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Schoenstein console for Cathedral of St. Philip, Atlanta

Schoenstein & Co. has built a new four-manual console for Aeolian-Skinner Opus 1399 of 1962 at the Cathedral of St. Philip in Atlanta, Georgia. The cathedral’s comprehensive music program, headed by organist/choirmaster Dale Adelmann and his associate David Fishburn, includes an extensive series of regular recitals as well as other programs involving visiting artists. The console includes the most advanced playing aids and a layout of stops and controls that promotes efficiency and ease of performance. Console mobility is another important factor. Also, provision has been made to accommodate the addition of a large Antiphonal organ in the west gallery at some point.

Since it was impossible to fit all of these requirements into the existing console, which required full renovation, it was decided to start fresh. The new console has ivory key coverings, 181 drawknobs, and a Peterson ICS control system with 256 memories, piston sequencer with 12 conveniently placed controls, Great/Choir transfer, and record/playback. The console case, with internal casters, is of quarter-sawn white oak and karelian birch. Paneling and moldings were custom designed to complement the chancel furnishings.

For information: 707/747-5858; www.schoenstein.com.

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Schoenstein & Co., San Francisco
The Juilliard School,
New York City

I wonder what a conservatory percussion major would think of working exclusively on a practice pad without experiencing the myriad tonal and dynamic effects that fine technique can extract from a snare drum? Except for organ and conducting majors, everyone else has the advantage of practicing on the kind of instrument they will be using as professionals. When Paul Jacobs and I planned the organ for Juilliard’s newest studio, our first objective was to give students the experience of playing regularly on a full-scale instrument with capabilities representative of organs they are likely to encounter after graduation. In most music schools, such opportunities are restricted to those rare times when the concert hall is not booked by other departments. The new main studio in the recently renovated Juilliard building is 35 feet by 15 feet by 20 feet high, providing a pleasing resonance. The room is used exclusively for organ department teaching and practice. Here are the four requirements that guided the organ’s design:
1. A vehicle for learning many skills—not only solo repertoire. Professor Jacobs’ objective is to offer intensive training in all of the skills required for any career an organist may pursue. (The Juilliard faculty includes David Enlow for church music and accompanying and David Crean for literature.) The instrument is conceived as a large organ in miniature. It has three independent manual divisions, two of them under expression, and a pedal filled with borrowed stops from each division so that independence can be achieved simply by dedicating a particular stop to the pedal and not using it on a manual.
2. Tonal variety to encourage creative registration. Despite its size, the organ contains representatives of every major tonal category. There is a Diapason chorus on the Great, complemented by echo Diapason (Salicional) tone on the Choir, and a tapered Principal (Gemshorn) over a foundation of flute and string in the Swell. There is a stopped flute in the Great, a very small-scale and colorful chimneyed flute in the Choir, and an open flute in the Swell. True string tone is usually missing from practice instruments, but is included here, with a celeste, in the Swell. There is a color reed (Clarinet) in the Choir and a chorus reed (Flügel Horn) in the Swell, extended to 16′ pitch. E. M. Skinner thought that this stop, a very small-scale capped trumpet, was the most versatile reed for a small organ, and he was right.
3. A full complement of modern playing aids to master console management. The console has all of the controls and accessories found on a large three-manual instrument. Two of these are of special value in teaching and practice—the record/playback feature and 258 combination memory levels, which provide adequate channels for all the department students.
4. Pleasing tone. I can’t imagine anything less conducive to productive practice than harsh tone. Our goal was for each stop and the full ensemble to be interesting and pleasant over long periods of arduous and repetitive practice. We wanted students to have sonic encouragement while bringing a passage to technical perfection. Having the organ reflect your hard work with unyielding and shrill tone is not the best way to reward effort.
The instrument is also used to introduce students to some concepts of organ construction. It does not have the normal façade. Instead, the Great division and the two expression boxes are visible behind a decorative quarter-sawn white oak and wrought iron open-work partition much like a traditional choir screen. The console also is made of oak with Karelian birch and Honduran mahogany. The woodwork was awarded first place in a 2009 wood industry design contest. A windchest and wind regulator have glass observation ports so action operation can be viewed. All components of the organ are easily visible and labeled.
The organ was completed along with the renovation of the building in August 2009. As it joins Juilliard’s distinguished recital hall organs by Holtkamp and Kuhn and practice organs by Flentrop and Noack, we hope this teaching studio organ will be a source of inspiration to generations of talented young artists who wish to perfect the art of musicianly organ playing.
Jack M. Bethards
Schoenstein & Co.

Three manuals, 12 voices, 12 ranks
Electric-pneumatic action

GREAT (II – unenclosed)
16′ Bourdon (Pedal)
8′ Open Diapason 61 pipes
8′ Claribel Flute (Swell)
8′ Fernflöte 61 pipes
8′ Salicional (Choir)
4′ Principal 61 pipes
4′ Lieblich Gedeckt (Choir)
2′ Fifteenth 61 pipes
8′ Flügel Horn (Swell)
8′ Clarinet (TC, Choir)
Great Unison Off
Great 4′

SWELL (III – enclosed)
8′ Claribel Flute 61 pipes
8′ Echo Gamba 61 pipes
8′ Vox Celeste (TC) 49 pipes
4′ Gemshorn 61 pipes
16′ Bass Horn 12 pipes
8′ Flügel Horn 61 pipes
Tremulant
Swell 16′
Swell Unison Off
Swell 4′

CHOIR (I – enclosed)
16′ Salicional (TC) †
8′ Lieblich Gedeckt 61 pipes
8′ Salicional 61 pipes
4′ Lieblich Gedeckt 12 pipes
4′ Salicet 12 pipes
22⁄3′ Nazard (from Lieblich Gedeckt)
2′ Fifteenth 12 pipes
8′ Clarinet (TC) 49 pipes
Tremulant††
Choir 16′
Choir Unison Off
Choir 4′
†Prepared for later addition of 12 pipes
††Affects Great and Choir stops

PEDAL
16′ Bourdon (ext Lieb Ged) 12 pipes
8′ Salicional (Choir)
8′ Claribel Flute (Swell)
8′ Lieblich Gedeckt (Choir)
4′ Fifteenth (Great Open Diapason)
4′ Claribel Flute (Swell)
16′ Bass Horn (Swell)
8′ Flügel Horn (Swell)
4′ Clarinet (Choir)
Note: Space prepared for later addition of 16′ Salicional Choir borrow.

Couplers
Gt/Ped 8′, 4′
Sw/Ped 8′, 4′
Ch/Ped 8′, 4′
Sw/Gt 16′, 8′, 4′
Ch/Gt 16′, 8′, 4′
Sw/Ch 16′, 8′, 4′

Mechanicals
Solid-state capture combination action with:
256 memory levels and lock
Programmable piston range
10 General pistons
10 General toe studs (duplicate)
5 Great pistons
5 Swell pistons
5 Choir pistons
3 Pedal toe studs
Swell to Great reversible piston
Great to Pedal reversible piston
Great to Pedal reversible toe stud
Swell to Pedal reversible piston
Swell to Pedal reversible toe stud
Full Organ reversible piston
Full Organ reversible toe lever
Record/Playback system
Adjustable bench

Cover feature

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A. E. Schlueter Pipe Organ Company, Lithonia, Georgia

First Presbyterian Church, Savannah, Georgia

The new pipe organ for First Presbyterian Church, Savannah, Georgia is a custom-built instrument comprising 47 ranks of pipes with an eclectic specification paying homage to the American Classic school of organbuilding. A core concept of our company’s tonal ideal is “to design instruments that have warmth but not at the expense of clarity and clarity not at the expense of warmth.” We believe this to be one of the most important considerations in an instrument that draws its lineage from the organbuilding schools of Germany, France, and England. Of utmost concern was adequate support of the choir and congregation taking into account the acoustics of the church and the literature required of the organ in this worship setting.

The church musicians and organ committee had a clear vision for the type of organ they desired for worship when they contacted our firm three years ago. They listened to many instruments in order to define their ideals. Certain styles of organ design were clearly not suitable for First Presbyterian. Ultimately, they gravitated toward the collective work of Aeolian-Skinner circa 1940s–1950s as directed by G. Donald Harrison. As our firm worked with the church to develop a specification, it was decided that our work was to be in the spirit of this great builder but not a stop for stop copy. Key points of departure are found in the presence of an 8' Principal chorus in each manual division, a more dominant Choir division than would have been found in the period, and the choice of English reeds. Many of our decisions were guided by voicing sample pipes in the church prior to construction of the organ. While setting samples in the church it became evident that the French reeds often found on a Harrison-era organ would not be suitable in this acoustical environment.

During the planning and tonal finishing stages of the organ we worshipped with the choir and congregation in order to gauge critical balances and dynamic levels. We were also able to use the talents of the church musicians and other Savannah organists, each bringing their own playing and registration style to the instrument. This has been very important in the sound of the organ as it is heard in its final form.

A primary challenge was where the organ would be located. The church was built in the late 1940s and was designed to be enlarged by removing the front chancel wall. Until this came to pass, a temporary front chancel wall was built containing a large stained glass window depicting the Stations of the Cross. As the dream of a pipe organ lay dormant for many years, the congregation grew to accept the chancel design with its stained glass window and stone arch as key elements of the sanctuary. These elements were a cornerstone of the visual integrity and symmetry they wanted to maintain. Numerous design studies were undertaken with free-standing organ cases inside and outside the arch and its impact on the chancel stained glass window.

A visual design emerged from our engineering study that provided a focal point for the stained glass window with Christ as the center. The solution was to build a large chamber on the front of the sanctuary and to utilize a suspended light box for display of the window. In this manner we were able to speak around and under the window with a large degree of tonal freedom and minimal tonal occlusion. The organ chamber is built of solid concrete to concentrate the sound of the organ forward without a loss of energy. This allowed us to work with more modest scales and wind pressures than might have been required under other circumstances due to placement and chamber depth. During the installation and subsequent tonal finishing we were very pleased with the transfer of energy from this organ chamber design and construction.

The organ case was built of native white oak, finished to match other woods in the sanctuary. The lower case panels are designed as a reflective surface for the choir. The organ grille panels were designed to provide a decorative allure while acting tonally transparent. Our treatment of the organ grille panels allowed us to eliminate the use of grille cloth that is often tonally absorptive and does not allow a free exchange of air between the sanctuary and the organ chambers.

Ever mindful that an organ is musical only when it is in tune, we took great efforts in the design to provide a stable environment. A primary consideration was to place all of the manual and pedal pipework at one common level, thus avoiding differing thermo climes and the resulting tuning issues. The organ blower is located beneath the organ and draws its air from the bass of the Swell and Choir chambers. In this manner air is drawn from the same environment as the pipes to promote tuning stability. Metal windlines were used to dissipate heat buildup. The chambers were also designed with air returns in the ceiling to draw the ambient sanctuary air back into the chamber. This system is coupled to the sanctuary HVAC and runs whenever it is engaged. Thus no special controls are needed to set proper conditions in the church in respect to the organ. This careful attention to layout and other issues that affect the environmental conditions of the organ has enabled us to maintain a one-degree variance between all divisions, which promotes tuning stability.

To provide control over the volume of the organ’s resources, the organ contains two expressive boxes, one for the Swell division and one for the Choir division. Built with extra-thick shades that overlap and interlock, the expressive boxes provide wide dynamic control with electro-pneumatic servo-motors faithfully duplicating the performer’s movement of the expression shoes at the organ console. This degree of expression finds additional favor with control of the high-pressure hooded Tromba Heroique in the Choir division. Constructed with small Willis tuba shallots on 16? wind pressure, this dynamic reed is duplexed to the Great division and can be tamed for use as a chorus reed by its enclosure. Indeed, the degree of control allowed by truly effective expression allows the use of a variety of stops for choral and congregational accompaniment and tonal layering that is not often possible in other instruments.

Our firm built electro-pneumatic slider chest actions of the Blackinton variety with our electro-pneumatic primary design. This type of chest action has the ability to operate over a wide pressure range without the repetition problems and pressure limitations often associated with electric pull-down slider chests. Electro-pneumatic unit chests are provided for all large bass pipes, offset chests, and reeds.

One fabled and often debated element in organ mechanical design is the winding system of the modern organ. Often in art one can consider that anything that draws attention to itself is probably too much. This maxim is used as an internal compass in our decision-making processes. Our concern is a winding system that provides a solid wind supply without being sterile. The winding on the Savannah organ is accomplished through the use of ribbed and floating lid regulators fitted with weights and springs. The organ reeds are placed on independent wind regulators to allow a pressure differential from the flue stops and to permit independent tremulant control. All of the windchests are individually fitted with tunable concussion bellows to allow fine regulation. In this manner, we achieved stable winding that still maintains a presence of life.

The resources of the organ are controlled by a three-manual drawknob console. Built in the English style, the console sits on a rolling platform to allow mobility. The console exterior is built of white oak with an interior of mahogany and ebony. The console features modern conveniences for the organ performer such as multiple memory levels, programmable crescendo and sforzando, transposer, MIDI, and the ability to record and play back organ performances.

As the music ministry continues to grow, the organ is prepared for additional stops in the Great, Swell, and Choir divisions. There is also preparation for an Antiphonal division with a horizontal Trompette en Chamade in the rear of the sanctuary. These design considerations allow the organ to grow with the needs of the congregation.

The organ chassis, inclusive of the organ case, console, windchests, winding system and wood pipes were built entirely by the Schlueter craftsmen. Delivery and installation of the organ took five weeks with the tonal finishing lasting six weeks beyond the installation. Tonal finishing was completed under the direction of Arthur Schlueter III and Daniel Angerstein with the assistance of Lee Hendricks, John Tanner, Marc Conley, and Al Schroer. As is the practice of our firm, the tonal finishing of the organ has occurred with several repeat trips to work with the pipes and evaluate the results. We find that this method of tonal finishing results in a finer degree of voicing than is possible from one concentrated trip. It is expected that over the course of the year we will continue to make small changes and refinements.

Quality organ building is never the result of one individual but is the result of the synergy of a team. In this respect our firm was ably assisted by the clergy, music staff, church staff, organ committee chairman and the members of the organ committee. These individuals readily gave of their time and talents and provided invaluable assistance from the inception of the organ project to its installation and tonal finishing. Their effort, coupled with that of the craftsmen of our firm, has resulted in the creation of this unique instrument. We would like to take this opportunity to thank each of the individuals involved with this project. We would also like to publicly thank the members of the First Presbyterian Church in Savannah, the organ committee, and individual members including but certainly not limited to minister Stephen Williams, parish associate Nelle McC. Bordeaux, Ray McClain, organist, Jim Adams, music director, and organ committee chairman Bill Ricks.

Established in 1973, the A. E. Schlueter Pipe Organ Company is located of 20 miles east of Atlanta in the town of Lithonia, Georgia. The facility contains over 22,000 square feet of space dedicated to building organs for worship and recital. Created as a family business, the company is operated under the guidance of Arthur Schlueter, Jr. and Arthur Schlueter III. Together they provide direction to over 25 artisans in the building and rebuilding of pipe organs. In a desire to be mindful of the reason for the instruments, the seal of the company incorporates “Soli Deo Gloria,” God alone the glory. Additional information on our firm and projects can be viewed at .

—Arthur Schlueter III



A. E. Schlueter Pipe Organ Company wishes to thank its staff including:


Art Schlueter Jr.—president

Arthur Schlueter III—vice president/ tonal and artistic direction

John Tanner—vice president of production/tonal finisher

Howard Weaver—senior design engineer

Shan Dalton—office manager/ administrative assistant

Bob Parris—executive assistant

Marc Conley—shop foreman/tonal finisher

Randy Wilson—assistant shop foreman

Rob Black—master cabinetmaker/CAD organ design

Sam Polk—organ assembly, tuning assistant

Al Schroer—voicing, organ assembly & tuning

Dallas Wood—organ assembly, tuning assistant

Michael DeSimone—leather & small parts

Katrina Thornton—financial secretary

Barbra Sedlacek—office support

Joe Sedlacek, Sr.—console wiring

Joe Sedlacek, Jr.—organ assembly

Mark Montour—CNC operator/woodwright

Dustin Carlisle—organ assembly

Jeffery Chilcutt—organ assembly

Kelvin Cheatham—organ assembly

Kevin Cartwright—tuning & service

Bob Weaver—tuning & service

Othel Liles—electrical engineer

Patty Conley—organ assembly

Herb Ridgely, Jr.—sales and support staff

Don Land—sales and support staff

David Stills—sales and support staff

Noel Jones—sales and support staff

A. E. Schlueter: First Presbyterian Church, Savannah, Georgia,

III manuals, 47 ranks

GREAT (Unenclosed)

16' Sub Principal

8' Open Diapason

8' Principal

8' Harmonic Flute

8' Bourdon

8' Gemshorn (Choir)

8' Violone

4' Octave

4' Flute

2' Fifteenth

IV–V Fourniture 11?3'

8' Clarinet (Choir)

16' Tromba Heroique (non-coupling) (Choir)

8' Tromba Heroique (non-coupling)
(Choir)
4' Tromba Heroique (non-coupling) (Choir)

Zimbelstern

Chimes (Choir)

Tremulant


SWELL (Expressive)

16' Lieblich Gedeckt

8' Geigen Principal

8' Chimney Flute

8' Viole de Gambe

8' Viole Celeste

8' Flauto Dolce

8' Flute Celeste

4' Geigen Octave

4' Nachthorn

22/3' Nazard

2' Recorder

11/3' Tierce

IV Full Mixture 2'

16' Bassoon

8' Trumpet

8' Oboe

4' Clarion

Tremulant

Swell to Swell 16'

Swell Unison Off

Swell to Swell 4'


CHOIR (Expressive)

16' Gemshorn

8' Principal

8' Holzgedeckt

8' Gemshorn

8' Gemshorn Celeste

4' Principal

4' Spindle Flute

2' Fifteenth

11/3 ' Larigot

1' Sifflote

III Scharf 2/3'

8' Clarinet

16' Tromba Heroique (non-coupling)

8' Tromba Heroique (non-coupling, high-pressure, hooded)

4' Tromba Heroique (non-coupling, high-pressure)

Harp (digital)

Tremulant

Choir to Choir 16'

Choir Unison Off

Choir to Choir 4'


Antiphonal (prepared for)


PEDAL

32' Violone (digital)

32' Bourdon (digital)

16' Contra Bass (digital)

16' Sub Principal

16' Gemshorn (Choir)

16' Subbass

16' Lieblich Gedeckt (Swell)

8' Octave

8' Gemshorn (Choir)

8' Bourdon

8' Gedeckt (Swell)

4' Choral Bass

4' Cantus Flute (Great)

2' Flute (Swell)

III Mixture 22/3'

32' Contra Trombone (digital)

16' Trombone

16' Bassoon (Swell)

8' Tromba (Choir)

8' Trumpet (Swell)

4' Tromba (Choir)

4' Clarinet (Choir)



Inter-Manual Couplers

Great to Pedal 8', 4'

Swell to Pedal 8', 4'

Choir to Pedal 8', 4'

Antiphonal to Pedal 8'



Swell to Great 16', 8', 4'

Choir to Great 16', 8', 4'

Antiphonal to Great 8'

Swell to Choir 16', 8', 4'

Antiphonal to Choir 8'

Antiphonal to Swell 8'

Choir/Great Transfer (latching piston)

(divisional pistons transfer)



MIDI Controls (with record/playback)

MIDI to Great

MIDI to Swell

MIDI to Choir

MIDI to Pedal



Combination system with a minimum of 128 levels of memory

Six thumb pistons each division

12 General pistons—thumb and toe

Great to Pedal—thumb and toe

Swell to Pedal—thumb and toe

Choir to Pedal—thumb and toe

Swell to Great—thumb

Choir to Great—thumb and toe

Swell to Choir—thumb

32' Violone—reversible—thumb

32' Bourdon—thumb

32' Contra Trombone—reversible—thumb and toe

Sforzando—thumb and toe (programmable)

Crescendo Pedal (programmable)

Set Piston—thumb

General Cancel—thumb



Additional Features

Zimbelstern—9 bells

Chimes—32 notes

MIDI (programmable as preset stops)

Data File Sequencer provided for Playback/Record of organ performance

Transposer

Programmable Sforzando

Programmable Crescendo

Tracker touch keyboards

Historic Aeolian-Skinner installed in Amarillo, Texas

Robert P. Rapp

Robert P. Rapp has combined careers in medicine and music, earning his M.D. degree from the University of Texas Medical Branch in Galveston in 1956. After serving in the U.S. Air Force, he went into private practice in Austin, Texas. Dr. Rapp has been active in the American Guild of Organists since age 14, serving as dean of the Austin chapter 1979–81. He studied organ in Galveston 1937–46 with Norman Niles and Georgia Anne Rahe, with Lee Norrell in San Antonio (1946–47), Anthony Rahe in Houston (1949–50), Walter Haacke in Wiesbaden, Germany (1958–60), and Jerald Hamilton at the University of Texas (1961–62). He has held church organist positions at St. Mary’s Cathedral, Galveston; St. Joseph’s German Church, Galveston; the Shrine of the Little Flower, San Antonio; First Baptist Church, Galveston; St. Matthew’s Episcopal Church, Austin; and Good Shepherd Episcopal Church, Austin. Dr. Rapp acted on behalf of St. Andrew’s Episcopal Church, Amarillo, Texas, beginning in 1996, to purchase the Aeolian-Skinner organ from the University of Texas, and worked closely with the UT Dean of Fine Arts, Dr. David Deming.

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“The largest pre-war (World War II) Aeolian-Skinner built by G. Donald Harrison remaining almost entirely as built has been acquired by St. Andrew’s Episcopal Church, Amarillo, Texas.” Thus starts the article in The Tracker (Journal of the Organ Historical Society), volume 41, number 3, 1997.
In 1938, Dr. Ezra William Doty, at the age of 31, was hired to be the first dean of the College of Fine Arts at the University of Texas in Austin. At the time there was no faculty, no curriculum, no building, and a $64,000 budget for assembling all of these. In 1940, a new Music Building was built—the only air-conditioned building on the campus—and by 1942 Dean Doty had assembled an art, music, and drama faculty that combined professional expertise with academic credentials.
The October 1, 1941 issue of The Diapason reports that Aeolian-Skinner was awarded the contract to build a new instrument for the Music Building in the summer of that year at a price of $35,000.1 Their Opus 1024 quickly became the “crown jewel” of the school. Dr. Palmer Christian, professor of organ at the University of Michigan and with whom Dean Doty had studied, played the dedication on November 10, 1942.
In various issues of The American Organist in 1944, there are detailed accounts of the recital hall and the organ, along with much information long forgotten. Dr. Christian is quoted:

The new Aeolian-Skinner is an excellent job, one of the best yet. The clarified ensemble does not sound like a horrified ensemble—there is orchestral color. The Orchestral Oboe is excellent. The floating Positiv is a fine achievement, likewise the floating String Organ. Full organ is perfectly tempered to the size of the room—106 stops in a room seating 504—and the climaxes do not blow one out of the seats.2

Opus 1024 was described in the University of Texas campus newspaper The Daily Texan as being

eight organs in one: there is the Positiv, an authentic 17th-century instrument, and a Great organ which is designed in 18th-century tonal style. The usual Swell, Choir, Solo and Pedal organs are included, but these have a choice collection of orchestral solo stops. The other organs included in the one instrument are the Bombarde, which contains heavy reed stops, and a floating String division, both of which may be drawn on any of the four manuals or pedal. The console has four keyboards of 61 notes each and a pedal board with 32 notes. The round and square pipes are made of tin, lead, zinc, and wood.3
Thus began the life of this magnificent, state-of-the-art instrument, containing 6,173 pipes, 103 ranks, 106 stops and 84 voices, with 45 couplers and 70 combination pistons. It quickly became the landmark organ for Aeolian-Skinner. Organists and organ committees from afar came to play, listen, and gain insight into organ planning, construction, and choices of specifications.
As Opus 1024’s fame grew, so did Aeolian-Skinner’s reputation as the maker of highly esteemed organs. Opus 1024 stands out with its famous Aeolian-Skinner kin in Texas as a masterwork of American organ building. G. Donald Harrison last visited Opus 1024 on July 26, 1954. In his letter to Henry Willis (in London), he remarked that the temperature was an astounding 113 degrees!
The music library at the University of Texas verifies that 130 individual organists had performed 293 programs on Opus 1024 over the years 1942–1981. Among the famous organists presented were Catharine Crozier, Alexander Schreiner, Arthur Poister, David Craighead, Marcel Dupré, Carl Weinrich, Virgil Fox, Flor Peeters, Claire Coci, Fernando Germani, Marilyn Mason, Jean Langlais, E. Power Biggs, Robert Noehren, Jeanne Demessieux, George Markey, Vernon de Tar, Jack Ossewarde, John Weaver, Jerald Hamilton, Robert Baker, William Teague, Heinz Wunderlich, William Whitehead, Pierre Cochereau, André Marchal, John Rose, Peter Hurford, Gillian Weir, and Michael Murray.4
In 1965, after countless hours of heavy use for over 23 years by students and visiting artists, it became obvious that renovation was required. Aeolian-Skinner provided a new console, a new combination action, some mechanical repairs and revoicing of reeds, and some revoicing of flues at a total cost of $65,000.5
Following this, the organ was once again heard by the public. These performances were popular (and free), giving the listening public an opportunity to enjoy classical pipe organ music constantly, and continued until 1975. (Michael Murray was the last noted recitalist to perform in the series.) In 1979, Opus 1024 ceased to be used for degree performances. The churches about the campus were used instead. In 1981, the last public hearing of the organ was played by American Guild of Organists members, with Dean Doty in attendance.
In 1983 a new music building was completed (Bates Recital Hall), and a large tracker organ was installed there. The old Music Building recital hall was used for lecture space by the Architecture Department. Various music programs were given there, but the organ sat silent on stage, console locked, with façade pipes still visible.
So ends one chapter of Opus 1024; now begins the next. On February 11, 1996, an accidental fire destroyed St. Andrew’s Episcopal Church in Amarillo, Texas. It was at this time that it was brought to the attention of Margaret Lacy, the organist of St. Andrew’s, that perhaps the UT organ could be purchased and become a part of the new sanctuary.
After many inquiries and contacts with the UT regents and staff, in 1997 Opus 1024 was rescued from its “retired” status and bought by St. Andrew’s Church. The church chose Schoenstein & Co. to rebuild the organ because of the company’s Aeolian-Skinner connection (Louis Schoenstein worked for
E. M. Skinner, and Lawrence Schoenstein was the West Coast representative for Aeolian-Skinner).
From the very beginning of the construction of the new St. Andrew’s sanctuary, acoustics and placement for the instrument were of utmost importance. Space for the organ was prepared, similar in size to the organ chamber as it existed in the recital hall in Austin, but with better tonal egress. Thanks to the joint efforts of Margaret Lacy and the church’s forward-looking leaders, Jack Bethards, president and tonal director of Schoenstein & Co., Ewart “Red” Wetherill, acoustical consultant, and the Overland Partners, architects, of San Antonio, Texas, Opus 1024 was on its way to having a truly favorable environment to enhance its American Classic tones, which G. Donald Harrison had labored so hard to achieve.
In its Austin home, the only drawback the organ had was that the hall was without reverberation (planned that way by “experts”), so that G. Donald Harrison was never pleased with its placement. In fact, a news article in The Daily Texan of November 11, 1942 quotes a comment gleaned from audience criticism: “the auditorium is too completely lacking in echo.” Now, in Amarillo, it would have the luxury of 3–4 seconds of reverberation, thus giving all the qualities of sound that its original designer had hoped for.
Schoenstein & Co. meticulously made sure that the 1942 Harrison installation was true to the maker’s original tonal ideas. Any changes made in configuration were to the betterment of the pipe locations, with correct speech being maintained. These were as follows:
1) The huge pipes of the 32′ Contra Bourdon were put on the third level above the enclosed boxes for the Choir, Swell, String and Solo divisions, thereby giving them direct speech into the nave rather than being placed in a far left alcove as in Austin;
2) The 32′ Kontra Posaune pipes were likewise placed directly in front of the exposed chests (Pedal, Great, and Positiv divisions), giving them a similar clarity rather than being muffled as in the original layout;
3) The Solo Tuba 8′ did not fit properly on the Solo chest, and was placed unenclosed also in front of the exposed chests described above, thereby giving it direct egress (Research in Aeolian-Skinner records fails to reveal why the Tuba had been placed on a toe board that was too small. It may have been a last minute change, an error, or one of the 1964 changes.);
4) On the Solo chest in the Tuba position Schoenstein added their beautiful Symphonic Flute 8′, thus providing an open solo flute to complement the stopped one;
5) There were two complete changes. The Great mixture, Fourniture III–V, was of extremely large scale in the trebles and at full volume would have been too loud for its new home. Therefore 285 new pipes were made and the original pipes were carefully wrapped and boxed and are in the storage area of the new sanctuary. The same was true of the treble pipes of the Great Quint, which were replaced.
The organ has two additions other than the Symphonic Flute: a Cymbelstern and a medium-volume, medium-scale Pedal 16′ Bourdon. The original stopped Subbass of huge scale was too large in the responsive acoustics of the church and could be used only in large combinations. Its name was changed to Major Bass.
All this makes the organ absolutely complete, lacking nothing for any organist or literature being played. There should be no complaints from any source as to these enhancing changes to an instrument so well respected.
In August 2002, the new sanctuary was completed, and in September 2004 the installation of Opus 1024 began. The huge van arrived containing the vast cargo of the instrument. This included all eleven chests, along with the Vibraharp mechanism, the 62-year-old sugar pine wood for the structure and expression boxes (Choir, Swell, Solo, String, and Bombarde divisions), the reservoirs, tremulants, expression motors, and other parts that had been completely restored to their original pristine condition by Schoenstein over the prior three years.
Work was under the direction of vice president and plant superintendent, Louis Patterson. Tonal finishing was by Jack Bethards with Mark Hotzenpiller and Steuart Goodwin with Wendell Bolltyme. Other key Schoenstein personnel were David Beck, Peter Botto, Chris Hansford, Oliver Jaggi, Joe Lamberana, George Morten, Robert R. Rhoads and Chet Spencer. To provide mobility and multiple memories, the console was equipped with a Peterson ICS control system (replacing the original combination action and relay) and Harris stop knob actions.
Over the next several months, the people of St. Andrew’s marveled at the installation process, and eagerly awaited the day that they could hear Opus 1024. That day came in November 2004, when 25 ranks of the Swell and Choir were playing. Margaret Lacy played it for the first time and was just amazed. She said, “It was a glorious sound, and with over three seconds of reverberation time. Opus 1024 had been given a vibrant and thrilling new voice.” (Seventy-eight ranks were yet to be heard!) In February 2005 the installation was completed. All 103 ranks were in and playing. The Aeolian-Skinner was brought back to life.
The Amarillo Globe-News reported the event of the organ’s arrival as “An Unusual Organ Transplant.”6 There can never be a happier group than those people living in the city of Amarillo who weekly (and quite often daily) get to enjoy the tones of one of the most spectacular organs ever produced by the Aeolian-Skinner company.
The list of organists who have played Opus 1024 in its new home keeps growing, with each performer declaring what a thrill it is to play. The transition from Austin to Amarillo made all the difference and extended the playing life of Opus 1024.
The exciting inaugural event occurred in June 2005 with Thomas Murray performing solo and in conjunction with the Amarillo Symphony Orchestra (playing Handel’s Concerto in F and Poulenc’s Concerto in G). The future of the organ is nothing but exciting as Margaret Lacy continues to bring the brightest and best musicians to come and enjoy the renovated and renewed powerful and beautiful tones of Opus 1024, first heard 63 years ago.
Thus the organ has reached its final destination and fulfilled the dreams of not only its designer, but the dreams of a vast number of organists and non-organists in the west Texas city of Amarillo. It is waiting for any and all who desire to hear what a “vintage” Aeolian-Skinner can sound like in the electronic age. Nothing can compare to what you will experience when you sit in St. Andrew’s Episcopal Church on South Georgia Street.

St. Andrew’s Episcopal Church
Amarillo, Texas
Aeolian-Skinner Organ Co., Opus 1024
84 voices, 103 ranks

GREAT (3″ wp)
16′ Double Open Diapason*
16′ Quintaten
8′ Diapason
8′ Principal
8′ Bourdon
4′ Octave
4′ Rohrflöte
22⁄3′ Quint
2′ Super Octave
13⁄5′ Tierce
III–V Fourniture
III Cymbel
Vibra-Harp (Choir)
Harp (Choir)
Chimes (Solo)
Harp-Celesta (Choir)
Bombarde on Great
String on Great
* Rank to be added when casework is completed.

SWELL (3¾″ wp)
16′ Rohrgedeckt
16′ Contra Salicional
8′ Geigen Prinzipal
8′ Stopped Flute
8′ Flauto Dolce
8′ Flute Celeste
8′ Salicional
8′ Voix Céleste
4′ Oktave Geigen
4′ Flauto Traverso
22⁄3′ Nazard
2′ Flautina
13⁄5′ Tierce
IV Plein-Jeu
16′ Fagotto
8′ Trompette
8′ Oboe
8′ Vox Humana
4′ Clarion
Vibra-Harp (Choir)
Harp (Choir)
Harp-Celesta (Choir)
Tremulant
Bombarde on Swell
String on Swell
Swell 16′
Swell Unison Off
Swell 4′

CHOIR (3¾″ wp)
16′ Contra Viola
8′ English Diapason
8′ Concert Flute
8′ Viola
8′ Viole Sourdine
8′ Viole Celeste
8′ Dulciana
8′ Unda-Maris
4′ Fugara
4′ Harmonic Flute
2′ Zauberflöte
16′ Bassoon
8′ Clarinet
8′ Cor Anglais
Vibra-Harp
Harp
Chimes (Solo)
Harp-Celesta (Toe lever with indica- tor for dampers)
Tremulant
Bombarde on Choir
String on Choir
Choir 16′
Choir Unison Off
Choir 4′

BOMBARDE (7″ wp)
16′ Bombarde
8′ Trompette Harmonique
4′ Clarion Harmonique
IV–VI Grand Choeur

SOLO (10″ wp)
8′ Symphonic Flute
8′ Doppelflöte
8′ Violoncello
8′ Violoncello Céleste
4′ Concert Flute
8′ French Horn
8′ Orchestral Oboe
Chimes
Tremulant
8′ Tuba (Unenclosed)
Bombarde on Solo
String on Solo
Solo 16′
Solo Unison Off
Solo 4′

POSITIV (2½″ wp)
8′ Nachthorn
4′ Koppelflöte
22⁄3′ Nasat
2′ Prinzipal
13⁄5′ Terz
1′ Sifflöte
III Zimbel
Cymbelstern

STRING (10″ wp)
16′ Contre Viole
8′ Viole de Gambe
8′ Gambe Celeste
8′ Viole d’Orchestre
8′ Viole Celeste
8′ Gemshorn
8′ Gemshorn Celeste
4′ Violina

PEDAL (5″ wp)
32′ Contra Bourdon (ext. Major Bass)
16′ Principal
16′ Major Bass
16′ Sub Bass
16′ Contra Salicional (Swell)
16′ Contre Viole (String)
16′ Lieblich Gedeckt (Swell)
8′ Principal
8′ Gedeckt Pommer
8′ Still Gedeckt (Swell)
8′ Salicional (Swell)
51⁄3′ Quint
4′ Super Octave
4′ Nachthorn
2′ Spitzflöte
V Mixture
32′ Kontra Posaune
16′ Posaune
16′ Bombarde (Bombarde)
16′ Bassoon (Choir)
8′ Trumpet
4′ Clarion
2′ Rohrschalmei
Chimes (Solo)
Bombarde on Pedal
String on Pedal

Couplers
Great to Pedal 8′
Swell to Pedal 8′
Swell to Pedal 4′
Choir to Pedal 8′
Choir to Pedal 4′
Solo to Pedal 8′
Solo to Pedal 4′
Positiv to Pedal 8′

Swell to Great 16′
Swell to Great 8′
Swell to Great 4′
Choir to Great 16′
Choir to Great 8′
Choir to Great 4′
Solo to Great 16′
Solo to Great 8′
Solo to Great 4′
Positiv to Great 8′

Swell to Choir 16′
Swell to Choir 8′
Swell to Choir 4′
Solo to Choir 8′
Positiv to Choir 8′
Pedal to Choir 8′

Great to Solo 8′
Swell to Solo 8′

Great/Choir Transfer

Console
Peterson ICS-4000, capture combination action: 100 memories and lock
16 General pistons (13 duplicated by toe studs)
10 Great pistons
10 Swell pistons
10 Choir pistons
10 Solo pistons
10 Pedal pistons
4 Coupler pistons
1 Set piston
1 General Cancel piston
Programmable piston range for each memory

Swell to Great reversible piston and toe stud
Positiv to Great reversible piston
Choir to Great reversible piston
Solo to Great reversible piston
Swell to Choir reversible piston
Positiv to Choir reversible piston
Solo to Choir reversible piston
Great to Solo reversible piston
Swell to Solo reversible piston
Great to Pedal reversible piston and toe stud
Swell to Pedal reversible piston and toe stud
Choir to Pedal reversible piston and toe stud
Positiv to Pedal reversible piston
Solo to Pedal reversible piston and toe stud
32′ Posaune reversible toe stud
32′ Bourdon reversible toe stud
All Swells to Swell reversible piston and toe lever with indicator
Manual 16s and Pedal 32s Off reversible piston and toe lever with indicator
Mixtures Off reversible piston and toe lever with indicator
Reeds Off reversible piston and toe lever with indicator
Cymbelstern reversible toe lever
Full Organ reversible piston and toe lever with indicator

Three balanced expression pedals
Crescendo pedal with indicator
Pedal on Solo combinations
Pedal on Swell combinations
Pedal on Great combinations
Pedal on Choir combinations

Peterson ICS-4000 relay system

Cover feature

Files
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Schoenstein & Co.,
Benicia, California
Schermerhorn Symphony Center,

Nashville, Tennessee

Music City’s New Symphony Hall Organ
In its February 1982 issue, The Diapason published an article that challenged conventional wisdom. (See reprint of the article on pages 27–28 of this issue.) In it, Calvin Hampton made a convincing argument that an organ designed to be an instrument of the symphony orchestra must be radically different in many respects from a church organ or even a concert organ intended for solo use. A “normal” organ, even a fine one, could not pass his audition for symphony hall use. This really caught my attention. Since my background had included playing in and managing symphony orchestras, I was keenly aware of the uneasy relationship between orchestras and pipe organs. To managements, the organ was a headache. It used up too much space and too much money. Stagehands didn’t like the extra hassle of set-ups and working out quiet time for maintenance. Musicians didn’t like tuning to the organ or listening to its quinty mixtures and other thin, shrill sounds. Conductors never seemed satisfied with either the tone color or volume produced. Comments heard over and over again were: “I like that tone, can it be louder?” “Good balance, but I’d like a fuller, darker tone.” “Please(!)—keep with my beat!” The organist’s answers usually provoked frustrated and sometimes colorful comments about the inflexibility of the organ. The poor organist had even more problems than these: scarce rehearsal time, balance problems if the console was attached to the organ, poor sightlines if the console was on stage but too large or placed off in a corner.
The biggest problem of all was disappointment for the audience. The power of a modern symphony orchestra is so immense that most concert hall organs could not add to the drama of a fortissimo tutti. Against the gravity of the full orchestra, an ordinary organ can sound pathetically thin and upside down in balance, with trebles screaming out over the top of the ensemble. I had wondered for a long time why no one had attempted to solve all of these problems with an innovative approach. Calvin Hampton’s article gave me hope that someone would. About ten years later the tide began to turn. The musical issues were being addressed and many of them quite successfully. However, as a former instrumentalist and symphony manager, I thought that a more radical approach was needed.

Solving problems
Most of the behind-the-footlights practical problems can be solved by adopting an obvious, but, in some quarters, unpopular guideline: employ the fewest stops necessary to get the musical job done. This means an instrument that takes up less space, is less costly to purchase and more efficient to maintain. The case or chamber can be shallow for best tonal egress. Layout can be arranged for temperature—and thus tuning—stability; for example, all chorus work on one level, all reeds on one level. The console can be more compact, promoting sightlines and ease in setting and striking. The concept is easy enough to adopt, but what is that magic number of stops? What is the musical job to be done? How can we produce adequate power that will satisfy the audience?
First, it should be established that we are considering an instrument primarily for the Romantic and Modern repertoire. A properly equipped symphony hall should have one or two mechanical action stage organs to take care of the earlier repertoire. Previous experiments to include a “baroque” division with a small console as part of a large instrument have not been successful.
The primary use of the organ will be with orchestra. As a solo instrument, it might be used on occasion for choral accompaniment, silent movies as part of a pops series, and some special events. The solo organ recital has turned out to be a rarity in symphony halls. This is also true of other instrumental or vocal recitals. The reasons are simple: economics and scheduling.
If this musical job description is accurate, then an instrument in the size range proposed by Calvin Hampton (46 voices) would be ideal. Certainly any well-designed instrument of that size should also be able to render a very convincing recital program when needed. The key to a great performance is great tone, not great size.
If client and builder have the discipline to follow this Multum in Parvo plan rigorously, the question of tonal design becomes a matter of selecting stops that are absolutely essential and living without those that would be nice to have. Several classes of stops can be excluded with ease because they are duplicated in the symphony orchestra. Certainly there is no need for multiple strings and celestes or for orchestral reeds such as French Horn, English Horn, and Orchestral Oboe. The organ does not need items that would be considered necessities in a comprehensive church organ or in one specialized for some branch of the organ solo repertoire or for transcriptions.
What, then, are the elements that a symphony hall organ must have? Understanding what musical value the organ can add to the orchestra leads us to the answer. There are three characteristics of the organ that differentiate it very clearly from the orchestra. First, its frequency range is far greater. It can extend octaves below and above the orchestra. Extending the bass range has been the feature most appreciated by composers and orchestrators; however, increasing the treble range can be attractive, provided that it doesn’t get too loud! The second special characteristic of the organ is its unique tone—the diapason. This is a tone that cannot be produced by the orchestra and should, therefore, be the backbone of the organ when heard with the orchestra. The third element that should be most intriguing to composers is the organ’s ability to sustain indefinitely. This feature is most artistically displayed in connection with good expression boxes. A long, continuous diminuendo or crescendo can be most effective.

Four vital design points
Since there is a general understanding of basic organ tonal elements common to composers who write for orchestra as well as for the organ, a good symphony hall organ must include the minimum architecture of a normal three-manual traditional Romantic organ: diapason choruses and chorus reeds on each manual, representatives of stopped, open and harmonic flutes, a string with celeste, flute mutations, and the most common color reeds (Oboe, Clarinet, and Vox Humana). To make the organ capable of working in partnership with a modern symphony orchestra, the following tonal elements must be incorporated into this traditional scheme:
1. Profound Pedal. This is the most important element an organ can add to a symphony orchestra—bass one or two octaves below the double basses, bass tuba and contra bassoon. There must be at least one stop of such immense power that it will literally shake the floor. Stops of varying colors and dynamics with some under expressive control complete the Pedal.
2. Solo stops unique to the organ. These may be tones not found in the orchestra such as a diapason, stopped flute, and cornet or imitative stops that can be voiced at a power level not possible from their orchestral counterparts, such as solo harmonic flutes, strings, clarinets, and high pressure trumpets and trombas.
3. One soft stop capable of fading away to a whisper. Perhaps best in this role is a strongly tapered hybrid (or muted) stop.
4. An ensemble of exceptionally high power under expression. This cannot be raw power. It must be power with beauty, centered in the 8′ and 4′ range to give a sense of solidity and grandeur. Since symphony halls are generally drier acoustically than the typical organ and choral environment, it is even more important that this power be concentrated in the mid-frequency range and be of warm tonal character. The false sense of power created by excessive emphasis in high-pitched tones should be avoided. Orchestras don’t rely on a battery of piccolos for power, why should the organ? Piccolos can dominate an orchestra and so can mixtures, but that doesn’t make either effect beautiful. The kind of power needed comes from moderate to high wind pressures and stops voiced with rich harmonic content for good projection. Upperwork should be for tonal color rather than power. At least one diapason chorus should include a very high pitched mixture, a tone color unique to the organ, but it must not be loud. Eight-foot diapasons, chorus reeds, open flutes and strings should work together to create an ensemble capable of standing up to a full symphony orchestra. As someone who has sat in the midst of a symphonic brass section, I have a clear idea of the kind of power that is generated by trumpets, trombones and horns at fff. To compete without sounding shrill and forced requires high pressure diapasons and reeds, including a 32′ stop—all under expression to fit any situation.

Good tonal design must be supported by a mechanism that helps the organist solve all the performance problems mentioned above—an instrument that is as easy as possible to manage. The organ builder should employ every device at his command to give the organ musical flexibility so that it can take its place as an equal among the other instruments of the orchestra.

The Nashville project
We were given an opportunity to demonstrate the effectiveness of these ideas in our project for the Schermerhorn Symphony Center in Nashville. This was one of those projects that went smoothly from beginning to end, with everything falling into place and no road blocks in the way. Of the greatest importance to the success of this job was the client’s clear musical goal and realization that a really great organ can’t be all things to all people. We had a well-defined mission: to build an instrument that is a member of the orchestra. To this end we worked from the beginning with Andrew Risinger, organ curator and symphony organist and also organist/associate director of music at West End United Methodist Church in Nashville.
We were appointed, at the very beginning of the project, to the design team that included acoustician Paul Scarbrough of Akustiks in Norwalk, Connecticut and design architects David M. Schwarz, Architectural Services of Washington, D.C. I had worked with both as organ consultant for the Cleveland Orchestra in the renovation of Severance Hall and its E. M. Skinner organ. The design team, under the skillful management of Mercedes Jones, produced a hall that could not be more perfect from our point of view. Seating 1,872, it is beautiful in its traditional design, excellent proportions, and fine materials. It is of the traditional “shoebox” shape that everyone knows is perfect but that few architects are willing to employ. Since, under the direction of Paul Scarbrough, all of the traditional acoustical rules were followed, the result is, indeed, perfect.
Reverberation time is controlled by dampening material that may be added or subtracted at will. There is excellent balance, clarity, and pleasing resonance even in the lowest reverberation setting. With all dampening material lifted out of the way at the press of a button, the hall is ideal for most organ and choral repertoire. In addition, there is one very unusual and practical feature that has an added impact for the organ. The orchestra seating section can be converted to a flat open floor for pops concerts and special events. Most of the transformation is accomplished automatically through a labyrinth of gigantic machinery in the basement. The huge expanse of polished wood flooring adds significant reverberation. This feature also, interestingly enough, increases the usage of the organ. The hall is often rented for weddings. This is perhaps the only symphony hall organ in the world that has a reason to play the Mendelssohn and Wagner marches!
The organ is in an ideal position just above the choral risers at the rear of the stage. The casework was designed in close cooperation with the architectural team and Paul Fetzer whose company, Fetzer Architectural Woodwork of Salt Lake City, built the façade along with the other woodwork of the hall. It affords full tonal egress from the open front chamber behind it, which is shallow for accurate unforced projection. The organ is arrayed on three levels. Most flues are on the first level. Reeds, celestes, some flutes and offsets are on the second, and Pedal on the third, with the exception of the Trombone and Diaphone, which occupy a space extending all three levels. The bass octave of the 32′ Sub Bass is in a most unusual spot—located horizontally underneath the patron’s boxes to the left and right of the stage apron! These large scale pipes produce a soft 32′ tone that is felt as well as heard throughout the entire auditorium. The 32′ Trombone is in its own expression box, and the Swell includes our double-expression system, wherein the softest and most powerful voices are in a separate enclosure at the rear of the Swell with shades speaking into the Swell. The Vox Humana is in its own expression box inside the double expressive division of the Swell and so is, in effect, under triple expression. Accurate climate control has been provided, keeping the organ at constant humidity and temperature. The blower room in the basement has its own cooling system to neutralize the effects of blower heat build-up. Intake air is filtered.
The instrument employs our expansion cell windchests and electric-pneumatic action. This allows uniform, fast and silent action for all pipes no matter their pressure as well as easy console mobility and the borrowing of stops for maximum flexibility. Obviously borrowing is employed heavily in the Pedal, but it is also used on the Great, where the high pressure diapasons 8′ and 4′, string, stopped flute, Cornet and Solo reeds are all available independently. It also makes practical the extension of Pedal stops into the Solo and facilitates an interesting effect, the Tuben stop, which borrows the Swell reeds onto the Solo at unison pitch (Posaune up an octave at 8′ and Clarion down an octave at 8′ along with the 8′ Trumpet).
The console has the usual playing aids, but has been kept as simple and straightforward as possible to facilitate efficient rehearsals. There is a record-playback system—helpful for rehearsals and also for house tours; the playback mechanism can be remotely controlled by tour guides. With the press of a button they can start the blower and select a demonstration piece to be played for public tours, which are a popular attraction in Music City.

Tonal design
The two pillars of tone are diapasons and trumpets. The manual diapason choruses contrast in tonal color and power. The Swell chorus (Manual III) is based on a slotted 8′ Diapason of moderate power with a slightly tapered 4′ Principal and a 2′ Mixture, which is under double expression. The Great (Manual II) has a large scale 8′ Diapason with upperwork through 1⁄3′ Mixture and a slotted, smaller scale double. The Solo (Manual I) has the largest scale and most powerful chorus, all under expression and at 10″ pressure. Its mixture can be drawn with and without a tierce. The trumpets range from closed, tapered shallots on 10″ wind in the Swell to open parallel shallots on 5″ wind in the Great to open parallel shallots on 15″ wind in the Solo, where tromba-type tone is added by the Tubas and Trombone. Built around these pillars is an ensemble of stops with color, definition and sinew that project well to produce power in a manner similar to the orchestral instruments and centered at the orchestra’s pitch. Note that 64% of the stops are at 8′ and 4′ pitch. A most rewarding comment on this subject came after the opening concert in Nashville from the visiting executive director of one of the world’s leading orchestras, who remarked that he didn’t know that it was possible for an organ to be so powerful and at the same time so beautiful.
There are several special tonal features including a newly developed stop—the Diplophone. We wanted to include solo stops of heroic power from each family of tone. Our usual solo Gambas, Symphonic Flute (which employs five different types of pipe construction throughout its compass including double mouth and double harmonic pipes), Tibia Clausa, Corno di Bassetto and Tuba Magna represented the string, open flute, stopped flute, color reed, and chorus reed families, but we needed a solo diapason of equal power. We tested normal stentorphone pipes and then double-languid pipes without achieving the character of tone and power we were after. We then tried a double-mouth diapason. Mouths on either side of the pipe allow a greater mouth width than is possible with a single opening. This, combined with high pressure, produces tremendous power with smoothness and beauty. Finally, we included a powerful mounted Cornet (unusual for us) because it is a tone color completely outside the range of the orchestra and should offer interesting possibilities to contemporary composers.
For a stop that can fade away to nothing, we added our Cor Seraphique and Vox Angelique. These are very strongly tapered stops of the muted (or hybrid) variety. They are neither strings nor flutes and have a mysterious quality that is very attractive, with a harmonic structure that promotes projection when the Swell boxes are open, but is soft enough to disappear with both boxes closed. This stop is extended to 16′ to provide the same effect in the Pedal.
The Pedal includes all classes of tone at 16′ pitch: open wood, open metal, string, hybrid, stopped wood, and two different weights of chorus reed tone, both under expression. One of the most important 16′ voices is the Violone, which gives a prompt clear 16′ line to double and amplify the basses of the orchestra. The most unusual, and in some ways most important, stop of the organ is the 32′ Diaphone. Diaphones have a tone quality that ranges from a very dark, almost pure fundamental to a slightly reedy quality. Since this organ is equipped with a 32′ Trombone under expression, the Diaphone is voiced for pure fundamental tone of magnificent power. It produces more solid fundamental bass than a large open wood diapason and it speaks and releases promptly.
Our Pizzicato Bass stop, which gives a clean pointed bass line when added to other stops playing legato, is included because of its value in choral accompaniment. There is a special Sforzando coupler that is engaged only when the Sforzando lever, located above the swell shoes, is touched. It allows Solo stops to be momentarily added to the Great for accent. The Solo has a variable speed tremulant.

Installation and debut
The organ was installed in several phases, which went very smoothly due to the outstanding cooperation and support of the symphony staff, led by president and CEO Alan D. Valentine and general manager Mark F. Blakeman, as well as the excellent building contractors, American Constructors, Inc. The atmosphere was collegial and, yes, there is such a thing as southern hospitality. The casework, display pipes, blowers and large pedal pipes were installed in February–May 2006. We completed the mechanical installation of the organ during the summer of 2006. Tonal finishing was carried out during the summer of 2007. The leisurely and well-spaced schedule avoided the conflicts and last minute scrambles that usually cut tonal finishing time.
The organ was presented to the public at the opening night gala of the 2007–08 season with Leonard Slatkin, conductor, and Andrew Risinger, organist. The program included the Bach Toccata and Fugue in D minor, Duruflé Prelude and Fugue on the Name Alain, Barber Toccata Festiva, and the Saint-Saëns Symphony No. 3. It was recorded for broadcast on SymphonyCast. The exceptionally active Nashville chapter of the AGO has co-sponsored events starting with a lecture-demonstration evening and including the “International Year of the Organ Spectacular” recital featuring Vincent Dubois. The orchestra has presented several programs including a “Meet the Organ” demonstration for students, a “Day of Music” free to the community, a series of noontime recitals, and Thomas Trenney playing accompaniments to the silent films Phantom of the Opera at a Halloween program in 2007 and The Mark of Zorro in 2008. The organ has been used to accompany the symphony chorus in concert and also in several additional orchestra subscription concerts including works by Elgar and Respighi. The 2008–09 season has already presented Andrew Risinger in the Copland Symphony for Organ and Orchestra with new music director Giancarlo Guerrero conducting, the noon recital series continues, and more programs are on the way.
The instrument has been greeted with enthusiasm from the artistic staff of the orchestra and the musicians. The public has embraced it warmly and we look forward to the 2012 AGO convention, where it will be one of the featured instruments.
Jack M. Bethards
President and Tonal Director
Schoenstein & Co
.

On behalf of Louis Patterson, V.P. and Plant Superintendent; Robert Rhoads, V.P. and Technical Director (retired); Chuck Primich, Design Director; Mark Hotsenpiller, Head Voicer;
department heads Chet Spencer, Chris Hansford and Mark Harter;
and technicians David Beck, Filiberto Borbon, Peter Botto, Dan Fishbein, Oliver Jaggi, George Morten, Humberto Palma, Tom Roberts, Dan Schneringer, Patricia Schneringer, Donald Toney, William Vaughan and William Visscher.

Cover photo by Louis Patterson

Schoenstein & Co.

The Martin Foundation Organ
The Nashville Symphony Orchestra
Schermerhorn Symphony Center
Nashville, Tennessee
47 voices, 64 ranks
Electric-pneumatic action

GREAT – II (5″ wind)
16′ Double Open Diapason 61 pipes
8′ Diplophone (Solo)
8′ Grand Open Diapason (Solo)
8′ First Open Diapason 61 pipes
8′ Second Open Diapason 12 pipes
8′ Gamba (Solo)
8′ Tibia Clausa (Solo)
8′ Harmonic Flute 61 pipes
8′ Salicional (Swell)
8′ Bourdon (metal) 61 pipes
8′ Lieblich Gedeckt
(borrow with Bourdon bass)
8′ Cor Celeste II (Swell)
4′ Octave (Solo)
4′ Principal 61 pipes
4′ Lieblich Gedeckt 61 pipes
2′ Fifteenth 61 pipes
11⁄3′ Mixture IV 200 pipes
1⁄3′ Mixture III 146 pipes
8′ Trumpet 61 pipes
4′ Clarion 61 pipes
8′ Cornet V (Solo)
8′ Tuba Magna (Solo)
8′ Tuba (Solo)
8′ Corno di Bassetto (Solo)

SWELL – III (enclosed, 5″ wind)
16′ Lieblich Bourdon (wood) 12 pipes
8′ Open Diapason 61 pipes
8′ Stopped Diapason (wood) 61 pipes
8′ Echo Gamba 61 pipes
8′ Vox Celeste 61 pipes
8′ Salicional 49 pipes
(Stopped Diapason bass)
4′ Principal 61 pipes
4′ Harmonic Flute 61 pipes
22⁄3′ Nazard 61 pipes
2′ Harmonic Piccolo 61 pipes
13⁄5′ Tierce 54 pipes
8′ Oboe 61 pipes
Tremulant
Stops under Double Expression†
16′ Cor Seraphique 12 pipes
8′ Cor Seraphique 61 pipes
8′ Voix Angelique (TC) 49 pipes
2′ Mixture III–V 244 pipes
16′ Posaune 61 pipes
8′ Trumpet 61 pipes
4′ Clarion 61 pipes
8′ Vox Humana†† 61 pipes
†Flues and Vox 6″ wind; Reeds 11½″
††Separate Tremulant; separate expression box

SOLO – I (enclosed, 10″ wind)
8′ Grand Open Diapason 61 pipes
8′ Symphonic Flute† 61 pipes
8′ Gamba 61 pipes
8′ Gamba Celeste 61 pipes
4′ Octave 61 pipes
2′ Quint Mixture IV
2′ Tierce Mixture V 270 pipes
8′ Tuba† 61 pipes
8′ Harmonic Trumpet† 61 pipes
8′ Tuben III††
8′ Corno di Bassetto† 61 pipes
Tremulant
Tremulant (variable)
Unenclosed Stops
8′ Diplophone 29 pipes
(ext Pedal Open Wood)
8′ Tibia Clausa 29 pipes
(ext Pedal Sub Bass)
8′ Cornet V (TG, 5″ wind) 185 pipes
16′ Trombone 5 pipes
(ext Pedal Trombone)
8′ Tuba Magna† 61 pipes
†15″ wind
††Swell Posaune, Trumpet and Clarion at 8′ pitch

PEDAL (4½″, 5″, 7½″, 10″, 15″ wind)
32′ Diaphone 12 pipes
32′ Sub Bass 12 pipes
16′ Diaphone 32 pipes
16′ Open Wood 32 pipes
16′ Violone 32 pipes
16′ Diapason (Great)
16′ Cor Seraphique (Swell)
16′ Sub Bass 32 pipes
16′ Bourdon (Swell)
8′ Open Wood 12 pipes
8′ Open Diapason (Swell)
8′ Principal 32 pipes
8′ Violone 12 pipes
8′ Gamba (Solo)
8′ Flute (Great)
8′ Sub Bass 12 pipes
8′ Bourdon (Swell)
4′ Fifteenth 32 pipes
4′ Flute (Great)
8′ Pizzicato Bass†
32′ Trombone†† 12 pipes
16′ Trombone†† 32 pipes
16′ Posaune (Swell)
8′ Tuba Magna (Solo)
8′ Trombone†† 12 pipes
8′ Posaune (Swell)
4′ Trombone†† 12 pipes
4′ Corno di Bassetto (Solo)
†8′ Sub Bass with Pizzicato Relay
††Enclosed in its own expression box

Couplers
Intramanual
Swell 16, Unison Off, 4
Solo 16, Unison Off, 4

Intermanual
Great to Pedal 8
Swell to Pedal 8, 4
Solo to Pedal 8, 4
Swell to Great 16, 8, 4
Solo to Great 16, 8, 4
Swell to Solo 16, 8, 4
Solo to Swell 8

Special
Pedal Tutti to Solo
Solo to Great Sforzando
All Swells to Swell
Manual I/II transfer piston with indicator

Mechanicals
Peterson ICS-4000 system with:
256 memory levels
62 pistons and toe studs
programmable piston range for each memory level
Piston Sequencer
10 reversible controls including Full Organ
Four balanced pedals with selector for expression and Crescendo
Record/Playback system with remote control
Adjustable bench

Mixture Compositions
Great IV
C1 A10 D15 A#35 G#45
19 15 12
22 19 15 12
26 22 19 15 12
29 26 22 19 15

Great III
C1 A10 D15 C25 A#35 G#45 B48 F#55
33 29 26
36 33 29 26 22 19 15 12
40 36 33 29 26 22 19 15

Swell III–V
C1 C#14 B24 A#47 D#52
15 8 8
19 15 12 8
22 19 15 12 8
22 19 15 12
22 19 15

Solo V
C1 A46 C#50 F#55
12
15 12
17 15 12
19 17 15 12
22 19 17 15

Solo IV derived from Solo V, without tierce

Tonal Families
Diapason† 17 36%
Open Flutes 7 15%
Stopped Flutes 4 9%
Strings 5 11%
Hybrids 2 4%
Chorus Reeds 9 19%
Color Reeds 3 6%
47 100%

†Includes Diaphone and Salicional

Pitch Summary
Sub
32′ 3 6%
16′ 6 13% 19%

Unison
8′ 22 47%
4′ 8 17% 64%

Super
22⁄3′ 1 2%
2′ 4 9%
Above 3 6% 17%
47 100% 100%

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