sophisticated motor. Consider the challenge of building a machine that can operate a thousand pounds of venetian blinds in the blink of an eye, silently. A well-designed and built expression enclosure might add $50,000 to the cost of an organ. And some organs have three or four of them.

When you’re counting stops on a published list, they all take up the same amount of space. But in reality, you can house hundreds of 61-note Tierces in the space it takes to mount a single octave of 16 pipes. (The largest pipe in a Tierce is not much bigger than a paper towel tube.) Think of a 20-stop organ with a Pedal division that’s based on a 16 Subbass, then add a 16 Principal as the twenty-first stop. That one extra stop doubles the size of the organ’s case, increases the organ’s wind requirements by 40 or 50 percent, and increases the scope of the instrument in just about every way. Maybe that one stop increases the price of the organ by $100,000, or even $200,000, which then is divided over the total number of stops to achieve the fabled “so much” per stop.

Take it a step further and think of a 32-footer. A 32 Double Open Diapason made of wood is worth a quarter of a million dollars when you combine the cost of pipes, windchests, racks and supports, and wind supply. The twelve largest pipes fill a large portion of a semi-trailer, and the cost of shipping, hoisting and rigging, and just plain lugging is hard to calculate. One large pipe might weigh a half-ton or more. Stops like this are relatively rare because they’re so expensive and they take up so much space—but most of the big concert hall organs have them. So that impressive “so much” per stop you read about in the paper includes dividing the cost of Big Bertha the Diapason across the rest of the stops. The price of the Tierce went up by ten grand.

When the Organ Clearing House is preparing to dismantle a pipe organ, we arrange for scaffolding and hoisting equipment, packing materials, truck transportation, and we figure the number of pipe trays we’ll need. We build trays that are eight-feet by two-feet and eight-inches deep. We usually figure one-and-three-quarter trays per real stop, which allows enough space to pack the pipes, small parts, shutters, and the odds-and-ends we call “chowder.” That figure works for lots of organs. A four- or five-rank Mixture fits in one tray, an 8 string fits in one or two trays (low EE of an 8 stop fits in the eight-trays), and an 8 Principal fits in two or three trays. Most organs can be packed in seventy or eighty trays—the lumber for that many trays costs around $3,000.  

Sometimes we’re fooled. A smallish two-manual tracker organ built in the seventies might have a 16 Bourdon and a Brustwerk division with five or six stops no larger than a skinny 8 Gedeckt. The entire Brustwerk division can be packed in two or three trays. Compare that to the mighty M.P. Möller organ, Opus 5819, built for the Philadelphia Convention Center, and now owned by the University of Oklahoma. There are four 8 Diapasons in the Great, all of large scale. We used 14 trays to pack those four stops. That organ ruined the curve—89 ranks packed in nearly 400 trays. Which organ was more expensive to build “per stop?”

 

Not responsible for valuables

Park your car at the airport or check a coat at a restaurant and you’ll read a disclaimer saying that management is not responsible for valuables. Each time we add a gadget to our daily kit, the importance of the disclaimer advances. We cringe when our car gets hit by a careless shopper parked in the next space, and we’re annoyed when a departing guest leaves a rut in the lawn. But we often fail to realize and respect the value of the organ in the church. Hardwood cases get beat up by folding chairs and organ chambers get used as closets. Façade pipes get dinged by ladders while people hang Christmas wreaths on the case, and we sweep the basement floor while the blower is running, wafting clouds of debris into the organ’s delicate actions.

There are two principal reasons for assessing the value of an organ. One is for the unfortunate moment when it must leave the building, and is being offered for sale, and the other is when an insurance policy is being established or updated. A third and less usual reason is when an organ is privately owned and is being considered as a donation to a not-for-profit institution.

If the organ is being offered for sale, especially when it has to be offered for sale, the value is defined simply by what someone would pay for it. And the closer the church building gets to demolition or a real estate closing, the lower the value of the organ. It’s usual for large and wonderful organs to sell for less than $50,000. In fact, it’s unusual for any existing pipe organ to sell for more than $50,000. Recently we organized the sale of a large three-manual tracker organ built in the 1970s—a wonderful instrument whose installation was a momentous occasion—but the price for the entire instrument was equal to the hypothetical cost of one stop in a new large organ.

You might think that a lovely 150-year-old organ by E. & G.G. Hook is priceless—but put it up for sale and you’ll find that it will claim twenty grand, far less than the price of a good piano, and a tiny fraction of the supposed value of a tinker-toy movie prop painted kindergarten green!

The most important reason for assessing the value of a pipe organ is for the purpose of determining appropriate insurance coverage. The instrument is worth the most to the congregation that is actively using and striving to care well for its organ. In 1991, Hurricane Bob raced up the East Coast, pushed a 15-foot storm surge into Buzzards Bay at the southern end of the Cape Cod Canal, and drenched eastern Massachusetts with six inches of rain along with heavy winds. The slate roof over the organ chamber in a church in suburban Boston was compromised and the nice little E.M. Skinner organ got wet. The insurance coverage was based on the original price of the organ, purchased more than 60 years earlier. The damage to the organ was moderate—limited to one end of a manual windchest and a couple offset chests, but when the cost of repairs was pro-rated against the insurance policy, the settlement offered would have covered the cost of a tuning.

If the real and current cost of replacement of a pipe organ is reflected in the insurance policy, not only will the organ be covered in the case of complete loss, but also the cost of repairing partial damage caused by fire, flood, vandalism, or even rodents would be covered. A thorough organ maintenance technician should regularly remind his clients of the importance of being sure that the organ is properly covered by insurance.

Just weeks ago, Hurricane Sandy brought terrific destruction to New England, especially New York City and the surrounding urban area in New Jersey and Connecticut. A few blocks from Grand Central Station, a section of the stone cornice of a thirty-story apartment building broke loose and plummeted through the roof of the church next door. The hole in the roof was right above the organ, while the trajectory meant that most of the rubble hit the floor in front of the organ. The stones caused minor damage to the organ, but it sure was raining hard. Hope the policy was up to date.

 

Notes

1. Before using the word gam, I checked the dictionary: “a leg, especially in reference to a woman’s shapely leg.” It’s derived from the Old French gambe, which means “leg.” Guess that’s how the Viola da Gamba got its name. Could we call the Rockettes a “Consort of Gambas?” 

2. I looked this one up too. I’ve often seen the word woot used on Facebook and assumed it means something like “woo-hoo.” Urbandictionary.com agrees, but adds that it’s also a truncation of “Wow, loot,” in the video-game community.

In the wind. . . .

John Bishop
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A Pokémon world

Last week, I visited a church in Brooklyn, New York, to talk with the rector, wardens, and organist about placing a vintage pipe organ in their historic building. After the meeting, I walked the eight blocks up Nostrand Avenue back to the subway. It was 97°, so I stopped at a corner bodega for a bottle of cold water. While I was paying, there was a series of great crashes just up the street, and I was among the crowd that gathered to see what had happened. A white box truck had rear-ended a car stopped at a traffic light and shoved that car into another that was parked at the curb. The truck must have been going pretty fast because there was lots of damage to all three vehicles—broken glass everywhere, hubcaps rolling away, mangled metal. Apparently, no one was hurt, but everyone present was hollering about Pokémon. 

“Innocent until proven guilty” is an important concept in our system of law enforcement, but it didn’t take a rocket scientist to figure that the driver of the truck was chasing a virtual-reality fuzzy something-or-other, and didn’t have his eyes on the road. When I told my son Chris about it, he asked, “So . . . , what did he catch?” 

Take away the deadly weapon of the automobile, and you’re left with at least a nuisance. Living in a big city, much of our mobile life is on foot, and we routinely cross streets with dozens of other people. It’s usual for someone to be walking toward me with ear buds pushed in far enough to meet in the middle, their nose buried in their screen. I often shout, “Heads up,” to avoid a collision. I wonder what’s the etiquette in that situation? When there’s a collision on the sidewalk and the phone falls and shatters, whose fault is it?

I know I’ve called home from a grocery store to double-check items on my list, but I’m annoyed by the person who stands in the middle of the aisle, cart askew, talking to some distant admirer. Perhaps worst is the young parent pushing a $1,000 stroller, one of those jobs with pneumatic suspension, talking on the phone and ignoring the child. No, I’m wrong. Worst is that same situation when the child has a pink kiddie-tablet of his own, and no one is paying attention to anyone. Small children are learning billions of bytes every moment—every moment is a teaching moment. It’s a shame to leave them to themselves while talking on the phone. 

The present danger is the possibility of accidents that result from inattention. The future danger is a world run by people who grew up with their noses in their screens, ignoring the world around them.

 

Starry eyes

An archeological site at Chankillo in Peru preserves the remains of a 2,300- year-old solar observatory comprising thirteen towers whose positions track the rising and setting arcs of the sun, their eternal accuracy confirmed by modern research. There are similar sites in ancient Mesopotamia. If I had paid better attention to my middle school Social Studies teacher, Miss Wood, who nattered on about the Tigris and the Euphrates Rivers as if she were reading from a phone book, I’d have a better understanding of modern Iraq and the tragedy of the current destruction of ancient sites there. 

Early astronomers like Aristotle (around 350 BC) and Ptolemy (around 150 AD) gave us the understanding of the motions of celestial bodies. I imagine them sitting on hillsides or cliffs by the ocean for thousands of nights, staring at the sky and realizing that it’s not the stars, but we who are on the move. I wonder if there’s anyone alive today with such an attention span.

 

The man from Samos

In April of 2014, Wendy and I and three other couples, all (still) close friends, chartered a 60-foot sailboat for a week of traveling between Greek Dodecanese Islands in the Aegean Sea. These islands are within a few miles of Turkey, and many of us are increasingly familiar with that region as the heart of the current refugee crises. The island of Lesbos has a population of 90,000, and 450,000 refugees passed through in 2015. Lesbos was not part of our itinerary, but it’s adjacent to other islands we visited. We visited Patmos, where St. John the Divine, sequestered in a cave, received the inspiration we know as the Book of Revelation, but for me, our visit to Samos was a pilgrimage.

Pythagoras is my hero. He was a native of Samos who lived from 570 BC to 495 BC. He gave us the eponymous theory defining the hypotenuse of the right triangle, and importantly to readers of The Diapason, he defined musical tone and intervals in terms of mathematics that led directly to our modern study of musical theory. He was the direct forebear of the art of music. Approaching the island from the north, we entered the harbor of the main town (also called Samos) to be welcomed by a statue of Pythagoras. It shows the great man posed as one side of a right triangle, a right triangle in his left hand, and right forefinger pointing skyward toward a (compact fluorescent) light bulb. Okay, okay, it’s pretty tacky—even hokey, but you should see the Pythagoras snow-globe I bought there that graces the windowsill in my office.

Pythagoras deduced the overtone series by listening to blacksmiths’ hammers and anvils; he realized overtones are a succession of intervals defined by a mathematical series, and you cannot escape that his genius was the root of music. He noticed that blacksmiths’ hammering produced different pitches, and he first assumed that the size of the hammer accounted for the variety. It’s easy to duplicate his experiment. Find any object that makes a musical tone when struck—a bell, a cooking pot, a drinking glass. Hit it with a pencil, then hit it with a hammer. You’ll get the same pitch both times, unless you break the glass. So the size of the anvil determines the pitch. 

But wait, there’s more. Pythagoras noticed that each tone consisted of many. He must have had wonderful ears, and he certainly was never distracted by his smart phone ringing or pushing notifications, because he was able to start picking out the individual pitches. Creating musical tones using a string under tension (like a guitar or violin), he duplicated the separate tones by stopping the string with his finger, realizing that the first overtone (octave) was reproduced by half the full length (1:2), the second (fifth) resulted from 2:3, the third by 3:4, etc. That numerical procession is known as the Fibonacci Series, named for Leonardo Fibonacci (1175–1250) and looks like this:

1+1=2

1+2=3

2+3=5

3+5=8, etc., ad infinitum.

The Fibonacci Series defines mathematical relationships throughout nature —the kernels of a pinecone, the divisions of a nautilus shell, the arrangements of seeds in a sunflower blossom, rose petals, pineapples, wheat grains, among countless others. And here’s a good one: count out how many entrances of the subject in Bach’s fugues are on Fibonacci numbers. 

 

Blow, ye winds . . . 

If you’ve ever blown on a hollow stem of grass and produced a musical tone, you can imagine the origin of the pipe organ. After you’ve given a hoot, bite an inch off your stem and try again: you’ll get a different pitch. Take a stick of bamboo and carve a simple mouthpiece at one end. Take another of different length, and another, and another. Tie them together and you have a pan-pipe. You’re just a few steps away from the Wanamaker!

I have no idea who was the first to think of making a thin sheet of metal, forming it as a cylinder, making a mouthpiece in it, devising a machine to stabilize wind-pressure, and another machine to choose which notes were speaking, but there’s archeological evidence that people were messing around like that by 79 AD, when Mt. Vesuvius erupted, destroying the city of Pompeii, and preserving a primitive pipe organ. And 350 years earlier, in Alexandria, Egypt, the Hydraulis was created, along with visual depictions accurate enough to support the construction of a modern reproduction.

I’m sure that the artisans who built those instruments were aware of Pythagoras’s innovations, and that they could hear the overtones in the organ pipes they built, because those overtones led directly to the introduction of multiple ranks of pipes, each based on a different harmonic. Having five or six ranks of pipes playing at once produced a bold and rich tone we know as Blockwerk, but it was the next smart guy who thought of complicating the machine to allow single sets of pipes to be played separately­—stop action. They left a few of the highest pitch stops grouped together—mixtures. Then, someone took Pythagorean overtones a step further and had those grouped ranks “break back” a few times, stepping down the harmonic series, so the overtones grew lower as you played up the scale.

Here’s a good one: how about we make two organs, one above the other, and give each a separate keyboard. How about a third organ with a keyboard on the floor you can play with your feet? 

As we got better at casting, forming, and handling that metal, we could start our overtone series an octave lower with 16-foot pipes. Or 32 . . . I don’t know where the first 32-foot stop was built or who built it, but I know this: he was an energetic, ambitious fellow with an ear for grandeur. It’s ferociously difficult and wildly expensive to build 32-foot stops today, but it was a herculean task for seventeenth- or eighteenth-century workers. And those huge shiny pipes were just the start. You also had to trudge out in the forest, cut down trees, tie them to your oxen, drag them back into town, and start sawing out your rough lumber to build the case for those huge pipes.

How long do you suppose it took workers to cut one board long enough to support the tower crown over a 32-foot pipe using a two-man saw? It’s a good thing they didn’t have smart phones because between tweets, texts, e-mails, and telemarketers, they’d never have finished a single cut.

It’s usual for the construction of a monumental new organ to use up 50,000 person hours or more, even with modern shortcuts such as using dimension lumber delivered by truck, industrial power tools, and CNC routers. How many hours did the workshops of Hendrik Niehoff (1495–1561) or Arp Schnitger (1648–1719) put into their masterpieces? And let’s remember that Schnitger ran several workshops concurrently and produced more than 150 organs. Amazing. He must have been paying attention.

 

Pay attention

The pipe organ is a towering human achievement. It’s the result of thousands of years of experimentation, technological evolution, mathematical applications, and the pure emotion of musical sensibilities. Just as different languages evolved in different regions of the world, so did pipe organs achieve regional accents and languages. The experienced ear cannot mistake the differences between a French organ built in 1750 from one built in northern Germany. The musicians who played them exploited their particular characteristics, creating music that complemented the instruments of their region. 

Let’s think for a minute about that French-German comparison. Looking at musical scores, it’s easy to deduce that French organs have simple pedalboards. But let’s go a little deeper. It’s no accident that classic French organ music is built around the Cornet (flue pipes at 8, 4, 223, 2, 135). Those pitches happen to be the fundamental tone and its first four overtones, according to Pythagoras, and they align with the rich overtones that give color and pizzazz to a reed stop. The reeds in those organs are lusty and powerful in the lower and middle octaves, but their tone thins out in the treble. Add that Cornet, and the treble blossoms. Write a dialogue between treble and bass using the Trompette in the left hand and the Cornet in the right. (Can you say Clérambault?) Add the Cornet to the Trumpet as a chorus of stops (Grand Jeu). And while you’re fooling around with the five stops of the Cornet, mix and match them a little. Try a solo on 8-4-223 (Chant de Nazard). How about 8-4-135(Chant de Tierce)? It’s no accident. It’s what those organs do!

History has preserved about 175 hours of the music of J. S. Bach. We can only wonder how much was lost, and certainly a huge amount was never written down. But 175 hours is a ton of music. That’s more than a non-stop seven-day week. I guess Bach’s creativity didn’t get to rest until about 9:00 a.m. on the eighth day! We know he had a busy life, what with bureaucratic responsibilities (he was a city employee), office work, rehearsals, teaching, and all those children. When he sat down to write, he must have worked hard.

Marcel Dupré was the first to play the complete organ works of Bach from memory in a single series of recitals. We know he had a busy life as church musician, professor, mentor, composer, and prolific performer. When he sat down to practice, he must have worked hard.

In 1999, Portugese pianist Maria João Pires was scheduled to perform a Mozart concerto with the Amsterdam Concertgebouw Orchestra conducted by Riccardo Chailly. She checked the orchestra’s schedule to confirm which piece, and prepared her performance. Trouble was, the published schedule was wrong. The first performance was a noontime open rehearsal. Chailly had a towel around his neck, and the hall was full of people. He gave a downbeat and the orchestra started playing. A stricken look appeared on Pires’ face, and she put her face in her hands. She spoke with Chailly over the sound of the orchestra, saying she had prepared the wrong piece. It’s not easy to tell what he said, but I suppose it was something like, “Let’s play this one!” And she did. Perfectly. You can see the video by typing “Wrong Concerto” into the YouTube search bar. Maybe Ms. Pires wasn’t paying attention when she started preparation for that concert, but she sure was paying attention when she learned the D-minor concerto. It was at the tip of her fingers, performance ready, at a panicky moment’s notice.

Often on a Sunday morning, my Facebook page shows posts from organ benches. Giddy organists comment between churches on the content of sermons, flower arrangements, or the woman with the funny hat. Really? Do you have your smart phone turned on at the console during the service? If your phone is on while you’re playing a service, is it also on while you’re practicing? I suppose the excuse is that your metronome is an app? Oh wait, you don’t use a metronome? To paraphrase a famous moment from a 1988 vice-presidential debate, I knew Marcel Dupré. Marcel Dupré was a friend of mine. You’re no Marcel Dupré.1

 

A time and a place

I love my smart phone. In the words of a colleague and friend, I use it like a crack pipe. I read the news. I order supplies and tools. I look up the tables for drill-bit sizes, for wire gauges, for conversions between metric and “English” measurements. I do banking, send invoices, find subway routes, get directions, buy plane tickets, reserve hotel rooms, and do crossword puzzles. I check tide charts, wind predictions, and nautical charts. I text, tweet, e-mail, telephone, and “go to Facebook.” I listen to music and audio books, check the weather, look for restaurants, pay for groceries, and buy clothes.

The people who invented and developed our smart phones must have been paying attention to their work. It’s a world of information we carry in our pockets, and there must be millions of lines of code behind each touch of the screen. I’m grateful to have such an incredible tool, but I’m worried about its effect on our lives. We know a lot about the stars and orbiting planets, but I’m sure we don’t know everything. I hope there’s some smart guy somewhere, sitting on a remote hillside with no phone, wondering about something wonderful.

I’m not pushing strollers so often anymore, but I keep my phone in my pocket when our grandchildren are visiting. I keep my phone in my pocket when I’m walking the dog because it’s fun to be with him. And I keep my phone in my pocket when I’m walking the streets of the city alone. I wouldn’t want to miss someone doing something stupid because they weren’t paying attention. Hope they don’t drop their phone. ν

 

Notes

1. Poetic license: truth is, I never met Marcel Dupré.

 

In the wind . . .

Servicing the awe-inspiring buildings in which we work requires that we avoid taking unnecessary risks

John Bishop

John Bishop is executive director of the Organ Clearing House

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Sacred spaces

Several years ago the Organ Clearing House was assisting a colleague firm installing a large renovated organ in one of our country’s great cathedrals. Halfway through the project we encountered a logistical issue requiring a hastily arranged conversation with the cathedral administration. We set up a dozen folding chairs encircling a large bronze medallion inlaid in the chancel floor, and sat there with legal pads on our laps working through the issue of the day. It was an intense and complicated conversation, but as colleagues and clients worked the problem, I was struck by the majesty of the place. The vaulted ceiling soared 120 feet above our heads. Surrounded by opulent carvings and priceless artworks, we were sitting in one of the grandest interior spaces ever built. A staccato comment, a laugh, even a cough reverberated almost endlessly. What a wonderful place for a meeting.

With the problem solved, we had a round of handshakes, a few quips, and we went back on the job with new marching orders. I was left with a strong sense of the privilege of working in such a place—sharing responsibility for the stewardship of the magnificent organ and all the other liturgical art that combines to make such a great space so special, so sacred.

When my kids were growing up, they teased me for navigating by steeples. I cared for dozens of organs in the Boston area, so if we ever lost our way in a strange neighborhood, I would catch sight of a distant steeple and head for it, knowing I’d soon be back on familiar turf. I still do that.  

A lifetime of working in and around pipe organs has meant a lifetime of working in church buildings. They’re not all as grand as that great cathedral, but most of them are wonderful in some way. Some are beautiful little antique buildings out in the country, some are big broad-shouldered affairs with Romanesque arches, some are stately, and while we can’t deny that some are dowdy or even tacky, there’s something special about sacred spaces.

 

Creepy corners

Once you’ve taken in the grandeur of the sanctuary, you’re likely to find little shops of horrors when you go behind the scenes. Last week we were working in a large stone building with a heavily decorated interior. To the right of the classic Protestant Platform there’s a door that leads to a little corridor that connects an outside door, sacristy, and restroom (complete with bible and hymnal!) to an awkward stairway that leads to the choir loft and a strange upstairs office. I imagine that the architect didn’t bother to draw in the stairs—he just provided a space with specified floor levels and expected the carpenter to fill in the blanks. It’s as treacherous a passage as you’d care to find—a couple angled half-stairs filling in the odd spaces, and there’s virtually no lighting. I imagine that plenty of choir members have stumbled there in the dark. It would never pass the scrutiny of a modern building inspector.

In older buildings we find hundred-year-old knob-and-tube electrical wiring still in use, hulking ancient carbon-smelling furnaces that have been converted from coal to gas, and thousand-pound bells hung in rickety wood frames directly above the pipe organ. One organ I cared for, now long replaced, was knocked out of tune every time they rang the bell. Another is plagued by the rainwater that comes down the bell rope.

Go inside the organ chamber and you find old gas light fixtures that predate Thomas Edison, even nineteenth-century batteries piled in a corner, left over from the days before Intelli-power, Astron, and Org-Electra rectifiers, even before belt-driven DC generators.

As Boston is America’s earliest center of serious organbuilding, many instruments dating from before the Civil War are still in use in rural churches around New England. I’ve seen hundred-fifty-year-old candles snugged in the tops of wood pipes, secured to the stoppers by the drip method, left from tuners of bygone eras. Imagine spending your time tuning by candlelight inside organs. How easy it would be to be distracted by a cell phone call or text message, and let the candle burn down, starting a fire in the chamber. Gives me the willies!

Many commercial and industrial buildings have purposeful departments that employ stationary engineers who plan and supervise the care of the machinery. When you have equipment such as elevators, furnaces, air conditioners, lighting controls, pumps, and pressure vessels, it makes sense to provide a maintenance budget and staff to ensure safe and reliable operation.

We find this style of operation in large and prosperous urban churches, but it’s more usual to find that a church building and its operating equipment are maintained by a volunteer property committee. If a church member who lives down the street buys a new snow-blower, he’ll be on the property committee before he can put down his gas can. It’s wonderful to see the dedication of church members who volunteer to help run the place, but there is a time and a place for specific expertise, and the scale of the equipment found in a large church building is often greater than the skills of those who are responsible.

How many times has an organ tuner encountered a local custodian who simply doesn’t understand how to operate the mighty boiler in the basement? Last week, in that church with the funky stairway, I asked the custodian to have the heat up for the two days I planned to spend tuning. He said it would be no problem—he’d just set the timer. When I showed up in the morning it was chilly in the sanctuary, so I tracked down the custodian. He scurried to the boiler room, emerging a few minutes later mumbling something about “daylight saving time.” No question about it—he had no idea what he was doing. I know that because I’ve been tuning there for almost 30 years and he’s been messing up the heat for longer than that.

 

The high-wire act

A large pipe organ is a magnificent structure. A beautiful architectural organ case often serves the function of a steeple—it carries one’s eyes heavenward. There’s a special sense of grandeur and spaciousness when you change keyboards between a Rückpositiv that stands on the floor of the balcony and the lofty Swell, or Oberwerk, 30 feet above. Walk around behind the organ and you’ll find a spindly series of ladders and walkways worthy of the Flying Wallendas.

Fifteen years ago, I was curator of the Aeolian-Skinner organ in the First Church of Christ, Scientist (The Mother Church) in Boston—one of the world’s great instruments. It has more than 12,000 pipes, about 240 ranks, including 41 reeds. It’s three stories high—there’s a full-length 32-foot stop in the Swell box. When walking across the top floor of the organ from Bombarde to Hauptwerk to Great, one is treated to a magnificent view of the auditorium that seats more than 3,000 people. As organs go, the structure is pretty sturdy, but there are some places where you have to step across some big holes.  

There’s a place on the top floor of the glorious Newberry Memorial organ in Woolsey Hall at Yale University where you have to hold your breath and leap through thin air. Across the top of that heroic façade you’re actually looking down on the chandeliers! It reminds me of the scene in Indiana Jones and the Last Crusade, when Indiana is forced to lead the evil Donovan and Elsa across the abyss to the chamber that houses the Holy Grail. Led by the clues in his father’s (Sean Connery) notebook, Indiana comes to a huge open space, closes his eyes, and trusting the notebook, leans forward to be miraculously supported by a bridge that appears as an optical illusion. Once he has drunk from the carpenter’s cup, poured Holy Water on his father’s gunshot wound, and failed to save Elsa who falls as the temple collapses because she won’t surrender the cup, he can go ahead and tune the Solo Trumpet, Trumpet Harmonique, and the Tuba Mirabilis on 25-inch wind. Next . . . next . . . next . . . 

More than 30 years ago, I was working with my mentor on a renovation of a large organ in Cleveland. The access to the top of the organ was a tall vertical ladder nestled in sort of a four-sided chute formed by the ladder, two pipes of the 16-foot Open Wood Diapason, and the wall of the chamber—narrow enough to allow the trick of climbing down the ladder with my hands full, sliding my rump against the wall. But once, late on a Friday and eager to get on the road, I jumped onto the ladder with my hands full, missed my footing and shot straight down, landing hard on my feet.  

I was young then. There was a jolt when I landed, but I gathered my senses, loaded the car, and drove home. My teeth stopped rattling a couple days later.

 

Safety in the workplace

In the summer of 2010, the International Society of Organbuilders and the American Institute of Organbuilders held a joint convention in Montreal. It was a treat to participate in such a large gathering of colleagues from around the world. We heard some spectacular organs and marvelous artists, and I was especially pleased to finally have a chance to visit the workshops of Casavant Frères in Saint-Hyacinthe, Quebec, where so many wonderful organs have been built across the turns of two centuries. It’s another sort of hallowed space.  

In one of the daily programs that took place in the hotel meeting rooms, I sat on a panel with several colleagues discussing pipe organ maintenance. Each of us had chosen a particular subject to address, with the moderator blending our presentations into an open discussion.

Mark Venning, then managing director of Harrison & Harrison of Durham, England, sat next to me on the panel. Harrison & Harrison has an impressive tour of organ maintenance that includes the care of their organs in Westminster Abbey in London, and King’s College, Cambridge—to name a couple high points! (So they tuned for Will and Kate’s wedding—remember the verger’s cartwheel?) Mark chose to discuss safety inside pipe organs. He spoke about how the ladders and walkways that allow access to the interiors of many organs are often rickety and dangerous. He encouraged his fellow organbuilders to avoid taking unnecessary risks, even if it means insisting that your clients provide budgets for the construction of new and safer access.

Throughout the twentieth century, the modern labor movement has taken great strides emphasizing safety in the workplace. The first step was limiting the length of the workday so people in reasonably good health can still be alert and focused in the later hours of the day. We have safety guards on machines, safety glasses, hearing protection, fire and smoke alarms, eyewash stations, steel-toed boots, and rubber floor mats to limit fatigue in feet, legs, and back. In fact, sometimes all the safety equipment gets in the way. If I had a nickel for each time my safety glasses have fogged up while running the table saw I’d have a lot of nickels.

Most modern organbuilders take great care to construct safe access to all areas and components of their instruments. Sturdy ladders hang from steel hooks so they cannot slip. Walkboards have handrails. But a century ago, no such standards were in place. If a candle was all you had for lighting, your attitude toward fire protection would be looser than what we’re used to today. A simple ladder might lean against the large wood pipes at the back of the organ for access to an upper-level Swell box, providing that you could clamber off the top of the ladder and climb up the pipes as if they were stairs. That all might have been okay when the organ was new, but add 140 years to the story and things might have gotten a little rickety.

We care for an instrument in Boston that was built in the early 1970s, with a snazzy contemporary case that gives a modern interpretation of the classic Werkprinzip concept. The lowest keyboard plays the Rückpositiv, located on the edge of the balcony behind the organist. The top keyboard plays the Swell, which is behind shutters just above the keydesk. And the middle keyboard plays the Great, located above the Swell. The Pedal is in a separate free-standing case. When you walk behind the main case, you see a ladder fastened to a concrete wall on which you can climb to two walkboards. The first, about five feet up, allows access to doors that open to expose the tracker action and pallet boxes of the Great. Climb up another story to the walkboard from which you tune the Great. Let’s guess it’s twelve feet up, about the height of a usual balcony rail. When you first get on, it seems wide enough—maybe two feet. But, there’s no railing. Move around up there, opening and closing the wide access doors, sitting for hours tuning the Mixture that’s buried behind two reeds, and you realize that it would be mighty easy to miss concentration and step off the edge.  

And—the entire case is coated with gray semi-gloss paint with a fine surface. The dust that collects on that painted walkboard feels like ball bearings under your feet. Are you risking your life to tune a Trumpet?

I started this ramble thinking of the awe-inspiring buildings in which we work, and it follows that sometimes we are working up against priceless fixtures. In that same great cathedral, we build a studs-and-plywood house around the ten-ton, 40-saint marble pulpit so there would be no chance of dinging a carved nose with a Violone pipe. Years ago, my first wife Pat was working on our crew as we dismantled a large organ for releathering. Suddenly she announced that she finally understood organbuilding: “Organbuilding is carrying long, heavy, dirty, unbalanced things with lots of sharp stuff poking out of them, down rickety ladders, past Tiffany windows!”

A little rule that’s common among organbuilders says that you pay attention to each step you take, especially if you’re not familiar with the organ, and especially if the organ is old. You really can’t assume that the guy who hung that ladder in 1897 was thinking about you in 2013, or that he really knew what he was doing in the first place. He had never heard of the Occupational Safety and Health Administration.

Friday morning, my colleague Joshua Wood and I went to do a service call on a 130-year-old organ near home. The organist had noted that there was a cipher in the bass octave of the Great, so I took a couple tools and climbed to the walkboard. Josh poked around the notes and we found that several were ciphering. Because they were chromatic neighbors I guessed that it might be the adjustment of the big action rail that was causing the cipher. I retraced my steps to the ladder and stepped out on the two-by-four-ish beam on which it was leaning. I heard a loud crack, a series of rattles, and a heavy thump. The thump was me, landing flat on my back after a six-foot drop. I was Galileo’s cannonball.

I am no longer young. If it’s middle age, I guess I’ll live past 110. (The next day was my birthday.) Breath came back slowly, but pain was prompt.

I lay on the walkboard that covers the pedal tracker action—thank goodness that held—for twenty minutes or so. Before trying to stand, I wondered if we’d need to call for help, but strangely, I thought of the organ. We’ve all seen the teams of firefighters and EMTs arriving at a scene, big swarthy guys in steel-toed boots with 40 pounds of tools hanging off their belts. No way should they come pounding into that sweet antique organ. So with Josh’s support, and perhaps foolishly, I found my feet, left the organ, and lay on the floor of the choir risers until the friendly crew arrived. Funny, turned out that two of them had grown up in that church.

Wendy joined me in the emergency room for a lengthy day of poking, waiting, prodding, waiting, wondering. I got off with a titanium brace, a cracked vertebra, bruises, strained muscles, and a potent prescription. As I write now, I’m waiting for the clinic to call to give me an appointment for follow-up with the spine guy. I’m hurt, but I got off easy.

The auto mechanic two beds over? Not so much. He caught his hoodie in the turning driveshaft of a car he was working on, was flown by helicopter from Cape Cod to Boston, and was being rushed into surgery to correct his broken neck. Woof. I’ll be fine.

 

Note

1. The Skinner Organ Company instrument in West Medford, Massachusetts (Opus 692) was installed in 1928 by a team from the factory in Dorchester that included a 24-year-old Jason McKown. I met Jason in 1984 (he was eighty!) when I succeeded him as curator of the organs at Trinity Church, Copley Square and the First Church of Christ, Scientist (the Mother Church). Jason had cared for the Trinity Church organ for 50 years, and the Mother Church organ since it was installed in 1952. He subsequently introduced me to many other churches, including that in West Medford. He told me that Mr. Skinner had personally worked on the installation of that organ. I took over its maintenance in 1984—there have been only two technicians caring for that organ for over 85 years.

 

In the Wind

John Bishop
Default

What a winter.

Our son Andy writes for a daily news service at the State House in Boston and gets to see his prose online and in print the next day. Writing for a monthly journal is a little different. You’re reading in May, and I can only hope that the giant gears that drive the universe continued to function properly and the weather is warm. 

I’m writing in March on the first day of spring. I’m in my office at our place in Newcastle, Maine, looking across the Damariscotta River, a dramatic and beautiful tidal river. We’re eight miles up from the Gulf of Maine and the Atlantic Ocean, and the tide chart says that we’ll have an eleven-foot high tide just before 11:00 this morning, a couple hours from now, so the ice floes are drifting north toward town with the tide. I can barely see the sea ice on the river, because my usual view is all but obscured by the piles of snow outside.

A couple weeks ago, the weatherman predicted a heavy snowfall, to be followed by rain. There were already several feet of snow on the roof, so we hired some local guys to shovel the roof, fearing that the added weight would be too much. Those piles added to the drifts already in place to leave six feet on the ground outside my windows.

We’ve spent a lot of time outside this week in eight-degree weather because we have a new puppy, and in spite of the cold, we’ve heard the calls of eastern phoebes and cardinals right on schedule. The wicked weather must be unsettling for these denizens of springtime in coastal Maine. Think of the poor ovenbirds, who get their name from the oven-shaped nests they build on the forest floor.

We’ve had about 90 inches of snow here this winter, which is plenty, but it’s a foot-and-a-half short of the all-time record of 108 inches set in Boston this year. Last weekend, friends and family there were rooting for the predicted snowfall to exceed the two inches needed to break the record—“if we’ve been through all this . . . .” I trust they’re happy with their bitter reward. 

Subways stopped running, roofs collapsed, and houses burned down because fire hydrants were buried deep beneath the snow. Local school officials are debating whether to bypass legislated minimum numbers of school days, because it’s simply not possible to make up all the days lost to cancellations through the winter. And the New York Times quoted the city’s guide to street defects, which defines a pothole as “a hole in the street with a circular or oval-like shape and a definable bottom.” An actionable pothole is one that’s at least a foot in diameter and three inches deep. I wonder what they call a hole that doesn’t have a definable bottom.

 

But baby, it’s cold outside.

It’s been a terrible season for pipe organs. Long stretches of unusually cold weather have caused furnaces to run overtime, wringing the last traces of moisture out of the air inside church buildings. Concerts have been postponed, and blizzards have sent furious drafts of cold air through old stained-glass windows, causing carefully regulated and maintained pitches to go haywire. One Saturday night, a colleague posted on Facebook that the pastor of his church called saying there would be “no church” tomorrow. The sewers had frozen and the town closed public buildings.

One organ we care for outside of Boston developed a sharp screech lasting a few seconds when the organ was turned on or off. After spending a half hour tracking it down, it was easy to correct by tightening a couple screws and eliminating a wind leak, but it had been a startling disruption on a Sunday morning. 

A church in New York City that is vacant because it merged with a neighboring congregation suffered terrible damage when an electric motor overheated, tripping a circuit breaker for the entire (poorly designed) hot-water heating system. Pipes froze and ruptured, the nave floor flooded ankle deep, and the building filled with opaque steam. A week later, when heat was restored, steam vented, and water drained and mopped up, the white-oak floorboards started expanding, buckling into eight-inch-high mounds, throwing pews on their backs, and threatening to topple the marble baptismal font.

My phone line and e-mail inbox have been crackling with calls about ciphers and dead notes, swell boxes sticking and squeaking, and sticking keys—all things that routinely happen to pipe organs during periods of unusual dryness. And I can predict the reverse later in the season—maybe just when you’re finally reading this—as weather moderates, humidity increases, heating systems are turned off, and organs swell up to their normal selves.

 

The floor squeaks, the door creaks . . . 

So sings the hapless Jud Fry in a dark moment in the classic Broadway musical, Oklahoma!. He’s lamenting his lot, pining after the girl, and asserting to himself that the smart-aleck cowhand who has her attention is not any better than he. The lyrics pop into my head as I notice the winter’s effects on the woodwork that surrounds me. We have a rock maple cutting board inserted in the tile countertop next to the kitchen sink. The grout lines around it are all broken because the wood has shrunk. The hardwood boards of the landings in our stairwells are laid so they’re free to expand and contract. Right now, there are 5/16′′ gaps between them—by the time you read this, the gaps will be closed tight. I need to time it right to vacuum the dust out of the cracks before they close. And the seasonal gaps between the ash floorboards of the living and dining rooms are wider than ever.

The teenager trying to sneak up the front stairs after curfew is stymied in winter, because the stair treads and risers have shrunk due to dryness, and the stairs squeak as the feet of the culprit cause the separate boards to move against each other.

The other day, working in my home office in New York, I heard a startling snap from my piano, as if someone had struck it with a hammer. I ran up the keyboard and found the note that had lost string tension. Plate tectonics. Good thing the tuner is coming next week. 

As I move around in quiet church buildings, I hear the constant cracking and popping of woodwork changing size. Ceiling beams, floorboards, and pews are all susceptible. But it’s inside the organ where things are most critical. The primary rail of a Pitman chest shrinks a little, opening a gap in the gasketed joint, and three adjacent notes go dead in the bass octave of the C-sharp side because the exhaust channels can no longer hold pressure. And there’s a chronic weather thing in Aeolian-Skinner organs: The ground connections to the chest magnets are only about a quarter-inch long, and near the screws that hold the magnet rails to the chest frames, where the wood moves with weather changes, the ground wires yank themselves free of their solder and cause dead notes.

 

Let’s talk about pitch.

Fact: Temperature affects the pitch of organ pipes. You might think this is because the metal of the pipes expands and contracts as temperature changes, and while that is technically true, the amount of motion is so slight as to have minimal effect. The real cause is changes in the density of the air surrounding and contained by the organ’s pipes. Warmer air is less dense. If a pipe is tuned at 70°, it will only be in tune at that temperature. If that pipe is played at 60°, the pitch will be lower; if it’s played at 80°, the pitch will be higher.

While it’s true that all the pipes involved in a temperature change will change pitch together (except the reeds), it’s almost never true that a temperature change will affect an entire organ in the same way. In a classic organ of Werkprinzip design, with divisions stacked one above another, a cold winter day might mean that the pipes at the top of the organ are super-heated (because warm air rises), while the pipes near floor level are cold. 

There are all kinds of problems inherent in the classic layout of a chancel organ with chambers on each side. If the walls of one chamber are outside walls of the building, while the walls of the other back up against classrooms and offices, a storm with cold winds will split the tuning of the organ. I know several organs like this where access is by trap doors in the chamber floor. Leaving the trap doors open allows cold air to “dump” into the stairwells, drawing warmer air in through the façade from the chancel. This helps balance temperature between two organ chambers.

One organ I care for has Swell and Great in the rear gallery on either side of a large leaky window. The pipes of the Swell are comfortably nestled inside a heavy expression enclosure, while the Great is out in the open, bared to the tempest. A windy storm was all it took to wreck the tuning of the organ as cold air tore through the window to freeze the Great. It only stayed that way for a few days, until the storm was over, the heating system got caught up, and the temperatures around the building returned to usual. Trouble was, the organ scholar played his graduate recital on one of those days, and there was precious little to do about it.

One of the most difficult times I’ve had as an organ tuner was more than twenty years ago, caring for a huge complicated organ in a big city. The church’s choir and organists were doing a series of recording sessions in July, preparing what turned out to be a blockbuster bestselling CD of Christmas music, on a schedule for release in time for the holiday shopping season. It was hot as the furnaces of hell outside, hotter still in the lofty reaches of the organ chambers, and the organ’s flue pipes went so high in pitch that the reeds could not be tuned to match. It was tempting to try, and goodness knows the organists were pressing for it, but I knew I was liable to cause permanent damage to the pipes if I did. It was a surreal experience, lying on a pew in the wee hours of the morning, wearing shorts and a tee-shirt, sweating to the strains of those famous arrangements by David Willcocks and John Rutter rendered on summertime tuning.

 

Mise en place

I started doing service calls maintaining pipe organs in 1975, when I was apprenticing with Jan Leek in Oberlin, Ohio. Jan was the organ and harpsichord technician for the Oberlin College Conservatory of Music, and had an active maintenance business on the side. I worked with him three days a week when I was a student, and loved driving around the countryside and rolling from church to church. (Many of my peers were trapped on that rural campus by a college that didn’t allow students to own cars.) I suppose in those days we did fifty or sixty service calls each year, and as my career expanded, there were some periods during which I was caring for well over a hundred organs, visiting each at least twice a year. I suppose the annual average has been around sixty a year, or 2,400 since those naïve days in Ohio. 

Each organ has peculiarities, and each has its own environment of climate and acoustics. The tuner-technician has to learn about each organ and how it relates to the building, as well as learning the ropes of the building itself. Over the years you learn where to find a stepladder, how to get the keys to the blower room, and most important, where to find the best lunch in town.1

And speaking of peculiarities, organists crown ’em all. A professional chef has his mise en place—his personal layout of ingredients, seasonings, and implements that he needs to suit his particular style of work and the dishes he’s preparing. It includes his set of knives (don’t even think of asking to borrow them!), quick-read meat thermometer, whisk, along with an array of seasonings, freshly chopped or minced garlic, parsley, basil, ground black and white peppercorns, sea salt, and several different cooking oils. 

Likewise, the organist, both professional and amateur, sets up his own mise en place—cluttering the organ console with hairbrushes, nail clippers, sticky-notes, paper clips, cough drops, bottled water, even boxes of cookies. Sometimes the scenes are surprisingly messy, and these are not limited to those consoles that only the organist can see. Next time you’re at the church, take a look at your mise en place. Does it look like the workplace of a professional? If you were a chef, would anyone seeing your workspace want to eat your food? 

Care for the space around the organ console. Ask your organ technician to use some furniture polish, and to vacuum under the pedalboard.2 Keep your piles of music neat and orderly, or better yet, store them somewhere else. Remember that what you might consider to be your desk or workbench—the equivalent of the chef’s eight-burner Vulcan—is part of everyone’s worship space.

 

Everywhere you go, there you are.

There’s another aspect of visiting many different churches that troubles me more and more. As a profession, we worry about the decline of the church, and the parallel reduction in the number or percentage of active churches that include the pipe organ and what we might generally call “traditional” music. But as I travel from one organ loft to another, peruse Sunday bulletins and parish hall bulletin boards, I’m struck by how much sameness there is. What if suddenly you were forbidden to play these pieces:

Jesu, Joy of Man’s Desiring (you know the composer)

Toccata and Fugue in D Minor (ibid.) 

Nun danket alle Gott . . . (which of the two?)

Sheep may safely graze

Canon in D

Hornpipe

Etc., etc.

 

Each of these is a beautiful piece. There are good reasons why we all play all of them, and congregations love them. The same applies to choral music. We could get the sense that if we took away “ten greatest hits,” no organist could play for another wedding. Take away a different “ten greatest hits,” and no organist could play another ordinary Sunday worship service.

I know very well that when you’re planning wedding music, it’s difficult to get the bride (or especially, the bride’s mother) to consider interesting alternatives. And I know very well that when you play that famous Toccata, the faithful line up after the service to share the excitement. It would be a mistake to delete those pieces from your repertoire.

But if we seem content to play the same stuff over and over, why should we expect our thousands of churches to spend millions of dollars acquiring and maintaining the tools of our trade? Many people think that the organ is yesterday’s news, and I think it’s important for us to advocate that it’s the good news of today and tomorrow.

The grill cooks in any corner diner can sustain a business using the same menu year after year, but if the menu in the “chef restaurant” with white tablecloths and stemware never comes up with anything new, their days are numbered.

This summer, when many church activities go on vacation, learn a few new pieces to play on the organ. Find a couple new anthems to share with the choir in the fall. You might read the reviews of new music found each month in the journals, or make a point of attending reading sessions for new music hosted by a chapter of the American Guild of Organists. Here’s a real challenge for you—work out a program of preludes and postludes for the coming year without repeating any pieces. Can you rustle up a hundred different titles? You never know—you might find a new classic. Remember—every chestnut you play was once new music! ν

 

Notes

1. In the days when I was doing hundreds of tunings a year, I made a point to schedule tunings so as to ensure a proper variety of lunches. As much as you may like it, one doesn’t want sushi four days in a row! It was tempting to schedule extra tunings for some of the churches—there was this Mexican place next to First Lutheran . . . Wendy would say I have a lot to show for it. 

2. It’s traditional for the organ technician to keep all the pencils found under the pedalboard.

In the Wind. . . .

John Bishop
Default

Who you gonna call?

When I was an organ major at Oberlin in the mid-1970s, I had a part-time job working for Jan Leek, a first-generation Hollander who came to the United States to work for Walter Holtkamp and wound up as Oberlin’s organ and harpsichord technician. Traveling around the Ohio and Pennsylvania countryside with Jan making organ service calls, I learned to tune and learned the strengths and weaknesses of action systems of many different organbuilders. I moved back to Boston in 1984 with my wife and two young sons to join the workshop of Angerstein & Associates, where along with larger projects including the construction of new organs, I made hundreds of service calls. That workshop closed in 1987 when Daniel Angerstein was appointed tonal director for M. P. Möller, and I entered a decade during which I cared for as many as 125 organs each year as the Bishop Organ Company.

I’ve always been an advocate for diligent organ maintenance, but ironically, I’ve noticed in my work with the Organ Clearing House that century-old instruments that have never been maintained are sometimes the most valuable. The pipes are straight and true, the original voicing is intact, and there’s not a trace of duct tape anywhere. You remove a dense layer of grime (mostly carried out of the organ on your clothes) to reveal a pristine instrument. You might take that as an argument not to maintain an organ, but the truth is that I’ve found most of those organs in remote humble churches, where in many cases they haven’t been played for decades.

The challenge for the conscientious organ technician is not to leave a mark. If your tuning techniques damage pipes, you’re not doing it right. You should not leave scrape marks on the resonators with your tuning tools, and you shouldn’t tear open the slots of reed pipes. Cone-tuned pipes should stay cylindrical with their solder seams unviolated. Wiring harnesses should be neat and orderly, with no loopy add-ons. Floors and walkboards should be vacuumed and blower rooms should be kept clean.

There are legitimate excuses for fast-and-dirty repairs during service calls, especially if you’re correcting a nasty problem just before an important musical event. But if you do that, you owe it to the client to make it nice when you return.1 And, when you do make a fast-and-dirty repair, you should adjust your toolkit to accommodate the next one. Did you use a scrap from a Sunday bulletin to refit the stopper of a Gedeckt pipe? Put some leather in your toolbox when you get home.

Many of the churches where I’ve maintained organs are now closed. Many others have diminished their programs and aren’t “doing music” anymore. Some tell me that they can’t find an organist, which is often because they’re not offering a proper salary, and some have “gone clappy.” In this climate, I think it’s increasingly important for organ technicians to be ready to help churches care properly and economically for their pipe organs.

Some churches charge their organists with curatorial responsibilities, purposely placing the care of the organ in the musician’s job description. Others do not, and it’s often a struggle to get boards and committees to grasp the concept of responsible care of their organs. It’s also important to note that while most churches once had full-time sextons or custodians, that position is often eliminated as budgets are cut. Lots of church buildings, especially larger ones, have sophisticated engineering plants that include HVAC, elevators, alarm systems, and sump pumps. The old-time church sexton knew to keep an eye on all that, and to be sure they were serviced and evaluated regularly. Hiring an outside vendor to clean the building does not replace the custodian. I think it makes sense for such a church to engage a mechanical engineer as consultant to visit the building a few times each year checking on machinery, and have volunteers clean the building.

A pipe organ is a machine like none other, a combination of liturgical art and industrial product. A layman might look inside an organ chamber and see a machine, but the musician sits on the bench facing a musical instrument. If you think that the governing bodies of your church don’t fully appreciate the value of their organ, I offer a few thoughts you might use to raise awareness.

 

“Cleanliness is next to Godliness”

It’s an old saw, but besides your personal hygiene, there’s likely nowhere in your life where it rings truer than in your pipe organ. After fire, flood, and vandalism, dirt is the worst enemy of the pipe organ. An organ technician knows that a fleck of dust getting trapped on the armature of a chest magnet or the surface of a pallet is enough to cause a cipher. The leg of a spider will wreck the speech of a trumpet pipe, most likely one of the first five notes of the D-major scale, ready to spoil almost every wedding voluntary.

But where did that dirt come from? When building windchests, windlines, bellows, and wind regulators, the organbuilder tries hard to ensure that there’s no sawdust left inside. I have an air compressor and powerful vacuum cleaner permanently mounted by my workbench so I hardly have to take a step to clean the interior of a project I’m finishing.

Assuming that the organbuilder delivered a clean organ, the first obvious place for an organ to pick up dirt is in the blower room. Many organ blowers are located in remote basement rooms, and in many cases, there’s no one changing the light bulbs in basement corridors, and there’s no one in the building who knows what that thing is. We routinely find blower rooms chock full of detritus—remnants of Christmas pageants, church fairs, flea markets, and youth group car washes. Organ blowers can have electric motors of five horsepower or more, and I often see 90 or 100-year-old motors that throw impressive displays of sparks when they start up. If the ventilation is obstructed, a fire hazard is created. That sign from the 1972 church fair isn’t that important. Throw it away.

To illustrate the importance of cleanliness, I share our protocol for cleaning a blower room:

• Seal the blower intake with plastic and tape.

• Close the circuit breaker that provides power to the blower so it can’t be started accidentally.

• Vacuum, sweep, wash walls, ceiling, floor, blower housing, wind regulators, and ductwork.

• Leave the room undisturbed for 48 hours to allow dust to settle before opening and starting the blower.

Likewise, if a church fails to cover and protect their organ while the floor of the nave is sanded and refinished, they can expect serious trouble in the future.

 

Identification

As organist, you might be the only person in the church who can identify the areas occupied by the organ. Designate organ areas as “off limits,” with access limited to the organ technician. Nothing good will happen if the organ chamber is used for storage of old hymnals or folding chairs. Nothing good will happen if teenagers find their way inside to create a secret hidey-hole.2 Nothing good will happen if the altar guild puts a vase full of water on the organ console, and, by the way, nothing good will happen if you put your coffee cup there.

The organ’s tuning will almost certainly be disrupted if someone goes into the chamber out of curiosity. Most things inside pipe organs that are not steps lack the “no step” marking, like the touchy areas on an aircraft wing have.

 

Insurance

Maybe that 1927 Skinner organ in your church (lucky you) cost $9,500 to build. In the early 1970s, a new two-manual Fisk organ cost less than $40,000. I’m frequently called as consultant when a church is making a claim for damage to their organ, working either for the church or the insurance company, and I’ve been in plenty of meetings where bad news about the difference between loss and coverage is announced. It’s both possible and wise to have the replacement value of an organ assessed every five or ten years, with that value named on the church’s insurance policy.

If the organ at your church sustains $250,000 of damage because of a roof leak, and the replacement value of the organ is not specifically listed on the church’s insurance policy, a lot of discussion is likely to lead to a disappointment.

 

What makes good maintenance?

It’s not realistic to make a sweeping statement about how much it should cost to maintain an organ. Some instruments require weekly, even daily attention, especially if they’re large and complex, in deteriorating condition, and in use in sophisticated music programs. Some instruments require almost no maintenance. A newer organ of modest size with cone-tuning could go five years or more without needing attention.

I suggest that every organ should be visited by a professional organ technician at least once a year, even if no tuning is needed, even if every note plays perfectly, even if all the indicators and accessories are working. The lubrication of the blower should be checked, and the interior of the instrument should be inspected to guard against that one pipe in the Pedal Trombone that has started to keel over. If it’s not caught before it falls, it will take the pedal flue pipes with it. A four-hour annual visit would prevent that.

It’s usual for an organ to be serviced twice a year. While it’s traditional for those service visits to be before Easter and Christmas, at least where I live in the temperate Northeast, Christmas and Easter can both be winter holidays, so it makes more sense to tune for cold weather and hot weather, or for heat on, heat off.

Most organs do not need to be thoroughly tuned during every visit. In fact, starting over with a new “A” and fresh temperament every time can be counterproductive, unless it’s a very small organ. While the stability of tuning varies from organ to organ, most instruments hold their basic tuning well. I generally start a tuning by checking the pitch stops in octaves from the console, writing down a few that need tuning, and check the organ stop-by-stop for inaccuracies. I list a couple dozen notes that need tuning and a half-dozen stops that don’t need anything, and I list which reed notes (or stops) need to be tuned. In that way, I can build on the stability of tuning established over years, keeping the broad picture of tuning clear and concise.

Regular organ maintenance should include cleaning keyboards, vacuuming under pedalboards (the tuner keeps the pencils), checking blower lubrication, and noting larger things that will need attention in the future. Tuners, if you see cracks in a leather gusset on a wind regulator, make a note with your invoice that it will need to be releathered within several years. Your client doesn’t want to hear bad news, but they don’t want a sudden failure and emergency expense either.

 

When you should call

The better you know your organ, the easier to judge. I once received a panicky call from an organist saying the entire organ had gone haywire. He was abusive over the phone, and demanded that I come right away. I dropped everything and made the 90-minute drive to the church. Haughtily, he demonstrated the cause of his concern. It took me just a few seconds to isolate one pipe in the Pedal Clarion. If he had bothered to look, he could have played without the Clarion for weeks, but I couldn’t tell him that, and I’ve carried the memory of that unpleasant encounter for more than 30 years.

You should call your tuner/technician when:

• You hear a big bang from inside the organ. (Once it was a raccoon tripping a Havahart trap!)

• You hear unusual wind noise. (In some organs, a big air leak like a blown reservoir can lead to the blower overheating.) 

• You hear unusual mechanical noise, grinding, thumping, squeaking, etc.

• You find paint chips in organ areas. (Is the ceiling falling in?)

The organ blower has been left on accidentally for a long time. It’s a long time for a blower to run between Sundays.

• And obviously, when something important doesn’t work.

 

When you should not call

Sudden changes in climate often cause trouble with the operation of a pipe organ. Several days of heavy rain will raise the humidity inside a building so Swell shutters squeak and stick, keyboards get clammy and gummy, and the console rolltop gets stuck. If you can manage, simply let the organ be for several days. When conditions return to normal, chances are that things will start working again. Likewise, excessive dryness can cause trouble.

A couple years ago, I was rear-ended in heavy traffic on the Hutchinson River Parkway in Westchester County, just north of New York City. I drive a full-size SUV and have a heavy-duty trailer hitch so while the Mercedes that hit me left a rainbow of fluids on the road under its crumpled radiator, the only damage to my car was that the back-up camera stopped working. As I’ve driven many hundreds of thousands of miles without one, I didn’t bother to get it fixed, and I’m still perfectly happy driving the car.

If there’s a dead note in the middle octave of the Swell to Great coupler, call me and I’ll fix it. It’s important to the normal use of the organ. If there’s a dead note in the top octave of the Swell to Choir 4 coupler, and it’s spoiling a melody in a certain piece you’re playing, choose a different registration, or choose a different piece. One good way to head your church toward giving up on the pipe organ is to spend a lot of money on single repairs that don’t matter much to the music. Remember that your church pays me the same for mileage and travel time whether I’m doing a full service call with dozens of little repairs, or making a special trip for a single issue. A cipher is a bigger issue than a dead note.

It’s important to the long life of an organ not to “overtune.” Believe it or not, many churches in northern climes do not have air-conditioning, and it’s usual for temperatures to climb into the 90s inside the organ during the summer. If an organ was built, voiced, and tuned for A=440 at 70°, you’ll ruin the reeds—really ruin them—if you try to tune them to the Principals at 90°. It doesn’t make sense to wreck an organ’s reeds for one wedding, no matter who is the bride.

One of the most difficult tuning assignments I’ve had was at Trinity Church, Copley Square in Boston, in the early 1990s when Brian Jones, Ross Wood, and the Trinity Choir were making their spectacular and ever popular recording Candlelight Carols. It was surreal to sit in the pews in the wee hours of the morning, wearing shorts and a tee-shirt, sweltering in mid-July heat, listening to David Willcocks’s fanfare and descant for O come, all ye faithful. Everyone wanted the organ to be in perfect tune, but it was my job to be sure that the organ’s spectacular antique Skinner reeds would live to see another real Christmas. More than 200,000 copies of that recording have been sold, so lots of you have a record of that tuning!

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Remember what I said about those dead notes that are a nuisance but not critical to the use of the instrument? The most important part of the organist’s role in organ maintenance is keeping a list. Maintain a notebook on the console, and write down what you notice. You might hear a cipher in the middle of a hymn that goes away. If you can pay attention enough to identify anything about it (what division, what stop, what pitch), write it down. If you think of a question, write it down. Maybe you noticed a tuning problem during a hymn. Write down the hymn number and what piston you were using. I’ll play the hymn and find the problem.

When I make repairs, I can check things off your list, write comments about the cause, make suggestions for future repairs or adjustments, and invite you for coffee the next time. The console notebook is the most important tool for maintaining an organ.

Notes

1. As I write, I’m thinking of the three clients where I owe follow-up. You know who you are.

2. I once found a little love nest inside an organ, complete with cushions, blankets, candles, and burnt matches. What could happen?

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