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Taxonomic Database: Definition & Significance | Glossary

What Does "Taxonomic Database" Mean?

Definition of "Taxonomic database"

A taxonomic database is a digital collection that stores information about living things and how they're classified. It organizes species by their scientific names, relationships, and characteristics. Scientists use these databases to identify organisms, track biodiversity, and share research. Examples include the Catalogue of Life and Encyclopedia of Life.

Cite this definition

"Taxonomic database." TRVST Glossary Entry, Definition and Significance. https://www.trvst.world/glossary/taxonomic-database/. Accessed loading....

How Do You Pronounce "Taxonomic Database"

/ˌtæksəˈnɒmɪk ˈdeɪtəbeɪs/

Alternative: /ˌtæksəˈnoʊmɪk ˈdeɪtəbeɪs/ (American English)

The word "taxonomic" breaks down into four parts: "tax-uh-NOM-ik." The stress falls on the third syllable "NOM." Many people incorrectly stress the first syllable, but the correct emphasis is on "NOM."

"Database" is simpler and pronounced as "DAY-tuh-base." The first syllable gets the stress. Some people say "DAH-tuh-base" but both are acceptable.

When you put them together, remember to pause slightly between the words. The full term sounds like "tax-uh-NOM-ik DAY-tuh-base." This refers to organized collections of information about how scientists classify living things.

What Part of Speech Does "Taxonomic Database" Belong To?

"Taxonomic database" functions as a compound noun. The word "taxonomic" serves as an adjective that modifies "database," which is the main noun. Together, they create a single noun phrase that refers to a digital collection of biological classification information.

In scientific writing, this term can appear in different grammatical roles. It can be the subject of a sentence, the object of a verb, or part of a prepositional phrase. The compound structure makes it a specialized technical term in biology and environmental science.

Other related uses include "taxonomic databases" (plural form), "database taxonomy" (reversed order emphasizing the classification system itself), and "taxonomic data" (referring to the information content rather than the storage system).

Example Sentences Using "Taxonomic database"

  1. The research team uploaded their new species discovery to the taxonomic database for peer review.
  2. Students can search the taxonomic database to find information about endangered butterflies in their region.
  3. Scientists rely on this taxonomic database to track biodiversity changes in marine ecosystems.

Essential Features of Taxonomic Databases in Biodiversity Management

  • Standardized Data Structure and Interoperability - According to Oxford Academic's 2024 biodiversity infrastructure study, taxonomic databases must use standardized formats and protocols to ensure data can be integrated across multiple platforms, with tools for "data integration, data quality control, and mechanisms for referencing taxa via stable identifiers." This allows researchers to combine data from different sources without confusion.
  • Global Name Integration and Harmonization - According to recent research published in 2023, effective taxonomic databases depend on "coordination and organization of taxonomic data" because "taxonomic name harmonization, is necessary to properly merge data indexed by taxon names," and without it, "taxonomic harmonization has become a major obstacle in ecological studies." This feature ensures that the same species is recognized consistently across different databases.
  • Quality Control and Expert Validation Systems - According to biodiversity database research, only 69% of papers address data quality issues, making quality control essential, with systems like Finland's FinBIF providing "annotation systems" where "taxon experts" validate identifications, and ITIS ensuring "expert reviews and changes to taxonomic information in the database will be tracked." This prevents errors from spreading through the scientific community.
  • Comprehensive Species Coverage with Rich Metadata - According to the Catalogue of Life (February 2024), major taxonomic databases now include "2.15 million accepted species, both living and extinct," storing not only names but also "distribution (spatial) data and ecological data," including "nomenclature-species name, geographical data and status scale" plus "descriptive data- morphology, anatomy, chemistry, ecology." This comprehensive coverage supports multiple research needs.
  • Open Access and Collaborative Infrastructure - According to GBIF and recent biodiversity frameworks, essential databases provide "open access to data about all types of life on Earth" through "international network and data infrastructure," supporting the 2030 Global Biodiversity Framework goal that "the best available data, information, and knowledge are accessible to decision makers, practitioners, and the public." This democratizes access to biodiversity information worldwide.

Role and Impact of Taxonomic Databases in Species Conservation

Every conservation decision hinges on species databases. It's impossible to protect animals we can't identify. Conservation groups planning new reserves need solid data on local wildlife. Government agencies building endangered species lists face the same challenge. Bad records waste resources and miss the animals that need help most.

Madagascar's lemur research in 2022 demonstrates this reality. Scientists discovered 33 species at unknown risk levels. Previous assessments had missed these threats entirely. Better database records revealed what was actually happening.

Emergency responses work the same way. When wildlife starts dying unexpectedly, researchers need answers fast. These databases provide instant access to comparable species data. Scientists can check historical ranges and habitat requirements within hours. COVID-19 research used exactly this approach to trace potential animal sources and assess broader species risks.

CITES permits and other legal frameworks depend on precise identification. Park rangers and border officials access these systems constantly. Recent advances in DNA barcoding have strengthened this process significantly. Officials can now run genetic tests on specimens and link results directly to taxonomic records.

Etymology

The term "taxonomic database" combines two distinct word origins that tell the story of scientific classification meeting modern technology.

"Taxonomic" comes from the Greek word "taxis," meaning arrangement or order, plus "nomos," meaning law or rule. Swiss botanist Augustin Pyramus de Candolle first coined "taxonomy" in 1813 to describe the science of classifying living things.

"Database" is much newer. It emerged in the 1960s when computer scientists needed a word for organized digital information storage. They simply combined "data" (from Latin "datum," meaning "something given") with "base" (meaning foundation).

The phrase "taxonomic database" appeared in the 1980s when scientists began digitizing their classification systems. Before computers, researchers kept species information in card catalogs and printed books. The digital revolution allowed them to store millions of species records in searchable formats.

This term represents the marriage of ancient Greek naming principles with modern computing power.

Evolution of Biological Classification Systems and Digital Databases

Carl Linnaeus changed how we name living things back in 1753. His two-name system gave every species a label—Homo sapiens for humans, for example. Different places had used different names for the same animals and plants before this. Scientists adopted his method because it worked everywhere.

Museums kept handwritten records in huge filing cabinets for centuries. Then computers arrived in the 1970s and 1980s. The Smithsonian built one of the first digital specimen databases in 1975. Paper files worked fine in one location, but sharing data worldwide was nearly impossible. Digital databases changed that overnight. Scientists could suddenly exchange species information across continents.

By 2001, the Global Biodiversity Information Facility connected these scattered digital collections. Now researchers access biological data from around the world through one system.

Fascinating Facts About Species Documentation and Database Systems

  • The eBird taxonomic database processes 1.8 billion bird observations annually when updating species classifications[1]
  • Ocean Census discovered over 800 new marine species, even though only 10% of marine life has been documented so far[2]
  • Taxonomic databases can add 128 new species in a single year through scientific splits and lumps, as seen in eBird's 2024 update[3]
  • The NCBI taxonomic database contains 234,991 species with formal names and another 405,546 species with informal names[4]
  • Researchers found that adding new species to taxonomic databases outpaces new genera, making species-level classification harder over time[5]
  • Taxonomic database growth is rapid - the number of bacterial genomes in NCBI increased dramatically in the past 10 years, now containing 31 recognized Stenotrophomonas species[6]
  • Scientists name over 8,000 new insect species per year for taxonomic databases, while fungi discovery has increased sharply since 2010[7]

Taxonomic Database In Different Languages: 20 Translations

LanguageTranslationLanguageTranslation
SpanishBase de datos taxonómicaChinese (Simplified)分类数据库
FrenchBase de données taxonomiqueJapanese分類データベース
GermanTaxonomische DatenbankKorean분류 데이터베이스
ItalianDatabase tassonomicoArabicقاعدة البيانات التصنيفية
PortugueseBase de dados taxonômicaHindiवर्गीकरण डेटाबेस
RussianТаксономическая база данныхDutchTaxonomische database
SwedishTaxonomisk databasPolishBaza danych taksonomicznych
NorwegianTaksonomisk databaseCzechTaxonomická databáze
FinnishTaksonominen tietokantaTurkishTaksonomik veritabanı
DanishTaksonomisk databaseGreekΤαξινομική βάση δεδομένων

Translation Notes:

  1. Chinese and Japanese use characters meaning "classification database" - very direct translation
  2. Nordic languages (Swedish, Norwegian, Danish) share similar spellings with slight variations
  3. Some languages like Italian and Dutch blend English "database" with native "taxonomic" terms
  4. Finnish uses "tietokanta" (knowledge base) instead of adopting "database"

Variations

TermExplanationUsage
Species databaseFocuses specifically on species-level information rather than all taxonomic ranksUsed when discussing databases that primarily catalog individual species
Biological databaseBroader term that includes taxonomy plus other biological data like geneticsUsed in scientific contexts where taxonomy is part of larger biological datasets
Classification databaseEmphasizes the organizational structure of how organisms are groupedCommon in educational settings when teaching biological classification systems
Biodiversity databaseIncludes taxonomic data plus ecological and conservation informationUsed in environmental and conservation contexts where species data connects to habitat info
Nomenclature databaseFocuses on the naming rules and scientific names of organismsUsed by researchers concerned with proper scientific naming conventions

Taxonomic Database Images and Visual Representations

Coming Soon

FAQS

1. Which taxonomic database should I use for my biodiversity research project?

Start with GBIF (Global Biodiversity Information Facility) for comprehensive species occurrence data. Use Encyclopedia of Life (EOL) for detailed species information and images. Students often prefer iNaturalist for field identification help. Choose NCBI Taxonomy for genetic research. Pick databases based on your specific region and species group.

2. How accurate is the information in taxonomic databases?

Accuracy varies between databases and depends on data sources. Major databases like GBIF use quality control measures but still contain errors. Always cross-reference multiple sources for important research. Look for records with verification badges or expert confirmation. Recent entries from scientific institutions tend to be more reliable than older crowd-sourced data.

3. Can I contribute my own species observations to taxonomic databases?

Yes, many databases welcome citizen science contributions. iNaturalist lets you upload photos for community identification. GBIF accepts data through partner organizations. eBird takes bird observations. Your contributions help scientists track biodiversity changes and species distributions. Always include clear photos, exact locations, and observation dates.

4. How do taxonomic databases help with wildlife conservation efforts?

These databases track species population trends and distribution changes over time. Conservationists use this data to identify threatened species and plan protection areas. The information helps create species recovery plans and monitor conservation success. Databases also reveal biodiversity hotspots that need immediate protection and track invasive species spread.

5. Are taxonomic databases free to use for students and researchers?

Most major taxonomic databases offer free access to basic features. GBIF, EOL, and iNaturalist are completely free. Some specialized databases charge for premium features or bulk data downloads. Universities often provide access to paid databases through library subscriptions. Always check your school's digital resources before paying for database access.

Sources & References
[1]
Cornell Lab of Ornithology. (2024). 2024 Taxonomy Update—COMPLETE - eBird. eBird.

[2]
Ocean Census. (2025). Over 800 New Marine Species Discovered. Ocean Census Press Release.

[3]
Cornell Lab of Ornithology. (2024). 2024 Taxonomy Update—COMPLETE - eBird. eBird.

[4]
Federhen, S. (2012). The NCBI taxonomy database. Nucleic Acids Research, 40(D1), D136-D143.

[5]
Breitwieser, F. P., Baker, D. N., & Salzberg, S. L. (2018). RefSeq database growth influences the accuracy of k-mer-based lowest common ancestor species identification. BMC Bioinformatics, 19(1), 406.

[7]
Borkent, C. J., et al. (2020). Repositories for Taxonomic Data: Where We Are and What is Missing. Systematic Biology, 69(6), 1231-1253.

Digital catalog of species info, aiding conservation efforts.
At high risk of extinction; requires protection.
Species change over time through natural selection.
System of naming living things using standardized Latin terms.
System of classifying organisms; organizes life's diversity.
Protecting nature and resources for future generations.
Wildlife at risk of extinction due to human or natural threats.
Study of living things' relationships with nature and each other.
Study of body structure and how parts connect.
Non-native organisms that harm local ecosystems and wildlife.
Genetic blueprint of life; stores and transmits heredity.
Living organisms interacting with their environment.
Natural area where species live, find food, and raise young.
Study of organisms' physical form, structure, and features.
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