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Parsons Open House

Parsons Pipe Organ Builders will host an open house on Sunday, March 2, from 1 to 5 pm at their workshop in Bristol Center, New York. The open house will feature the three-manual and pedal, 26-rank electro-mechanical action pipe organ for St. John of Rochester, Fairport, New York.

The instrument was originally located in Altoona, Pennsylvania, and was redesigned for the newly renovated space at of St. John of Rochester. The casework was redesigned, the structure is new, the winding system is new with a wedge bellows, a new IOTI solid-state control system; all pipework is completely revoiced.

Guests are invited, and encouraged, to bring music to play the instrument.

Parsons Pipe Organ Builders

4820 Bristol Valley Road

Route 64 South, Bristol Center

Canandaigua, NY 14424

parsonsorgans.com

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Anabel Taylor Chapel
Cornell University Baroque Organ
Ithaca, New York
GOArt / Parsons / Lowe

Selection
In 2003 Cornell University began planning for a new Baroque organ that would complement the existing Aeolian-Skinner organ in Sage Chapel (Opus 1009 III/68, 1940), as well as other smaller instruments located on campus. The decision was made to place the new instrument in an enlarged rear gallery, constructed with heavy timbers, in the intimate acoustic of Anabel Taylor Chapel. The new Baroque organ would be built by the Gothenburg Organ Art Center (GOArt), part of Gothenburg University in Gothenburg, Sweden, under the primary leadership of researcher and organbuilder Munetaka Yokota. This would not merely be an organ in “Baroque style,” but as much as possible, a reconstruction of an organ that could have been built in the late 17th or early 18th centuries by the German builder Arp Schnitger. The organ that Schnitger built in 1706 for the Charlottenburg Schlosskapelle (Palace Chapel) in Berlin was used as the primary model. This instrument is unique in that it blends the usual characteristics of Schnitger’s instruments built for the area around Hamburg (northwest Germany and the Netherlands), and characteristics of instruments in eastern and central Germany similar to what Johann Sebastian Bach would have known. It was also a sizable instrument for the Palace Chapel in which it stood.
The Charlottenburg organ was unfortunately destroyed during World War II, but there are recordings of the organ in addition to several photographs and documentation data, which allowed GOArt to use the original organ as a model. Because the Charlottenburg organ was confined in an unusual space, it was decided to follow a different model for the case design. The organ built by Schnitger in 1702 for the church of St. Salvator in Clausthal-Zellerfeld was chosen as a model for the case. Although its mechanism has been replaced several times since, the original Schnitger case is still in existence.
During the planning for this project, it was also decided to research how Schnitger built instruments in a city that was some distance from his home in Hamburg. This prompted GOArt and Cornell to enlist cabinetmaker Christopher Lowe of Freeville, New York, and Parsons Pipe Organ Builders of Canandaigua, New York, as local collaborators on the project. GOArt would design the organ, make the pipes, and build the keyboards, pedalboard, music rack, and bench, and provide all of the blacksmith work. Chris Lowe would construct the case, moldings, and balcony structure, and Parsons would build all of the internal mechanism: bellows, foot pumping mechanism, wind trunks, sperrventile, tremulant, key action, stop action, and windchests. The Parsons firm, Chris Lowe, and Munetaka Yokota would all work together to install the completed organ once the organ was set up and tested at Parsons’ Canandaigua workshop.

Parsons’ participation
Each new project brings its own set of challenges, and when a project involves three primary collaborators working for a university that demands perfection, those challenges could become overwhelming. However, working carefully through each new challenge, the final result speaks for itself as to the dedication to quality brought by each party.
One of the first challenges that we were presented with was the process of communicating design drawings. The design team in Gothenburg created a 3D CAD model of the organ. This model could be imported to our own 3D software, enabling us to measure components and create our own supplemental technical drawings. Three-dimensional computer modeling provides us with a greater sense of how all of the components relate to each other, allowing us to look at any combination of components and to rotate the computer model, and examine it from many angles. This was especially useful during this project, as this construction style was new to our staff and different from that to which we were accustomed.
Although the communication of CAD files across platforms provided challenges, other modern forms of communication were invaluable to this project, and are something that we guess Schnitger might have appreciated if it had been available to him. The use of Internet video conferencing allowed us to demonstrate and ask questions about specific shop techniques while allowing us to watch as Munetaka addressed these questions through demonstration, sketches, and gestures. These calls became daily occurrences during the latter part of the project and were crucial to its success.
This project was to be a “Process Reconstruction”—a term coined by the GOArt research team to describe the method used to discover unknown construction techniques, through the process of actually building the organ, rather than just through scholarly discussion. In other words, sometimes we cannot know the specific process or the correct way of building a component until we have experimented. In the end, this required us to learn many new skills and gave us an appreciation for the process that we may not have otherwise known.
The use of woodworking techniques consistent with the period was essential for the project’s success. We were permitted to use power equipment to mill lumber and cut it to size, but the final surface needed to show the traces of hand planing and scraping. As modern woodworkers, we are more likely to reach for our router or palm sander than for our hand plane. The necessity of using hand planes and scrapers in this project has re-trained us to reach for those tools and complete the task at hand before we could have gotten the router set up. The organ is made entirely of quarter-sawn white oak. This construction style relies heavily on joinery, some nails, and some glue. Long nails, ranging in length from 4 to 5 inches, were hand-forged by a blacksmith in Sweden, along with all the other ironwork required for the key and stop action, the bellows pumping mechanism, and the casework hinges and locks. Leather was provided by a German supplier, using period tanning techniques.
The key and stop actions are made in a manner consistent with Arp Schnitger’s practice. The key action rollers are made of white oak. Key action squares are made of iron and were supplied by GOArt. Most trackers and stickers are made of white oak, and the ends are hand wrapped with twine for strength. All metal trackers are of brass wire, and all trackers and stickers have hand-bent brass wire ends inserted. The key action is suspended, which means that the keys pivot at the tail and hang from the trackers or rest on the stickers from the chest. The Manual key action travels up from the key to the rollerboard, which is nailed to the back frame of the organ. The Rucwerk keyboard pushes stickers that carry the action to a rollerboard, which is located under the organist. The Pedal key action also relies on stickers that transfer motion to a rollerbox, which carries the motion, via trackers rather than rollers, to the Pedal chests on either side of the organ.
The stop knobs are made of pear that has been dyed black, with a bone button in the center. The stop action traces and trundles are made of white oak, with iron arms and levers. The iron arms are heated red-hot and then pounded into the oak trundles and are secured by quickly peening the iron.
The organ is winded from four large wedge bellows located in an isolated room in the tower of Anabel Taylor Chapel, approximately 30 feet above and behind the organ. The bellows can be foot pumped, or an electric blower can be used for practice without an assistant. Solid oak windlines connect these bellows to the organ. Windlines are joined with splines or inserted with tenons, and all joints are sealed with leather. A single Schnitger-style tremulant affects the entire organ.
Five windchests are located throughout the organ. The Manual and Pedal each have two chests, and the Rucwerk has one. All of the chests are built of solid quarter-sawn white oak. Given the wide humidity swings common to New York State, leather slider seals are used to eliminate runs and provide consistent wind to the pipes through changing climatic conditions. This required that each individual toeboard be carefully shimmed to allow the sliders to move with the correct freedom.

Casework
The casework was made by Christopher Lowe and Peter DeBoer in Chris’s workshop outside of Ithaca, New York. As the parts were made over an eleven-month period, they were assembled in a nearby barn. The case is made almost entirely of quarter-sawn white oak, mostly domestic. The oak in the long pedal tower frames and the thick posts at the console sides was imported from Germany. The rear panels are made of unfinished pine. Traditional joints hold the frame together: dovetails, splines, and pegged mortise and tenon. The panels are held together with clenched wrought-iron nails and have hand-forged iron hinges where access is needed for tuning. The molding profiles taken from the Schnitger organ in Clausthal-Zellerfeld were smoothed with an array of old wooden molding planes and custom-made planes and scrapers.
When Chris asked for guidance on what the finished surface of the moldings should be like, Munetaka responded, “We want to see the tool marks . . .
but they have to be nice tool marks.” The insides of the panels are finished with an extra deeply scooped texture for its acoustic property. All the oak has been fumed with ammonia to darken it, and the exterior surfaces were rubbed with linseed oil with iron-oxide pigment. The pipe shades are of basswood scroll-sawn to leafy shapes, and were painted by Joel Speerstra and his mother, Karen, with shadows and details to appear three-dimensional.
The casework was dismantled from the barn and moved to our Canandaigua workshop in November 2008. The interior components were installed over the next year, and the entire organ was enclosed in a tent and fumed with ammonia. Following this process, three wooden stops were installed for testing, and the organ was featured in an open house event at our facility on January 10, 2010.

Installation
Installation of the organ began in February 2010. This process required more on-site construction than to what we are accustomed. Because the pipes were shipped directly to Cornell University, the racking process had to be completed on-site. This required burning the rack holes to the correct size, for each pipe, in a tent outside the chapel in the frigid February air. The various tapered irons were carefully heated in a hand-crank coal forge; monitoring the exact temperature of the irons was critical to the process. Once ready, the irons were used to enlarge the holes by burning the wood until the pipes fit correctly. All of the upper racking was performed on-site, with the façade pipes being carefully carried up the scaffold to be marked for the precise location of the hook. Once soldered, a pin was located and driven into the oak rack.
All of the pipes that are offset from the main chests are conducted with lead tubes that were individually mitered, soldered, and fit on-site, and forced into leathered holes in the toeboards.

Pipework
The majority of the pipes in the organ are combinations of lead and tin. The wooden stops are made of pine. The pipe metal was cast on sand, as it would have been in Schnitger’s time. This technique was “rediscovered” by GOArt as part of their original research project in Gothenburg. In contrast, the modern method of casting thick metal sheets and then planing metal to the desired thickness by machine, produces a weaker material because it removes the hardest metal from the outer surface.
As Munetaka Yokota notes,

If the handcraft worker has to do everything by hand, then she or he will have the incentive of casting it as close as possible to the desired thickness and with the desired taper, and scraping it minimally, but very carefully, in the areas where it must be scraped well for acoustical reasons. This much more complex process works with the metal to create a sheet that gives a structural and acoustic result that, almost as a byproduct of the process, is as close as possible to the original Schnitger pipes. . . . Process reconstruction was developed with the goal of reproducing the acoustical quality of the 17th-century organ pipes, and this . . . philosophy is applied to the rest of the organ production as much as possible.

Final product
The organ was publicly presented during the Organ Inauguration and Dedication Festival and Conference, March 10–13, 2011 on the Cornell University campus. Many lectures were presented detailing the world that existed when the original organ at Berlin’s Schlosskapelle was introduced in 1706. There were demonstrations of the organ’s individual stops and a discussion about the construction process, and numerous concerts to demonstrate the organ as a solo instrument as well as how it worked together with other instruments. The inaugural concert by Harald Vogel was presented twice to allow more people to experience the new instrument in the intimate space of Anabel Taylor Chapel. The first inaugural concert also featured the new composition Anacrusis by Kevin Ernste. This piece featured the organ with electronic sounds as well as live organbuilding sounds made by numerous students and organbuilders who had worked on the instrument.
We would like to thank Professor Annette Richards, University Organist, who was the impetus behind this project and the glue that held it all together. Professor David Yearsley also provided welcome support and encouragement throughout the project. The support of Jacques van Oortmerssen, who served as inspector for Cornell during the project, was crucial to its success, and his performance during the festival was a tribute to his contributions.
The artistic endeavor of building the organ now gives way to the artistic endeavor of using it to teach and to enrich the lives of people for generations to come. For Parsons Pipe Organ Builders, there is a single underlying purpose to creating these beautiful instruments: that this organ will be used by Cornell students to glorify God through weekly services of worship.
—Parsons Pipe Organ Builders
4820 Bristol Valley Road
Canandaigua, NY 14424-8125
888/229-4820
www.parsonsorgans.com

To view a descriptive video produced by Cornell University, visit <http://www.cornell.edu/video/index.cfm?VideoID=1017&gt;.

Parsons’ staff:
Richard Parsons
Calvin Parsons
Duane Prill
Peter Geise
Aaron Feidner
David Bellows
Glenn Feidner
Graham Sleeman
Jay Slover
Matthew Parsons
Steven Martindale
Tony Martino

Photo credit: Timothy Parsons, unless otherwise indicated

Anabel Taylor Chapel
Cornell University Baroque Organ
Ithaca, New York
GOArt / Parsons / Lowe

MANVAL (II)
1 PRINCIPAL 8 fus
2 QVINTADENA 16 fus
3 FLOITE DVES 8 fus
4 GEDACT 8 fus
5 OCTAV 4 fus
6 VIOL DE GAMB 4 fus
7 SPITZFLÖIT 4 fus
8 NASSAT 3 fus
9 SVPER OCTAV 2 fus
10 MIXTVR 4 fach
11 TROMMET 8 fus
12 VOX HVMANA 8 fus

RVCWERK (I)
1 PRINCIPAL 8 fus
2 GEDACT LIEBLICH 8 fus
3 OCTAV 4 fus
4 FLÖITE DVES 4 fus
5 OCTAV 2 fus
6 WALTFLÖIT 2 fus
7 SEPQVIALT 2 fach
8 SCHARF 3 fach
9 HOBOY 8 fus

PEDAL
1 PRINCIPAL 16 fus
2 OCTAV 8 fus
3 OCTAV 4 fus
4 NACHT HORN 2 fus
5 RAVSCHPFEIFE 2 fach
6 MIPTVR 4 fach
7 POSAVNEN 16 fus
8 TROMMET 8 fus
9 TROMMET 4 fus
10 CORNET 2 fus
(preparation)

TREMVLANT
VENTIEL MANVAL
VENTIEL RVCWERK
VENTIEL PEDAL
CALCANT

Four wedge bellows

Pitch: a1 = 415 Hz
Compass: Manuals C, D–d3
Pedal C, D–d1
Temperament: Werckmeister III

The stop names are presented as on the stop labels. Note that the “x” has been replaced by a “p” in both the Rucwerk Sepquialt and Pedal Miptur, possibly as a nod to the division names Rückpositiv and Pedal.

30 stops, 40 ranks, with one preparation.

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Lewtak Pipe Organ Builders, Camillus, New York

Holy Trinity Church,

Utica, New York

The pipe organ at Holy Trinity Church is, without doubt, a real treasure—not just for the parish community of Holy Trinity, but for the greater Utica area as well. It is a splendid instrument originally built in 1923 by Clarence E. Morey and his firm, located in Utica, New York. The organ has 29 speaking ranks divided among three manuals and pedal. Two of the manual divisions are enclosed in expression boxes. Interestingly, the original “identity” of this organ has been very well disguised. Previous restorers took down the plaque with the builder’s name, and only after opening the windchests did we discover the name of the original maker. The pastor of Holy Trinity Church, Rev. Arthur Hapanowicz, took it upon himself to find some information about the original builder. Since little is known about this builder, it is worth providing a bit of history. Following is the obituary from the Utica newspaper, The Observer-Dispatch, June 22, 1935:



CLARENCE E. MOREY, ORGAN BUILDER

March 31, 1872–June 20 1935



C. E. MOREY, 63 SUCCUMBS HERE




HAD BEEN MANUFACTURING ORGANS HERE SINCE 1893



Clarence E. Morey, 63, 1537 Oneida Street, organ builder, died in his home Thursday night after an illness of several months.

Mr. Morey was born in Little Falls, March 31, 1872. He was educated in the public schools and in Fairfield Seminary, and then came to Utica. He worked in the office of Edward D. Mathews, attorney, for a short time. Next he worked in the office of Crouse & Brandagee, clothing manufacturers.



Bought Equipment

In 1893, with A. L. Barnes he formed the firm of Morey & Barnes and bought the equipment of the organ factory of the late John G. Marklove and continued the manufacture of organs. Three years later Mr. Morey bought out the interest of his partner and continued the business alone. In 1901 he built a new factory at 305 Niagara Street and moved his business there. In 1925 Mr. Morey sold this building and built a new factory at 1024 Champlin Avenue. He has since continued his business at this location.
During his long career in the business Mr. Morey had constructed a great many organs and while they are in use in various parts of New York and adjoining states, about a score of them are used in Utica. Mr. Morey had been from its organization in 1917 a junior member of the firm of Earl B. Worden & Company, dealers in pianos and talking machines.



Active in Organizations

Mr. Morey was a member of Utica Lodge 47, F. & A.M Rotary Club, Utica Council, Boy Scouts of America, Winchell Camp 43, of Union Veterans of the Civil War, Oneida Historical Society, and the Commercial Travelers Mutual Accident Association of America. He attended Westminster Presbyterian Church.
February 10, 1897, Mr. Morey married Miss Jean H. Brockett, who is living. He has two sons, Frank B. of Albany, NY and Nathaniel B. of Hamburg, NY. Five grandchildren.



In many ways the organ at Holy Trinity Church is a special and valuable instrument. Many of the pipes have outstanding sonic qualities, rarely found in other organs. Among stops that deserve special mention is a Double Flute 8' (Concert Flute) on the Great, wooden pipes, each pipe having two mouths. It was originally voiced with very natural, open and unobstructed sound of an unusual strength. Another stop of particular beauty is the Mixture III in the same division, which adds brightness to the overall sound, but without the unpleasant shrillness so often found in other instruments of lesser quality.

The organ at Holy Trinity Church was originally built with tubular-pneumatic action, with its complicated array of lead tubing. Many years later, probably in the 1950s, the action was electrified. This system, even though much better than the original purely pneumatic arrangement, requires careful maintenance and complete renovation after a certain number of years. Also, as time goes by, every organ naturally goes through the process of aging—dust accumulates, leather deteriorates, air conduits start leaking, and many other elements of the inner structure call for some serious attention. The organ had been renovated in 1972 by Bryant Parsons & Sons (currently Parsons Organbuilders) of Canandaigua, New York. The work performed was good, but some 30-plus years later the instrument was obviously in need of serious repairs.

In the spring of 2006, Holy Trinity Parish contracted Lewtak Pipe Organ Builders of Camillus, New York, to carry out all necessary work in regards to both the internal technical problems and the external new appearance of this aging instrument. A total overhaul was performed, and a new façade was built over the past six months. The work done was truly all-encompassing: the organ was completely disassembled; all pipes were taken out for thorough cleaning and repairs of scrolls and stoppers; windchests were thoroughly repaired, including some releathering; nearly all air conduits were replaced; the entire pipe support was renovated and enhanced.

There was a big problem with the structural support of the Great windchest, which rested on one of the 16' pipes from the Pedal! We had no choice but to design and build a new support for this part of the organ. Twelve new pipes for the lowest octave of Bourdon 16' were added to improve the bass range of the Great division. Several ranks of the original pipework were revoiced to make them stronger in sound. The electrical system was also carefully checked and repaired, all contacts cleaned, and the combination action repaired.

In addition, we added a completely new appearance to this organ by building a new façade. The cabinetry is made of solid white oak. Original pipes were stripped of the several layers of old paint and cut to new dimensions. The dynamic configuration of the new design is the original creation of my brother, architect Pawel Lewtak. The colors on the new front of the organ were carefully selected from the two predominant shades of the stained glass windows and the entrance doors.

It is with great joy that we present this organ back to Holy Trinity Parish. We are confident that the beauty of the King of Instruments will enhance all liturgical celebrations and will serve this church community for many years to come. It is truly gratifying to know that there are still people who believe in the value of a real pipe organ. During his rededicatory message, the church’s music director and organist, Stephen Zielinski, stated: “There was never a doubt as to what to do with our aging pipe organ. The electronic substitute was never an option. This is because we know that the pipe organ fills our church with beautiful sound, and the electronic organ would simply fill it with noise . . .” To this, we just say AMEN.

—Tomasz Lewtak

Organbuilder



The rededication ceremony and organ recital took place on Sunday, October 29, 2006 at 5:00 p.m. The performance featured Gail Archer, who serves as Chair of the Music Department at Barnard College, Columbia University, and Professor of Organ at Manhattan School of Music. We are most grateful for her gracious acceptance of our invitation.

The following craftsmen took part in the restoration of the organ at Holy Trinity Church in Utica, New York:

Tomasz Lewtak—mechanical design, voicing, woodworking

Pawel Lewtak—façade design, woodworking

Janusz Rutkowski—general construction

Iwona Henschke—pipe stenciling

Gerry DeMoors—electronics and electrical components

Rita Ostrom–tuning and voicing assistance

Photo credit: Tomasz Lewtak


1923 C. E. Morey organ

GREAT

16' Bourdon

8' Open Diapason

8' Viola da Gamba

8' Concert Flute

8' Dulciana

4' Octave

4' Flute d’Amour

III Mixture

8' Trumpet

Chimes (21 tubes)

Gt 16'–UO–4'

Sw/Gt 16'–8'–4'

Ch/Gt 16'–8'–4'



SWELL

8' Open Diapason

8' Stopped Diapason

8' Aeolian

8' Salicional

8' Quintadena

8' Vox Celestis

4' Harmonic Flute

2' Piccolo

8' Oboe

8' Vox Humana

8' Cornopean

Sw 16'–UO–4'

Tremolo


CHOIR

8' Geigen Principal

8' Melodia

8' Dolce

8' Unda Maris

8' Flauto Traverso

Ch 16'–UO–4'

Sw/Ch 16'–8'–4'

Tremolo


PEDAL

16' Double Open Diapason

16' Bourdon

16' Lieblich Gedact

8' Flute

Gt/Ped 8'–4'

Sw/Ped 8'–4'

Ch/Ped 8'–4'

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From the organbuilder

While our firm has been very prolific as a builder of new instruments since our founding in 1973, our company also has been very significant as a rebuilder and maintenance firm. So in 2011, when our firm was invited to Tallowood Baptist Church in Houston, Texas, we approached a situation that required all of our skill sets.

A four-manual, 84-rank instrument by another firm had been contracted years earlier and was installed in their new sanctuary between 2008 and 2011. The church was having numerous concerns about the organ after it had been installed. There were mechanical and performance issues, but even more than this, the organ simply did not support their worship. 

Under the direction of the Reverend Carlos Ichter, minister of music, a number of pipe organ builders and consultants were invited to provide an assessment of the organ. The “solutions” given by others ranged from accepting it as it was and trying to increase wind pressure to completely starting over. With the considerable cost, this was not a consideration the church could contemplate, and accepting it as it was would not be an option.

We were asked if we could look at the organ to determine if we could find a way to make the organ a success and what it would require. As we studied the organ and researched the church records, we found numerous contracts, changes, and alterations that had occurred in the design of the instrument from its inception up to when it was installed. Without belaboring the point, this told an interesting story and explained the footing the church took with negotiations going forward, where they had to question everything that they were told.

We started our formal study of the instrument by bringing a team of eight of our staff to the church for one week. We studied the stoplist and scaling of the organ, the chest actions, the winding system, the expression shades, the organ console, the electrical system and relays, and the organ chassis as a whole. We dissected the internal workings of the organ and to better know the pipework, took the time to tune the organ. Next, we voiced some samples of the existing pipework to explore the latitude available for change.

The placement of the organ was in organ chambers in the front of the chancel behind a façade of 32 pipes, and in a rear antiphonal. The chancel organ chambers sit high in the sanctuary with relatively small tone openings. Portions of these chambers have significant tone traps. The layout and placement of the pipework and chassis acted as physical barriers to the tonal egress of other stops in the organ. There were multiple instances of bass pipes being placed directly in the front of the chambers and covering the tone openings to a very large degree. 

We started our tonal design with a needs study and development of a clearly written, cogent plan for the musical support role of the organ in the church. Our work was to be a change agent to the development of an eclectic instrument that could take part in all forms of music including choral and congregational accompaniment, its role with orchestra, and service playing.

Much of the flue pipework in the organ was of decent quality and well built. However, the organ had a number of individual symphonic, orchestral-oriented stops—which, while beautiful, had been allowed more influence on the overall specification at the expense of a solid foundational accompaniment core. We felt that through reallocation of the flue resources we could accomplish the artistic considerations of a revised specification, while preserving many of the resources in a fiscally conservative manner. 

To begin our work, the pipework and console were removed to our workshop to be refurbished for the new specification. We remanufactured the drawknob jambs to include an entirely new string organ, replaced all of the drawknobs and engraving, replaced the tablet rail, and relocated the combination control panel to a central location so it could easily be seen by the organist. We also made changes to the console expression shoes and pedalboard to conform to AGO specifications, rewired the piston sequencer to function in a conventional manner, and added several pistons to the organ for performance features.

The specification contained a large number of slotted stops, including strings, harmonic pipes, and mixture compositions. The slotting exacerbated the fifth at the expense of the unison pitch and became unstable at a pressure that the pipe mouth cutups couldn’t handle. This third harmonic of the series was pervasive in all of the larger massed flue choruses. Through additions, stop exchange, reallocation of pipework, re-pitching and revoicing, we were able to reinforce the unison registers and improve treble ascendency.

The organ as it had been conceived included a partially enclosed Great. This had placed the flutes and reed of the Great division in the rearmost location of the entire organ where the dynamics were diminutive at best. We decided to abandon this location for a chamber next to the Swell and Great divisions that could speak directly into the sanctuary. This new unenclosed Great location allowed the diapason, flutes, and reed to speak unimpeded into the 2,200-seat room. This projected their full color and harmonics without a loss of dynamics. In the rightmost chamber location, we added to the independent resources of the Pedal division and extended the compass of two Pedal registers, so they could be drawn into the Great as secondary manual registers, balancing out the 8 fundamental tone from both sides of the chancel.

Many of the strings throughout the organ were orchestral in nature, and small scaled. These thin string stops did not support choral and congregational accompaniment or blend well with the principal and flute chorus fonds. In our design, we decided to gather these romantic resources into an enclosed string division with the inclusion of an 8 Tibia and 8 Vox Humana. The movement of these stops from the Great, Swell, and Choir allowed room to add larger divisional strings and additional foundational flue resources. 

The Antiphonal division was enlarged with an independent 8 Rohrflute. Included with this division are 16, 8, 8registers to the pedal. The result proved very useful for providing reinforcement and sculpture to the chancel Pedal in the room acoustics.

The organ reeds were generally of a darker color. Some of the organ reeds had been designed for another instrument and had been repurposed and modified for this organ. In addition to the sound of the organ reeds, which was not conducive to our tonal vision, there were a number of loose shallots, and tongue and wedge issues, and tongues that created voicing and tuning problems. Due to differing wind pressures, it was not possible to consider moving reed stops from division to division in support of the revised specification. At the completion of our work, all of the reeds had been rebuilt or replaced. 

The largest solo reed in this organ is the 8 Tuba Mirabilis. Built of copper and installed as an “en Chamade,” it had been on 24′′ wind pressure, which was too commanding for the sanctuary. It was re-tongued and revoiced on 19′′ wind pressure. Even revoiced, the horizontal focus leaves it as a commanding reed but with greater blending use. We added an 8 Tromba Heroique stop to the Solo division as a scalable dynamic registration option. With the Solo expression box open it can be a commanding solo stop, but closed can be used as a large ensemble chorus reed.

The Pedal did not have the gravitas that was required of it. The 32, 16 Violone unit and 16 Principal in the façade were revoiced to better fit the room. The 16 Major Bourdon was rescaled with higher arched cut-ups added to allow more foundational weight. In the Pedal, we added several additional 16registers, additional 8 stops, and a large mixture. In the case of the 32 reed registers, they had subdued speech and colors that were not cohesive with the final specification as we envisioned it. This became a moot point, as there was no room to relocate these stops. We replaced these extensions with digital voices, which, in this instance, was a better tonal choice. 

The internal layout of the pipework, windchests, winding system, expression shades, and chassis blocked sound. Additionally, there were portions of the organ where access for tuning and maintenance was very difficult. We found places in the organ where some individual pipes had been offset and other places where notes had been silenced rather than attempt repairs on individual chest actions. In conjunction with the redesigned specification we addressed serviceability, winding, and tonal egress.

The windchests were built with a proprietary form of electro-mechanical action in conjunction with an internally developed individual electro-pneumatic action. The reason for the blended actions seems to have been the very high wind pressures employed. The measured wind pressures on the organ ranged from 6¼′′ up to a high of 28′′. This is a realm where electro-mechanical action has rarely been used, with typical wind pressures between 3′′–5′′ being the historic norm for most instruments with this type of chest action. Unfortunately, the individual electro-pneumatic actions had very little travel and constricted the flow of wind into the pipe toes. The result was that a large number of bass pipes were starved of wind. As part of a test we stripped off the rubber cloth pouch on one of the actions and rebuilt it to allow greater depth of travel. The result of this test was immediate and noticeable. These valves were removed from the organ and rebuilt for a large number of the bass registers in the organ, including the 32 Violone and the core 16 and 8foundational registers. 

In our negotiations with the church the façade pipes and its structure were a specific exclusion. The pipes of the façade are from the 32 Violone, 16 Principal, and the 8 Second Open Diapason, as well as a large number of dummy pipes. Our intent was to voice the pipes of the façade, not taking liability for their construction or racking. As the church had reasoned and we had concurred, it was brand new and should not have been an issue. This supposition changed when several pipes of the (horizontal) 8 Tuba Mirabilis had hooks that had separated and the racking for these pipes had deflected downward. This set of pipes was in the façade hanging directly over the choir members’ heads and became a looming concern. The church asked us to scaffold up the front of the church and survey the condition of the entire façade and its racking. We found a number of problems that had the potential to be safety issues. Over a period of two weeks we scaffolded the front of the church, secured the toeboards, added vertical structure, installed custom steel supports, added secondary hooks on a number of pipes, and properly secured the pipe racks to the structure. 

The original horizontal expression shades were made with edges over half the thickness of the non-beveled part of the expression shades and opened toward the ceiling. This directed sound into tone traps and away from the choir and congregation. These shades had 4′′ of felt on the front and rear beveled surfaces for a total of 8 of absorptive felt. The tonal result was a shade opening that acted nearly half-closed even when the shades were wide open. In addition to occlusion, the open shades presented a felted wall to the enclosed division and provided absorption for the non-enclosed stops in front of the shades. We replaced all of the expression shades in the chancel divisions. This allowed one-third more opening to the enclosed divisions and reduced the sound absorption of the open shades to a negligible factor.

To generate the high wind pressures called for in the original organ design, there were a large number of blowers feeding into each other to raise the wind pressures. This created internal turbulence, noise, and heat, as well as noticeable flutter in some of the reservoir tops. The leather on the reservoirs was not well adhered and was beginning to separate from the reservoir wood shells. We knew that for the organ to be successful, we would need to redesign the winding system. This was not a small consideration. In the end all of the reservoirs were rebuilt or replaced with new. We were able to reduce the total number of reservoirs from 49 to 31, and reduce the number of blowers from nine to five, total. We also replaced twelve tremolos.

Our full team of pipe voicers were brought to Tallowood where we located a voicing machine and several workbenches outside of the organ chambers in a stairwell. The voicing of this organ was a marathon of setting pipe samples in the chambers and then removing the pipes so that the large degree of work could be performed outside of the chamber. These pipes were then handed back into the organ chambers and tonally finished. In an instrument on multiple levels with eight separate chamber locations and 94 ranks that included 5,598 speaking pipes, this was no small undertaking. We were able to process the pipework in a seamless fashion, trading off table work with in-chamber finishing. Even with these efficiencies, this process still took months of work. We brought up the organ by division and encouraged the church to begin using it in worship services after approximately half of the instrument was completed. Attending services and rehearsals became a way to gauge and focus our efforts. It was exciting for our firm and for the church, as each week there were additional resources made available to be heard for the first time. In a final review of the project, there were numerous changes that we made to the instrument. My notes show 168 separate items, all of which had subsets. I was asked at one point about one of the smaller changes we were making. The question was, “how important will that one change be?” I answered that one change may in and of itself be small in stature; however, the multiplicity of small changes would couple to become a great change. In the end, the choices we made allowed for a successful outcome, where others had not seen this route to success—at least not at a reasonable cost given the degree of change required. A measure of this success, at the end of this project, was that the church’s faith had been restored in pipe organ builders. We would like to thank the congregation and leadership of the church for the faith that they personally placed in us. I also would be remiss if I did not take a moment to thank our staff for their dedicated efforts.

—Arthur E. Schlueter III

Artistic and Tonal Direction

A. E. Schlueter Pipe Organ Company

 

From the minister of music

The journey to the completion of our pipe organ was not an easy one. When we came to the full realization that our original instrument was riddled with problems, we sought the council of numerous organists and organ builders in order to find a viable solution. The A.E. Schlueter Pipe Organ Company offered us the most attractive option for completion of our instrument. We spent nearly three years addressing numerous concerns, including listening to disenchanted church members and allowing for difficult conversations in committee meetings. Ultimately, the church approved the proposal from Schlueter, and we now have a beautiful, completed instrument. We are grateful for the Schlueter team and the Tallowood members for the completion of this magnificent instrument for the glory of God.

—Carlos Ichter

Cover photo credit: Mark Johanson

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