Stony Coral Identification Primer for Aquarists, Part One

by | Sep 15, 2007 | 0 comments

This article will help you understand the terminology and procedures required for successfully using available taxonomy keys.


Figure 1. It is a pretty coral, but how do we identify it? Photo by Dana Riddle

If you do not know the names of things, the knowledge of them is lost too.

— Carl Linnaeus, 1751

I recently needed to identify a particular coral to the species level. After consulting popular references, I was reminded of the broad range of terms used by various researchers. Some use botanical terms, others use common yet cryptic descriptions, while still others use a language germane to only coral specialists. Often, different terms shared a singular meaning, which can make for some frustration in a task already considered difficult.

If you’ve been in the reef keeping hobby for a while, you’ve probably outgrown the use of common coral names. Terms such as ‘mushroom’ coral ‘fuzzy green toadstool’ coral could be (and are) applied to vastly different taxa, creating confusion as to the actual identity and worse, improper husbandry procedures. Fortunately, many hobbyists and retailers have adopted use of correct ‘scientific’ nomenclature which applies universally accepted Latin names. Latin is the language of science, and the stony coral Pocillopora damicornis, for example, is the same animal in western Mexico as it is off the coast of eastern Africa. Advanced hobbyists can identify many stony coral species simply at a glance, while other corals’ true identity remains elusive even after considerable examination.

It is not the goal of these articles to make one a coral taxonomist or an expert in coral identification – there are a number of references (taxonomy keys) available that can do that job much better than I ever could (see the Product Review of Veron’s Coral ID CD in this issue). Instead, these articles will consolidate a number of terms within a glossary (at the close of this initial article) and act as a primer for the task ahead. Indeed, this knowledge is required in order to properly and fully use many of the popular ‘coffee table’ coral books, and without the understanding of the text, we merely stare at the pictures. And most books, even those written for the layman, offer so much more than pretty pictures!

These articles will present information required to properly identify many corals and what the obvious features tell us as reefkeepers. We will begin with very basic data and then will build upon this knowledge. As with any worthwhile endeavor, the learning curve can be steep at first. The science and nomenclature of coral taxonomy is not particularly easy to learn. But once the basics are in place and, with use of appropriate identification keys, you’ll recognize coral specimens to at least the genus level. You’ll confidently know your Astreopora from a Halometra. Those hobbyists willing to identify corals to the species level will likely be the most dedicated, but their path will be difficult (and, frankly, sometimes impossible).

I will use Veron’s Coral ID as the template for questions to be answered in case you’re using that key (and a checklist from Veron’s work is at the conclusion of this first installment).


Suggested Tools

The most important consideration, by far, is the desire to learn about coral morphology. Lack of expensive instruments will not stop a true student any more than a fully-stocked laboratory will motivate a disinterested person. Fortunately, coral identification will require only simple tools along with reference materials (often available on-line or at your local library). The following list is not meant to be all-inclusive, especially for later stages when we begin examine corallite structure. However it is a good start and one should acquire:

  • Quality magnifying glass
  • Clear plastic ruler, marked in millimeters and centimeters
  • Materials for note-taking (a checklist for use with Veron and Stafford’s Coral ID CD is presented at the end of this article. See this month’s Product Review for details on this highly recommended identification guide).


    Figure 2. A small portion of my laboratory, showing equipment used for coral identification. Most equipment in the photo is optional – the most important thing is this spot’s comfort for the sometimes tedious process ahead. Photo by Dana Riddle


Optional Tools

  • Digital camera, preferably with ‘macro’ and ‘super macro’ modes
  • Tripod
  • Remote shutter release (if the camera does not have a timer) to avoid ‘shutter shake’
  • Adapter for attaching camera to microscope
  • Dissecting (or low power) microscope w/ supplemental light ring
  • Drawing materials. The drawings for this article were sketched in pencil and inked with a black pen and a fine-point Sharpie.

Question: Where did your coral come from? Unfortunately using an answer such as ‘From Joe’s tank, I guess.’ just won’t do! This is where using references such as Veron (1996), Veron (2000) or Woods (1983) is imperative! It is important not to guess – do your research. Fortunately, however, most aquarium corals are from the Indo-Pacific and especially from Indonesia, the Philippines or Fiji. Some of the high-end corals (with exotic sounding names as Superman, Sunset, etc.) often have a lineage that can be traced back to a particular shipment and location. If you’re using Veron’s Coral ID, answer question 1 (and 2, if known) on the Coral ID Checklist below.

Though it would seem intuitive to now turn our attention to corals’ obvious features, we will not. Instead we will examine those features that are not so obvious – the structural features of the coral skeleton (corallum) and polyp structure. The reasoning is simple – organization of the coral structure begins with tiny modules which are often iterated many times to form the shape we recognize as a ‘coral’. Identification from observations based on an overall architectural level (i.e., grown colony) often is not possible when all we possess is a small piece or fragment from an adult colony. So, in order to get the ‘big picture’, we must begin with a small one.

Rosen (1986) described a concept of coral growth as one where compact individual units (modules) are repeated until an animal readily recognizable as a coral species becomes evident. This researcher describes the coral polyp (see Figure 3) and its calcium ‘cup’ (properly called the corallite – see Figure 6) as the basic modular unit called a ‘zooid’. It is natural that we begin with a coral’s basic structure, and build a coral from a basic unit. Once we’ve ‘built’ a coral from its basic genotypic components, we’ll examine within this series how the forces of nature interact with the coral animal and its shape (the genotypic shape becomes phenotypic).


Figure 3. The fleshy portion of a stony coral polyp, attached to the corallum. Drawing by Dana Riddle.


The Coral Polyp

For coral identification, there is remarkably little that we need to know about the living portion of the zooid – the fleshy polyp itself. Figure 3 tells us what we need to know; we need to identify tentacles and locate the mouth(s).

Question: Is the coral a module or modular? How Many Mouths? Solitary corals consist of a single polyp and one, two or multiple mouths (such as Catalaphyllia, Fungia, Herpolitha, etc.) and are a single zooid – a module. Fortunately, the number of solitary corals is relatively few and a student will do well to learn them.

Colonial corals are iterations of a single polyp and thus contain hundreds if not thousands of zooids. Colonial corals are therefore modular.

Determination of the number of mouths is sometimes not easily done – mouths can be tiny (such as those seen in Pavona corals) and a good magnifying glass or microscope may be necessary. I won’t labor on this further; the comment below should clarify things.


Figure 4. Vesicles, or modified tentacle structures as seen from the ‘Bubble’ coral (Plerogyra, Physogyra). These vesicles may become tentacle-like during the night. Drawing by Dana Riddle.

Important Comments about Question 3: Veron’s Coral ID Checklist lists two answer options – ‘Single mouth and corallite’ and ‘Multiple mouths and corallites’. There is actually a third (but unlisted option) – Multiple mouths and a single corallite. A singular polyp with multiple mouths is known as ‘cerberoid’. We really don’t need to know this however, so answer Question #3 as if it asked ‘single corallite’ or ‘multiple corallite’.

Is the Coral Attached or Free-living? This is more of a question for observations made in the wild than an aquarium. A novice could easily mistake any fragment or cutting from an adult colony as ‘free-living’. Generally, free-living corals consist of a single polyp as we discussed above. Answer Question #4 on the checklist.

What is the Tentacle Length? We will need to estimate tentacle length (fortunately, Veron’s ID uses increments of about 10mm). The clear plastic ruler marked in millimeter increments is most handy here. See comments about water motion and tentacle expansion below. Answer Question #19.

Are Tentacles Most Expanded During the Day, or Night? Tentacles may exhibit diurnal morphologies (such as the Bubble corals (Plerogyra), where the tentacles inflate during the day and become ‘vesicles’ – see Figure 4) – do the tentacles expand during the day, or are there vesicles, a mantle (a fleshy projection) or simply no expansion during the day? Note to Hobbyists: It is recommended that hobbyists compare tentacular expansion just as the aquarium’s lights turn on and then again after a few hours of light. Corals may have some tentacle expansion during the day but much more during the night (or vice versa). There are special circumstances facing aquarists – what if the polyps/tentacles are not expanded day or night? There are, of course, multiple reasons for this; however, poor or insufficient water motion is often the reason.

Answer Question #18.

Does the fleshy portion of the coral mask the Skeleton (Corallum)? Does the coenosarc (the fleshy connective tissue between polyps) mask the corallum fully (for example, as an expanded Goniopora does) or partially, or is the shape of the skeleton readily apparent (as with Acropora specimens)? Answer Question #20.

We now answered 7 questions on the checklist, and this ends our observations of the polyp and fleshy portions of the zooid. With luck, these questions have identified the coral to your satisfaction. If not, the task becomes more involved. Our attention will now turn to the corallum – the stony skeleton.



Figure 5. Skeletal Components. These, combined with the soft tissue elements seen in Figure 3 form the ‘zooid’. For clarity, four septa (of a group of 6 or more) have been omitted in this diagram. Drawing by Dana Riddle.

The Corallum

The coral skeleton, properly called the corallum, plays a very important part in coral identification. There are a few terms we should know. If you’re using Veron’s ID Key, the basic terms include calice, coenosteum, columella, corallite, costae, paliform lobes, septae, septo-costae and theca (See Figure 5, and the glossary).

It is also important to be able to count septa and identify their orders or cycles. The basic corallite structures are shown in Figure 6.

Not all corallites will follow the rule of structure shown in Figure 6. In particular, some corals’ septa are arranged in a pattern where septa of the fourth cycle can enclose those of the third. See Figure 7.


Figure 6. Arrangement of septa. From left, 1st cycle or primary cycle; 1st and 2nd cycles; 1st, 2nd and 3rd cycles; 1st, 2nd, 3rd and 4th cycles. Drawing by Dana Riddle.


Removing Coral Tissue from the Corallum

After we’ve taken the time and expense to maintain corals in captivity, it is almost heresy to discuss sacrificing a small portion of the colony in order to identify it. Fortunately, it doesn’t take a large portion, but the tissue will have to be removed.


Figure 7. Pourtalés Plan. This septa arrangement differs in that the 4th cycle septa are longer and might fuse around the 3rd cycle septa. Drawing by Dana Riddle.

The generally accepted method is to use a high-pressure water stream (such as the Water-Pik method recommended by Johannes, 1970). This method is especially useful when recovery of the tissue and/or zooxanthellae is needed. It’s fairly inexpensive as well (I got my Water-Pik about 10 years ago at Wal-Mart for $30). However, it is a messy proposition – Skip using the Water Pik method if the thought of coral mucus/tissue in your face or hair bothers you.

A viable and less distressful alternative (at least for the hobbyist) for removing tissue is available – and the average reef hobbyist probably has the chemical needed to do it – Use calcium hydroxide (kalkwasser) to dissolve the tissue. Soak the coral fragment in a saturated solution overnight and the tissue (usually) rinses right off and leaves the corallum intact.

Next time, we’ll examine some of the finer details of coral skeletons, and will use our building blocks to assembly a coral colony.



  • Ambulacral Grooves – Grooves running atop the common walls between corallites.
  • Anastomose – To grow and re-fuse (branches, columns, etc.).
  • Apical – Of, at, or forming the apex or summit.
  • Appressed corallite – Corallite presses against the coenosteum.
  • Asteroid – Star-like.
  • Axial corallite – The corallite that runs down the center (or axis) of a branch.
  • Axial furrow – The groove along the top of fungiid corals.
  • Axial polyp – An apical polyp, common to Acropora corals.
  • Axis – Lines around which a 3-dimensional body are symmetrical.
  • Basal – Of, relating to, or forming a base.
  • Bifacial – Corallites occur on both sides of a plate or frond.
  • Bifurcate – Divided into 2 equal branches.
  • Calice – The opening of the corallite, bounded by the wall.
  • Centers – The position of the mouths or columellae.
  • Cerberoid – A solitary polyp with multiple mouths.
  • Cerebroid – Resembling a brain.
  • Cerioid – A type of colony formation where the polyps share common walls.
  • Coenosteum – The skeletal matrix around corallites, often tiny blister-like plates. These may be fused into a single plate, or form elaborate structures sometimes larger and more prominent that the corallites.
  • Colline – Skeletal ridges composed of coenosteum that separate corallites.
  • Columellae – Skeletal structures at the center of corallites.
  • Corallum – The skeleton of a coral.
  • Costae – Radial elements of corallites situated outside the corallite wall.
  • Denticles – Pali-like granules on the septa of Porites.
  • Digitate – A colony shape composed of short finger-like branches.
  • Directive septa – Septa about which a corallite is bilaterally symmetrical – especially important in Porites.
  • Disc – The circular corallum of solitary, free-living fungiids.
  • Distal – The end of a branch or remotely situated from the center.
  • Dorsal directive septum – Part of the septal configuration of Porites.
  • Epitheca – A fine skeletal layer which sometimes surrounds the corallites, and is the first skeletal element to be produced by the coral planulae larvae. The epitheca is not covered by living tissue. This distinct (usually lower) portion of the corallum is seen in many corals, including Trachyphyllia, Catalaphyllia, etc.
  • Exsert – Projecting above the surrounding structure. Exsert septa project well above the corallite wall.
  • Fascicle – A close cluster or bundle.
  • Fasciculate – Clustered or bundled in shape.
  • Flaring corallites
  • Fossa – A hole or cavity in the skeleton.
  • Free-living – Not attached to the substrate.
  • Groove/Tubercule – An elongate channel lined with epitheca, causing by polychaete worms in faviid corals (especially Montastrea). Grooves are also seen in some portiid corals, where they are caused by symbiotic shrimp.
  • Hillock – A small protrusion or elevation, as from tissue or a structure.
  • Hillocky – Possessing small protrusions or elevations.
  • Hydnophores – Conical structures developed between the corallite centers of some corals, especially Hydnophora.
  • Immersed corallite – Corallite that does not protrude from the coenosteum; inset.
  • Imperforate – Having no holes or openings.
  • Inset – Within the body of something.
  • Intercalary – Inserted between other elements or parts.
  • Iteration – Repetition.
  • Lateral – An extension from the side, such as a branch or shoot.
  • Lateral Pairs – Part of the septal configuration of Porites.
  • Mantle – A fleshy disc extended by some corals when the tentacles are retracted.
  • Modular – Consisting of standardized subparts (modules).
  • Module – A separable component for assembly into structures of differing sizes or complexity.
  • Monocentric – With one columella center per corallite.
  • Monticle – Adjoined walls which have become so divided by corallite valleys that only short conical sections remain (as seen in Hydnophora and sometimes Mycetophyllia, Colpophyllia and Pavona).
  • Nariform coralliteAcropora corallite shaped like an upside-down Roman nose.
  • Non-perforate – Without holes or perforations in the coral skeleton.
  • Orders (of septa or costae) – Each order is composed of septa or costae of similar size (usually one or more cycles). First order (or primary) septa or costae are often derived from several cycles.
  • Orthotropic – Exhibiting a mode of vertical growth.
  • Pali – A type of rod-like paliform lobe found in some corals, such a Porites. Palus is singular.
  • Paliform lobes – Large, vertical teeth situated above the inner margins of septa, sometimes forming a neat circle around the columella.
  • Papillae – Reticulum structures of Montipora that are smaller than the corallites.
  • Papillose – Sponge-like, spongy.
  • Perforate – Having holes or perforations in the coral skeleton.
  • Peritheca – Valleys between costae.
  • Petaloid (septa) – The raindrop-like structures of septo-costae formed when both ends are submerged in the coenosteum. Strongly developed in Polyphyllia and Psammocora.
  • Phaceloid – Bundled, roughly the same as fasciculate.
  • Physiognomy – Outward appearance.
  • Pits – Holes or depressions in the coenosteum at the point of formation (or insertion) of costae. Of taxonomic use in fungiids and Echinophyllia.
  • Plagiotropic – Growing more or less divergent from the vertical axis.
  • Polycentric – With one or more columella center per corallite.
  • Polymorphism – Where individual colonies have more than one form or shape.
  • Pourtalés Plan – An arrangement of septa used in identification, and is generally an exception to septa patterns. In this plan, the 4th order septa are longer than those of the 3rd order, and they may fuse to enclose the 3rd cycle.
  • Primary septa – The largest septa of a corallite composed of the first cycle only, or several cycles (but see exception in ‘Pourtalés Plan’).
  • Prostrate – Sprawling horizontally, sometimes with a ‘wilted’ appearance.
  • Radial corallite – Corallites that surround the axial corallite of Acropora.
  • Radii – Skeletal rods linking the columella to septa inPorites.
  • Ramification – Branching or a structure formed of branches.
  • Ramose – Branching.
  • Reiteration – To do again, or repeatedly.
  • Reptoid – Sprawling basal growth attaching colony to the substrate.
  • Reticulum – The coenosteum and associated structures of Montipora.
  • Rootlets – Tongues of coenosteum which grow down into the substrate anchoring the coral.
  • Secondary septa – General term for the smaller septa of a corallite.
  • Septa – Radial elements of corallites situated inside the corallite wall. Initial septa are formed in cycles of 6, followed by a second group of 6, a third of 12, and a fourth of 24 and so on. Septum for singular.
  • Septal deltas – Groups of septa fused to form a spongy segment of the columella, especially in Goniopora.
  • Septal teeth – Lobes or spines along the margins of septa.
  • Septo-costae – Radial elements of corallites.
  • Solitary – Not colonial.
  • Spinules – Minute – near microscopic – spines in the coenosteum.
  • Sterome – A non-porous layer within the wall of a corallite.
  • Styliform – Rod-like in shape.
  • Synapticula – A type of corallum where thecae are indistinct and septa are uninterrupted between calice centers.
  • Terete – Of uniform thickness, without appreciable tapering.
  • Thamnasteroid – Star-like skeletal patterns without walls seen in Pavona and other corals.
  • Theca – Wall surrounding the corallite.
  • Thecal – Of, or belonging to, the corallite wall.
  • Triplet – Part of the septal configuration of Porites.
  • Tuberculae – Reticulum structures of Montipora that are larger than the corallites.
  • Tubular corallite – Corallite shaped like a tube.
  • Unifacial – Corallites occur on one side of a plate or a frond, opposite of bifacial.
  • Valleys – The equivalent of calices in meandroid or flabello-meandroid colonies.
  • Ventral directive septum – Part of the septal configuration of Porites.
  • Verrucae – Wart-like nodules on Pocillopora colonies that contain polyps.
  • Verrucose – Wart-like.
  • Vesicles – Sac-like structures seen in ‘Bubble’ or ‘Grape’ corals (Plerogyra and Physogyra, respectively) and usually visible during the day.
  • Wall – Part (rim) of a corallite, also called the theca.

If you think you’ll never actually use at least some of these glossary terms in coral identification, think again. The worksheet below, compiled from Veron’s Coral ID: An Electronic Key to the Zooxanthellate Scleractinian Corals of the World, lists the questions asked in order to identify a coral to the species level. Some IDs are easy, and involve only a few steps, while others could conceivably involve answering every question. Questions 1 through 21 are basic questions. Questions 22 through 44 are more advanced, and could require microscopic examination of the skeletal structure (which likely involves sacrificing a small portion of the colony).


Coral Identification Worksheet

Identification: _____________________________________________

Date: _____________________________________________

  1. Ocean Realm
    • Atlantic
    • Indo-Pacific
  2. Indo-Pacific Location
    • Red Sea/Gulf of Aden
    • SW Indian Ocean
    • NW Indian Ocean/Arabian-Iranian Gulf
    • N. Indian Ocean
    • Central Indo-Pacific
    • N, W, & S Australia
    • SE Asia
    • Japan, E. China Sea
    • E. Australia
    • Oceanic W. Pacific
    • Central Pacific
    • Hawaii, Johnston Atoll
    • Far E. Pacific
  3. Colonial or Solitary
    • Multi-mouths & corallites
    • One mouth & corallite
  4. Attachment
    • Attached
    • Free-living
  5. Growth Form
    • Branching
    • Hemispherical or Submassive
    • Encrusting
    • Solid Plates
    • Foliose
    • Perforated Plates and Tables
    • Disc-like
    • Columinar, Digitate
    • Flabello-meandroid
    • Phaceloid
  6. Branching
    • Absent
    • 2D Dominant
    • 3D Dominant
  7. Branch Fusion
    • None
    • 2D
    • 3D
  8. Branch Ends
    • Flattened
    • Non-flattened
  9. Distinct Primary Branches
    • Axial
    • Not axial
    • Inconspicuous or absent
  10. Sub-Branches
    • 2D
    • 2D plus
    • 3D Bottlebrush
    • 3D Bush
    • 3D Not conspicuous
  11. Calice or Valley Width
    • < 1 mm
    • 1-5 mm
    • 5-15 mm
    • > 15 mm
  12. Corallite Definition
    • Corallite Centers Distinct
    • Corallite Centers Indistinct
  13. Wall Separation
    • Walls Separate
    • Walls Adjoined
  14. Corallite Isolation
    • Corallites Separate Individuals
    • Corallites Continuous
  15. Corallite Differentiation
    • Axial
    • Central
    • Neither
  16. Corallite or Valley Protrusion
    • Strongly exset monocentric
    • Exsert monocentric
    • Slightly exset monocentric
    • Half Immersed
    • Immersed
    • Recessed
    • Exsert – Elongate or multicentric
  17. Corallite Spacing
    • Crowded
    • Fairly Crowded
    • Well-spaced
    • Widely spaced
    • Indistinct
  18. Day/Night Tissue Expansion
    • Tentacles by Day
    • Mantle by Day
    • Vesicles by Day
    • No Expansion by Day
  19. Tentacle Length
    • < 10 mm
    • 10-20 mm
    • > 20 mm
  20. Skeletal Masking
    • None
    • Partially
    • Fully
  21. Daytime Tissue Projection
    • < 1 mm
    • 1-5 mm
    • 5-20 mm
    • > 20 mm
  22. Columella
    • Absent
    • Conspicuous
    • Inconspicuous
  23. Columella Meanders
    • Centers Distinct
    • Centers Indistinct
    • Continuous
  24. Columella Form
    • Style/Club-like
    • Laterally Flattened
    • Horizontally Flattened
    • Spongy
    • A Group of Spinules
    • Forms Delta
    • Septa-like
  25. Septo-Costae
    • Indistinct
    • Costae Absent
    • Costae Distinct from Septa
  26. Costae
    • Costae Dominant over Septa
    • Costae Not Dominant over Septa
  27. Symmetry of Septo-Costae
    • Radial
    • Bi-Lateral
    • Parallel
    • Radial & Bilateral/Parallel
  28. Symmetry Mixed
    • Strongly Parallel
    • Radial & Parallel
    • Radial & Bilateral
  29. Septal Length
    • Equal
    • Unequal
  30. Cycles of Septa
    • 1 Cycle
    • 2 Cycles
    • 3 Cycles
    • >3 Cycles
    • 1 Order
    • 2 Alternating Orders
    • 3 or more Orders
    • Irregular Lengths
  31. Septal Height
    • Not exsert
    • Slight/Moderate
    • Conspicuous
  32. Septal Fusion
    • Not Fused
    • Fused at or with Columella
    • Fused with other Septa
  33. Septal Margin
    • Smooth
    • Not Smooth
  34. Septal Dentition
    • Forms Comb Rows
    • Finely Granulated or Beaded
    • Distinctly Toothed
  35. Distinctly Toothed
    • Dominant
    • Not Dominant
  36. Septo-Costae Petaloid
    • Fully
    • Sub-
    • Not
  37. Paliform Structures
    • Absent
    • Inconspicuous
    • Conspicuous
  38. Paliform Structure Type
    • Laterally Flattened
    • Not Laterally Flattened
  39. Extra-Thecal Skeleton
    • Absent
    • Present
  40. Extra-Thecal Surface
    • Solid
    • Forms Blisters
    • Perforated
  41. Extra-Thecal Elaborations
    • Absent
    • Present
  42. Linear Elaborations
    • > Calice Diameter
    • < Calice Diameter
    • None
  43. Non-linear Elaborations
    • > Calice Diameter
    • < Calice Diameter
    • None
  44. Wall Features
    • Forms Monticles
    • Dissected walls Dominant
    • Groove or Tubercule Structure
  • Dana Riddle

    I have been an aquarist since 1964 and a reef hobbyist since the mid-1980’s. I am the owner of a small laboratory (Riddle Aquatic Laboratories) that specializes in investigation of interactions between light and water motion & photosynthetic organisms (especially corals). The results of this research, resulting in almost 250 articles, have been published in Advanced Aquarist Online, Aquarium Frontiers, Koralle, Freshwater and Marine Aquarium, The Breeders’ Registry, Aquarium Fish, Marine Fish Monthly and others. My first article was published in a 1984 SeaScope and relayed my experiences with a refugium – an idea that would catch fire about a decade later. I have had the honor of making over 60 presentations to various groups, including national conferences such as the Marine Aquarium Conference of North America (MACNA) International Marine Aquarium Conference (IMAC), PetsFestival (Italy), regional conferences, and local clubs. I received the Marine Aquarium Society of North America (MASNA) Aquarist of the Year Award in 2011 at the MACNA conference in Des Moines.


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