The Gold Standard of Teaching Archaeological Fish Palatine Analysis | Autopalatine, Dermopalatine and Palate Identification

The fish palatine belongs to the anterior palate or upper mouth-roof system in many bony fishes. Its component terminology requires care: autopalatine and dermopalatine can be distinct or combined in different lineages, and their tooth-bearing and articular structures vary. For archaeology, an isolated palatine may help identify a fish, but neither a fragment nor a tooth count directly measures fish population, age, diet or human fishing activity.

This complete reference explains fish-specific palatine anatomy, its neighbouring maxillary and pterygoid elements, taxonomic differences, recovery bias and the distinctly labelled fictional Valley Mere examples. The featured 1886 perch skeleton is a genuine public-domain historical illustration whose label d shows the palatine arch, not an individual excavated bone. It is important not to substitute similarly named human palatine illustrations for fish osteology.

Start with the 1991 palatoquadrate homology research, the FishBase palatine definition and the teleost muscle and bone-nomenclature review.

Evidence guide for fish palatine study

1. What is the palatine in fish archaeology?

The palatine is an element or compound region of the anterior upper palate in many fishes, situated near the vomer, upper-jaw bones and more posterior pterygoid structures. Its shape and tooth-bearing condition vary across lineages. Isolated archaeological palatal bones may provide taxonomic information when their articular faces or original tooth rows remain intact. But the term palatine is not as anatomically uniform as a single textbook drawing might suggest, and one object does not establish a whole fish, a meal or one fishing event.

Begin by distinguishing direct description from interpretation. A bony fragment has an anterior articulation and a row of teeth; a specialist compares it with fish palatine references; only afterward does the archaeologist consider how the material entered a deposit. The taxonomic and cultural claims require different evidence. A shape that resembles a palatine is a hypothesis until competing elements and species have been examined.

2. Locate the palatine arch in the complete fish

The paired palatal region lies along the sides of the roof of a fish’s mouth, connecting anterior cranial structures and elements that support the jaw apparatus. Palatine, ectopterygoid, endopterygoid and other parts may form a functional skeletal chain in appropriate teleosts. Their contacts are affected by lineage and development. An excavated isolated bone can lose the contextual relationship that would have made its identity obvious in a complete skull.

Use a whole-fish diagram to identify the palatine arch, then a detailed modern skull showing the individual bones. Students should recognise that a historical label for the arch is not necessarily a direct label for one autopalatine. That distinction prevents the page header from accidentally functioning as false individual-bone documentation.

3. The 1886 perch illustration labels an arch, not a single bone

The featured historical illustration by Harry Govier Seeley is a public-domain diagram of a European perch skeleton. The original lettering identifies the palatine arch as d, premaxilla as a, maxilla as b and mandible as c. It is valuable as a broad map of fish anatomy, not as a species key to an isolated fish palatine or a photograph of an excavated specimen. Its original taxonomic and historical context should remain explicit.

Students should find label d in the original figure, then make a separate reference drawing of the actual palatine bone using a correctly identified modern skull. An archaeological fragment cannot be assigned confidently from the whole-skeleton figure alone. Honest captions distinguish an illustrated arch from a specimen photograph and help readers understand the image’s scope.

4. Distinguish autopalatine and dermopalatine

Comparative fish anatomy describes an autopalatine arising in the palatoquadrate-related endoskeletal system and a dermopalatine associated with dermal bone, often linked to a tooth-bearing region. Their degree of separateness or fusion varies across osteichthyan lineages. In some clupeocephalan teleosts the two components form a compound palatine. Elsewhere it may be more precise to name only the autopalatine. This is why a source’s definition matters before its bone count is merged with another study.

Ask learners to make three columns: autopalatine component, dermopalatine component and compound or terminology-uncertain palatine. They should fill them only from source-specific developmental or comparative evidence. A tooth on a nearby plate is not enough to establish the developmental origin of the whole bone.

5. Read the 1991 palatoquadrate homology study carefully

Arratia and Schultze’s analysis of the palatoquadrate and its ossifications distinguished autopalatine, quadrate and metapterygoid regions from dermal structures such as dermopalatine, endopterygoid and ectopterygoid. The authors also described lineage-related combinations and fusions. Its value lies in defining the developmental and phylogenetic basis of anatomical naming rather than promoting a single rigid palatine definition for every ancient fish.

Students should separate embryological origin, adult topological location and taxonomic character. A fossil might preserve the adult compound bone while its developmental components can only be inferred from a suitable living reference. That difference belongs in the identification confidence statement.

6. Use the term autopalatine for cypriniform anatomy when appropriate

Zebrafish anatomical resources describe the anterior palatoquadrate-derived component and its contacts near preethmoid and maxillary structures. In cypriniform fishes the dermal part may not contribute in the same way as in many other teleosts, so autopalatine can be more precise than an assumed fused palatine. A classifier who uses the broader label should state the convention adopted. Both names can be useful when their anatomical definition is visible to the reader.

Give students a zebrafish autopalatine and a different teleost palatine compound from scientific references. They should explain why a name in one catalogue may not indicate the same degree of fusion in another. Correct terminology reduces false homology claims.

7. Do not confuse the fish palatine with human palatine bone

The term palatine occurs in mammalian head anatomy, but the adult human palatine is part of a very different craniofacial arrangement. An online image search for palatine bone can return human skull figures that are unsuitable for classifying ancient fish remains. Shared historical terminology does not make all diagnostic characters or measurements interchangeable across vertebrate groups. The fish specimen must be compared with taxonomically appropriate fish osteology.

Ask learners to inspect two search results and identify source lineage before using either. Human palatine-process illustrations should not be inserted as the primary reference for fish palatal anatomy. A legitimate cross-vertebrate homology discussion is distinct from a species-identification guide.

8. Distinguish palatine from premaxilla and maxilla

In many fish groups, the premaxilla and maxilla are neighbouring components of the upper oral jaw, while the palatine occupies an anterior palatal position connecting more medial cranial and jaw-support structures. Some palatines carry teeth; some nearby upper-jaw bones do too. Thus presence of a tooth row alone does not establish which element was found. Original articulation, position and taxonomic context are more informative than simply classifying the biggest tooth-bearing fragment as maxilla.

Provide an intact modern reference fish with palatine, premaxilla and maxilla labelled. Students should describe the specific contact facets and location before attempting classification of a loose fragment. Tooth count is an observation, but not a complete bone identity.

9. Distinguish palatine from vomer

The vomer occupies a more median region in many fish skulls, while palatine bones are paired and lie farther to the sides of the anterior mouth roof. Teeth may occur on both depending on species. A fragment preserving only a few teeth without a clear midline or contact could be difficult to assign. The different skeletal locations matter because a vomerine tooth plate should not be entered into a palatine count simply to complete an inventory.

Have learners mark the median vomer and paired palatine positions on a genuinely identified reference. They should consider whether the recovered fragment retains enough anatomy for sidedness. If not, an indeterminate palatal tooth plate may be the correct classification.

10. Ectopterygoid and entopterygoid are distinct neighbours

Two other palate-related bones commonly used in teleost descriptions are ectopterygoid and entopterygoid, which occupy positions between anterior palatine and posterior suspensorial structures in a range of groups. Their arrangement and naming vary. An isolated slender bone or tooth plate may resemble part of the palatine when its original contact margins are missing. Appropriate reference views should include all plausible neighbours instead of only the bone named in the article title.

Ask students to build an anatomical coding key listing position, major contacts, tooth-bearing surfaces and completeness. They should not label one palatal fragment simultaneously as two accepted elements; alternative candidates belong in uncertainty notes.

11. The palatine’s ethmoid and maxillary contacts matter

In particular fishes, the anterior palatine region can contact preethmoid or lateral ethmoid structures and the maxillary apparatus through named processes or joint surfaces. Zebrafish and other cypriniform references describe several anterior processes with specialised contacts. The geometry is lineage-dependent and cannot be reconstructed fully from a fossil that has lost those processes. An articular facet can be important even where a tooth row is absent.

Students should identify original ethmoid-related and maxillary-related contacts in a modern reference. The exercise distinguishes a verified facet from a fractured edge, and teaches why an apparently small articular knob may be more diagnostically useful than a large damaged plate.

12. Use the 2025 goby study as a different form

A comparative anatomical study of *Eviota* gobies describes a palatine that appears as a single bone without a clear distinction between dermal and autopalatine components. The anterior region carries maxillary and ethmoid processes, while more posterior relationships involve other skull parts. This example shows that even where the bone is called a palatine, its form and contacts are not guaranteed to match a zebrafish autopalatine or a salmonid tooth-bearing palatine.

Students should compare the reported anterior processes with the cypriniform reference, marking which features belong to each taxon. A method that uses one fish as a global model would obscure this real diversity.

13. Palatine teeth can be useful but are not universal

Some fishes possess teeth on their palatine bones or associated dermal tooth plates, while others lack them. This can be useful in fishery identification keys, particularly when viewed alongside vomerine and oral jaw dentition. Tooth condition can change through wear, replacement or damage, however. The presence or absence of visible crowns on one fossil must not be treated as an exact diet or a unique species name without proper reference context.

Provide toothed and toothless identified palatines in a reference set and ask learners to distinguish original absence from taphonomic loss. A worn plate with empty sockets may still have had functional teeth during life. Tooth morphology should be reported before any functional interpretation.

14. Do not convert sharp teeth directly into a last meal

Palatine tooth shape can inform hypotheses about prey retention or food handling, but it does not preserve which prey item one ancient fish swallowed. Feeding depends on the complete jaw, muscles, prey availability and behaviour. A pointed tooth could occur in multiple taxa with different diets. Abrasion after burial can also make an originally sharp crown look blunt.

Students should make one morphological observation and at least two compatible functional explanations, then name the modern ecology or archaeological evidence required to distinguish them. The goal is a testable hypothesis, not a fabricated ancient menu.

15. Ontogeny changes the palatine region

The anterior palatoquadrate can ossify through stages that differ across fish lineages. Development may alter the visibility of articular processes, the fusion of components and the relation with neighbouring bones. A juvenile fossil may not reproduce every adult skeletal feature. A comparison restricted to mature reference fish could therefore misclassify a smaller younger individual as a different taxon.

Ask learners to use a documented developmental sequence and record which process becomes evident at each stage. They should not assign an exact fish age from one palatine feature without a suitable species-specific growth calibration.

16. Catfish autopalatine anatomy deserves separate attention

Some catfish lineages display distinctive palatoquadrate arrangements and tendon-associated structures, with disputes in historical interpretation of pterygoid and palatine homologies. A 2001 comparative review of catfish suspensorial elements and a detailed brown-bullhead osteological atlas demonstrate why taxon-specific skeletal definitions matter. Transferring a salmonid palatine tooth count to an ictalurid or another catfish without comparison would be scientifically unreliable.

Students should list what the chosen catfish source actually calls autopalatine, palatine or related structures. The reference should be labelled with species and anatomical view rather than merged into a generic fish jaw diagram.

17. Nomenclature should match the paper’s operational definition

Scientific works sometimes use palatine as a convenient combined term when distinguishing autopalatine and dermopalatine components is impossible or irrelevant to the immediate research question. Datovo and Vari’s work on teleost jaw-adductor homologies explicitly discusses such a nomenclature convention. An archaeological study may adopt that practice, but should say so. It should not silently claim a developmental fusion it never observed.

Give students two catalogues, one using autopalatine and one using palatine. Their assignment is to reconcile the terms based on taxon, original definition and specimen, retaining disputed or unknown equivalences. An add-only historical record protects earlier identifications for future reanalysis.

18. Choose multiple reference views, not one silhouette

An isolated palatine can appear tooth-bearing, thickened, flattened or rod-like depending on view and taxon. The same specimen may look very different from medial and lateral directions. Reference descriptions should include side, orientation, teeth, contact surfaces, scale and growth stage when available. The historical perch skeleton shows the broad arch but cannot substitute for an isolated palatine reference image.

Students should prepare a four-view specimen card for a modern bone and then classify one damaged fossil. A broad palatal-bone label is acceptable where the distinguishing original contact is missing. Identifying a bone is a reasoned comparison, not a photography contest.

19. Sidedness and fragmentation complicate individual counts

Palatines are paired in many fishes, and one can break into several archaeological fragments. A raw tally of teeth or plate shards is therefore not equivalent to the number of fish represented. Secure left or right element repetition within a well-defined context can sometimes constrain a minimum number of individuals, but undiagnosed fragments cannot be added directly as additional animals. Fragments of one original palatine may also be catalogued separately until refitted.

Give students three complete left elements and many uncertain pieces. They should report observed specimen count, possible refits and a conservative minimum only where anatomy and context support it. The number of teeth is not a fish census.

20. Recovery methods bias tooth-bearing palate fragments

Fine teeth and thin palatine plates may fall through coarse sieves, and a sorting technician without suitable references may miss or misclassify them. Samples obtained by hand collection, wet screening or microscopy can therefore yield different palatine frequencies despite similar original fish remains. Archaeological comparisons need processed sediment mass or volume, mesh fraction, sorting effort and taxonomic uncertainty.

Students should review two hypothetical excavation logs with different sieve sizes and ask whether a fish-diet or biodiversity shift can yet be claimed. The correct answer names the missing sampling controls and proposes a compatible study design.

21. Preservation can erase diagnostic teeth and processes

Burning, digestion, abrasion, sediment compression and chemical loss may preferentially damage tooth tips or delicate articular projections. A fossil still identifiable as a palatal element might no longer meet the characters for species assignment or a whole-bone measurement. Absence caused by damage must be coded differently from true biological toothlessness. This is especially important when comparing robust tooth-bearing bones with fragile toothless components.

Have learners classify specimen condition by intact teeth, sockets, original processes, fractures and unknown areas. Their result should show which structures are unavailable rather than filling them in from a typical modern reference.

22. Use a clearly invented Valley Mere morphometric example

For dimension practice, imagine a wholly fictional Valley Mere reference with a defined intact palatine length and a separate maximum width. Toy specimen A measures 5.0 mm long and 2.0 mm wide, yielding a length-to-width ratio of 2.50. Toy specimen B measures 6.25 mm long and 2.50 mm wide, also 2.50. The matching ratio does not establish identical species, original body length or diet.

Students should label original endpoints and state that these values are invented rather than reconstructed from the header perch illustration. A shape ratio is descriptive geometry; it becomes taxonomic only through appropriate comparative calibration.

23. Withhold a size ratio when an endpoint is broken

An isolated palatine may preserve its tooth-bearing margin but lose the anterior ethmoid or posterior pterygoid contact that defines the full measurement length. A caliper can measure the remaining fragment precisely, yet that is not the original variable used for a complete-bone ratio. Substituting the preserved remnant will give a biologically misleading estimate.

Present a third fictional sample with known width but a broken anterior endpoint. Students should retain the preserved width and mark overall length unavailable. Correctly withheld predictions are part of an honest scientific dataset.

Valley Mere: original fictional palatine geometry

24. Body-length modelling would need real modern data

Estimating fish body length from a palatine dimension would require a validated species-specific relationship measured on modern fish with known body lengths and matching bone landmarks. A relation for dentary height, otolith size or pharyngeal tooth width cannot accept palatine length as a substitute. Even a valid within-species regression has prediction errors and a limited size range. No toy equation in this guide is intended as a real palatine-to-fish-size conversion.

Ask learners to design a calibration study including source taxon, fish length definition, body-size range, measurement repeatability and predicted uncertainty. The plan should be evaluated before numerical conclusions about an ancient catch are published.

25. Valley Mere: a transparent fictional specimen inventory

Imagine an older fictional Valley Mere sediment layer with forty intact palatine-like objects and twenty identifiable fragments from 2.5 kilograms of processed dry sediment. A younger fictional layer contains twenty-eight intact objects and fifty-six fragments from 7 kilograms. Totals are sixty and eighty-four counted objects, making twenty-four and twelve objects per kilogram respectively. The larger younger raw total does not imply that more fish lived nearby.

Students should reproduce the counts and label both numerator and sediment mass. These values are invented for learning the difference between observed specimens and biological individuals, not actual archaeological data.

26. Compare completeness separately from total specimens

In the fictional older layer, forty of sixty objects are intact, giving about 66.7 percent. In the younger layer, twenty-eight of eighty-four are intact, giving 33.3 percent. Intact objects per kilogram are sixteen and four respectively. These changes can reflect different preservation, transport or processing as well as differences in original bone supply. A raw abundance chart alone would conceal the changing condition of the sample.

Ask students to plot all classified objects per kilogram and intact objects per kilogram separately, then nominate a taphonomic test that could help distinguish physical damage from a biological shift. A precise calculation should not be confused with a unique causal explanation.

Valley Mere: fictional recovery and preservation counts

27. Do not mistake one palatine for one meal

Fish cranial bones can enter human-associated sediment after fish processing, but also after natural mortality, predation, water transport or secondary waste disposal. A tooth-bearing palatine beside a hearth does not independently prove that a particular fish was cooked or consumed at one named meal. Burning may happen after discard, and predators may transport fish remains into the same archaeological context.

Give students a hypothetical palatine fragment in a mixed ditch and ask for human and non-human formation histories. Appropriate corroboration might include cut marks, associated body parts, depositional facies or securely dated food refuse. Each proposal should be testable rather than assumed.

28. Trade separates ecological habitat and archaeological findspot

A marine fish palatine can reach an inland settlement as part of dried or transported fish products, while freshwater species can occur in coastal markets. The site where the bone was recovered does not necessarily identify the animal’s living habitat, capture site or processing location. Secure taxonomy can provide a clue about plausible source environments but cannot trace a historical supply chain alone.

Students should map fish habitat, capture or death, processing, transport, disposal and final burial as distinct stages. A species identification and an archaeological trade interpretation should each cite the evidence relevant to that link.

29. Palatine bones do not supply precise calendar dates

The skeletal shape of a palatine ordinarily does not date the year of human capture. Chronology comes from stratigraphy, associated artefacts and scientific dating, all with appropriate uncertainty. An older bone can be reworked into a later deposit by flooding or human disturbance, and a layer may integrate many years of activity. A sharp graph of palatine counts should not be treated as a yearly fishery record without suitable age and accumulation models.

Students should label real layer positions and chronological intervals instead of plotting imaginary exact annual catch dates. A well-supported broad transition is more informative than a precise-looking time series that lacks the necessary evidence.

30. Distinguish geological fossils from human archaeology

Ancient geological fish skulls can preserve palatine structures millions of years before human-associated sites. Their research questions often concern evolution, taxonomy and palaeoenvironmental faunas rather than fishing technologies. A palatine on a 2026 Eocene fossil reconstruction is not evidence that humans fished in that geological period. Similar bone names do not make geological and human-history contexts interchangeable.

Ask learners to create separate source cards recording organism, geological or archaeological age, actual findspot and research question. They should not borrow an image’s geological age or evolutionary story to describe a fictional human settlement.

31. Cross-check dentary, maxilla and pharyngeal teeth separately

A fish skeleton may provide palatine, premaxilla, maxilla, dentary and pharyngeal bones in the same deposit. These elements have different original positions and feeding-related characters. Combining them may improve taxonomy when association is secure, but their fragment counts cannot simply be added as independent fish. A dentary model or a pharyngeal tooth formula also cannot be substituted for palatine measurements.

Students should construct a cross-element evidence matrix, recording bone, side, taxonomic rank, preservation and possible original-animal duplication. Agreement matters only when each element has been identified correctly and contextually linked.

32. Collection ethics and source citations preserve trust

Archaeological fish bones may be fragile, protected or treated with consolidants that alter surface interpretation. Destructive sampling requires appropriate permission and a clear scientific question. Many anatomical lessons can use properly cited public-domain illustrations and non-destructive modern references instead. The 1886 historical perch image should retain its source credit and its limited anatomical scope, not become a fabricated excavation photograph.

Students prepare both a specimen custody record and an accurate figure caption. A later analyst should be able to locate the source image, understand why it was used and reproduce the measurement or identification reasoning.

33. Finish with an evidence-limited palaeobiological conclusion

The fictional Valley Mere sample supports different recovered palatal-object concentrations and completeness percentages under declared invented sampling conditions. It does not establish one fish population, a species-level turnover, a special feeding mode or a specific human meal. Real comparative osteology may improve identification; taphonomic, chronological and archaeological tests may then support stronger environmental or cultural interpretations.

A gold-standard palatine report states exactly which skeletal definition it adopted, shows the diagnostic observed surfaces, preserves original fragments and denominators and identifies remaining alternatives. Precision is useful only where it reflects actual evidence.

Twenty-six separate archaeology and comparative-anatomy cases

All following exercises are fictional; they practise identification, measurement or interpretation, not describe newly excavated material.

1. Human palatine mistaken for a fish bone

An online image shows the human palate and is used as the primary identification reference for an excavated fish. Students identify the source lineage and replace the inappropriate anatomical comparison.

2. Autopalatine and dermopalatine collapsed

A catalogue counts separate components as two whole fishes. Learners investigate source taxon, fusion history and whether the elements were parts of one original palatine complex.

3. Zebrafish convention imported into every teleost

A reference calls the cypriniform structure autopalatine, and a student declares this is the only correct term for all fishes. The class compares actual compound palatine examples and explains taxon-dependent naming.

4. The perch image treated as an isolated bone

The historical diagram labels d as palatine arch. A manuscript calls it a photo of a single excavated palatine. Students correct the caption, author, year, source and scope.

5. A toothed palatine called vomer

A tooth-bearing bone is identified solely by the presence of teeth. Learners map median vomer and paired palatine positions and request preserved diagnostic contacts before assigning the element.

6. A palatine called premaxilla

A fragment lies near the front of the mouth and has a tooth row. Students compare original palate and oral jaw articulations rather than name the element from tooth location alone.

7. The Eviota joint process

A modern Eviota reference describes maxillary and ethmoid processes. Students explain why matching one process in a fossil supports an identification hypothesis but not automatic species certainty.

8. A naturally toothless specimen

The palatine tooth-bearing region is absent in one identified fish group. Students distinguish taxonomic condition from tooth loss and avoid calling the individual diseased without evidence.

9. Sockets without crowns

A worn ancient plate retains tooth sockets but no functional tips. Learners record sockets, preservation and likely original tooth-bearing status while withholding an exact diet.

10. The catfish terminology conflict

Historical sources use palatine and autopalatine inconsistently. Students create a source-linked terminology crosswalk rather than silently merge all names.

11. The 2.50 toy ratio

A fictitious 5 mm by 2 mm palatine has a length-to-width ratio of 2.5. Students explain that the arithmetic does not identify the species, fish length or age.

12. Equal ratios across different sizes

A second invented bone measuring 6.25 by 2.5 mm also produces 2.5. Learners distinguish absolute size from proportional shape and taxonomic identity.

13. A missing anterior endpoint

One palatine has lost the original process defining maximum length. Students retain valid partial measurements and withhold the full ratio rather than imagine the missing tip.

14. More fragments do not mean more fish

An original palatine breaks into several parts during excavation. Students record physical pieces and possible refits without declaring additional original animals.

15. Repeated left palatines

Several secure left elements of one taxon occur in a closed context. Students discuss a conservative MNI and why unsided fragments cannot simply add animals.

16. The Valley Mere raw-count reversal

The older fictional deposit has 60 objects from 2.5 kg and the younger 84 from 7 kg. Students calculate 24 versus 12 objects per kg and avoid biological population inference.

17. The intact-share decline

Complete fractions in the toy table fall from 66.7 to 33.3 percent. Learners test preservation and sampling as possible causes before assuming species turnover.

18. Screen mesh changes species lists

A newer excavation uses finer sieves and recovers many small palatine shards. Students audit recovery methods before claiming new fish arrived.

19. A predator-created tooth-bearing fragment

Palatine pieces appear in digestive-modified fish remains. Students compare predator and human source pathways before calling the deposit cooking waste.

20. Burning and food claims

A palatine lies near a hearth with darkened surfaces. Learners consider secondary fire and sediment mixing as alternatives to one cooked meal.

21. The marine fish inland

A marine fish palatine is recovered from an inland town. Students consider imported fish products rather than a former sea surrounding the settlement.

22. One annual fishing event invented

An imprecisely dated layer’s palatine counts are assigned to one exact historical law or weather event. Students redraw the evidence using realistic chronological limits.

23. An incorrect body-length equation

A dentary height regression is given a palatine length input. The class rejects the anatomical mismatch despite both measurements having millimetre units.

24. A misleading Eocene reference

An ancient geological fish palatine is cited as proof of human fishing. Students correct the evolutionary timescale and distinguish palaeontology from archaeology.

25. The destructive sampling decision

One rare palatine has valuable original tooth-bearing surfaces. Learners evaluate whether non-destructive microscopy and documentation can answer the question before consuming the specimen.

26. Peer-review conclusion ladder

A draft infers named species, diet, age, population and exact fishery technique from one palatine. Students preserve observed anatomy and propose independent tests for each stronger claim.

Three-session course plan

• Session 1: identify the fish palate and distinguish autopalatine, dermopalatine, maxilla, premaxilla, vomer and pterygoid bones with properly identified modern references.
• Session 2: compare tooth-bearing and toothless palatines and developmental naming, then solve Valley Mere’s clearly fictional geometry and fragment-count examples.
• Session 3: assess archaeological screening, specimen condition, NISP/MNI, transport, predators, food processing, trade, chronology and research ethics.
• Student submission: annotated real-source figure, nomenclature crosswalk, specimen identification confidence, raw and normalised counts, alternative depositional explanations and a cited next-step study.

Gold Standard quality rubric

Frequently asked questions

Primary scientific research, image credit and related eduKate chapters

• Arratia and Schultze (1991), palatoquadrate ossifications and bone homologies
• FishBase Glossary: palatine and autopalatine distinction
• ZFIN anatomical description of autopalatine and its processes
• Datovo and Vari, teleost jaw-adductor anatomy and palatine terminology
• Eviota goby skeletal morphology and palatine processes (2025)
• Evolution and development of the fish jaw skeleton
• Catfish suspensorial bone homologies and terminology
• Brown bullhead fish osteology comparative atlas
• Original 1886 perch skeleton with palatine arch d, public domain
• FAO glossary for palatine and fishery identification
• Teaching Archaeological Fish Metapterygoid Analysis
• Teaching Archaeological Fish Premaxilla Analysis
• Teaching Archaeological Fish Pharyngeal Tooth Analysis
• Teaching Archaeological Fish Dentary Analysis
• The Gold Standard of Archaeology
• The Gold Standard master hub

The gold standard of teaching archaeological palatine analysis is a student who knows what bone and developmental component was actually identified, what the remaining original features permit, how to describe sample counts honestly, and where cultural and ecological interpretations require new evidence. A transparent limited identification can be a useful research result.