| Invention Name | Tooth extraction tools |
|---|---|
| Short Definition | Hand instruments designed to loosen, grip, lever, or remove teeth and tooth roots. |
| Approximate Date or Period | Specialized European forms documented from the 14th century onward Based on surviving evidence |
| Geography | Europe for documented pelicans and tooth keys; earlier tooth removal existed in many regions. |
| Inventor or Source Culture | Anonymous and collective; later improvements linked to named dentists and instrument makers. |
| Category | Medicine; surgery; dentistry; hand instruments. |
| Evidence Status | Approximate for earliest origins; Confirmed for many surviving 18th–19th century objects. |
| Main Problem Solved | Removing diseased, painful, loose, broken, or unrestorable teeth when other treatment was unavailable or insufficient. |
| How It Worked | Early tools used leverage and gripping force; later forceps matched tooth shape more closely. |
| Main Materials | Steel or iron working ends; wood, horn, ivory, bone, or later metal handles. |
| Early Use Area | Barber-surgery, early dentistry, itinerant tooth pulling, and later professional dental practice. |
| Development Path | Pincers and general forceps → dental pelican → dental key → specialized forceps and elevators → regulated dental hand instruments. |
| Surviving Evidence | Museum objects, historical illustrations, dental catalogues, dental treatises, academic dental-history studies. |
| Modern Descendants | Dental extraction forceps, elevators, luxators, periotomes, root-tip instruments, and surgical extraction systems. |
| Related Inventions | Dental chair; anesthesia; dental drill; surgical scalpel; antisepsis; dental implant systems. |
| Why It Matters | It marks the shift from general tooth pulling toward specialized dental surgery and profession-based oral care. |
What Tooth Extraction Tools Are
Tooth extraction tools are dental and surgical hand instruments made to remove teeth or tooth roots from the jaw. The group includes older devices such as the dental pelican and tooth key, as well as later forceps, elevators, luxators, and related oral surgery instruments.
The invention is best understood as a family of tools, not one object. A pelican, a key, and a pair of extraction forceps do not work in the same way. They share the same goal, but their shapes, motions, risks, and historical settings are different.
Early extraction tools answered a direct medical need: tooth pain could become severe, infection could spread, and damaged teeth could interfere with eating. Before reliable restorative dentistry, antibiotics, modern anesthesia, and advanced imaging, removing a tooth was often one of the few available responses.
The Problem These Tools Answered
Before specialized extraction tools, tooth removal relied on fingers, simple pincers, general surgical forceps, or improvised instruments. These methods gave the operator limited control. A tooth could break. A root could remain. Nearby tissue could be damaged. The problem was not only pain; it was mechanical control.
A tooth is not a loose peg. It is anchored in the alveolar bone by roots and supporting tissues. The shape of the tooth, the number of roots, the condition of the crown, and the position in the mouth all affect removal. Early dental instruments tried to solve this by adding three useful features:
- Grip: a claw, beak, or blade that could hold part of the tooth.
- Leverage: a handle and fulcrum that could transfer force.
- Access: a shape that could reach inside the mouth more precisely than a general tool.
Earlier Ideas Before Specialized Extraction Tools
The simplest earlier idea was the pincer: a tool that grips and pulls. That idea is older than dentistry as a profession. General forceps and pincers appear in many craft and surgical traditions because the same basic action is useful in metalworking, medicine, repair, and household work.
For teeth, simple pulling had limits. Many teeth are slippery, broken, deeply rooted, or hard to reach. Pulling straight upward does not always match the shape of the socket. This is why later instruments combined gripping with controlled leverage.
The dental pelican and tooth key were not merely “pliers for teeth.” They were attempts to create a mechanical advantage inside a small, difficult space. The improvement was real, but it was incomplete. The same leverage that helped remove a tooth could also damage nearby tissue if poorly controlled.
From Pelicans to Keys and Forceps
The dental pelican was one of the best-known early specialized extraction tools. The Science Museum Group describes a surviving double-ended steel dental pelican from Europe, dated 1701–1800, and explains that pelicans are believed to date back to the 1300s. Their name came from the supposed resemblance to a pelican’s beak.[b]
A pelican used a claw and a fulcrum-like part. Its purpose was to move the tooth sideways rather than simply pull it upward. Over time, makers changed the number of claws, the handle, the bolster, and the adjustability of the instrument.
The tooth key became especially common in the 18th and 19th centuries. A Science Museum Group dental key object, made in Paris between 1825 and 1870, has a wooden handle and steel shaft. The museum explains that dental keys were commonly used in the 18th and 19th centuries and that later curved shafts and adjustable claws were introduced to reduce unwanted pressure on nearby teeth.[c]
Forceps eventually replaced keys as the preferred extraction instruments because they could be made for different tooth shapes. Instead of relying on a large turning motion, forceps could grip more directly and adapt to anatomy. The shift was not instant. Older tools remained in use in some places after better instruments existed.
| Stage | Form | What Changed |
|---|---|---|
| Earlier Tool | General pincers and forceps | Basic gripping and pulling, but limited fit for tooth shape. |
| Specialized Lever Tool | Dental pelican | Added a claw and fulcrum for sideways leverage. |
| Rotating Extraction Tool | Dental key or tooth key | Used a claw and bolster with a turning motion. |
| Anatomical Hand Tool | Specialized extraction forceps | Improved grip by matching different tooth positions and root forms. |
| Supporting Instrument | Elevators and luxators | Helped loosen teeth or roots before removal by other instruments. |
| Modern Descendant | Regulated dental hand instruments | Standardized materials, designs, training, sterilization, and clinical use. |
How the Main Tools Worked in Simple Terms
The early mechanism can be explained without turning it into a practical instruction. A tooth extraction tool had to solve a physical problem: a tooth is held by roots and tissue, and the tool had to separate it from that support.
Dental Pelican
The dental pelican used a claw and a supporting part. Its form allowed sideways leverage. The name came from its bird-like shape, not from a maker named Pelican. This is a useful detail because many short descriptions treat the name as decorative, while the name actually points to the tool’s visible form.
Dental Key
The dental key resembled a door key in both shape and motion. It had a handle, shaft, bolster, and claw. The claw gripped the tooth, and the turning movement aimed to loosen or remove it. The University of the Pacific’s Virtual Dental Museum describes the original toothkey as appearing around 1740, spreading from England to the Continent by the mid-1700s and to America later in the century.[d]
Extraction Forceps
Extraction forceps look simpler than keys, but their design is more anatomically specific. They use paired beaks and handles. Different forms developed for upper teeth, lower teeth, roots, molars, incisors, and other dental situations. Their value came from fit, not just force.
Elevators and Luxators
Elevators and luxators are linked to leverage rather than gripping. Their role is to loosen or mobilize a tooth or root. The Macaulay Dental Museum explains that elevators loosen a tooth or root before other means such as forceps, and that elevators are still used in dental extractions today.[e]
Main Types and Variations
| Type | Historical Role | Typical Feature | Evidence Status |
|---|---|---|---|
| Pincers | General gripping tools used before specialized dental forms. | Two jaws and a pulling action. | Approximate |
| Dental Pelican | Early specialized extraction instrument in medieval and early modern Europe. | Claw, shaft, and fulcrum-like support. | Based on surviving evidence |
| Dental Key | Common extraction tool in the 18th and 19th centuries. | Key-like handle, shaft, bolster, and claw. | Confirmed |
| Extraction Forceps | Later preferred tool family for many visible teeth. | Beaks shaped for tooth anatomy. | Confirmed |
| Elevators | Supporting tools for loosening teeth or roots. | Lever-like blade and handle. | Confirmed |
| Root Instruments | Used when a crown was broken or a root remained. | Designed for smaller or deeper fragments. | Confirmed |
| Modern Vertical Systems | Later specialized systems for selected extraction problems. | Device-assisted extraction rather than simple hand leverage. | Confirmed |
Before and After Tooth Extraction Tools
The change brought by tooth extraction tools was practical rather than glamorous. These instruments did not make dental extraction easy or safe by modern standards. They did create a path from improvised removal toward purpose-built dental instruments.
| Before | After |
|---|---|
| General pincers, fingers, or improvised tools were often used. | Specialized instruments were made for dental removal. |
| The operator had limited control over grip and direction. | Claws, bolsters, beaks, and shaped handles gave more mechanical control. |
| Tools did not closely match tooth anatomy. | Later forceps were shaped for different tooth positions and forms. |
| Broken crowns and remaining roots were common problems. | Elevators, root instruments, and forceps helped address more specific cases. |
| Tooth pulling was often linked to barber-surgeons or itinerant operators. | Instrument design became part of professional dentistry and oral surgery. |
| Evidence is often indirect for early periods. | Later museum objects, catalogues, and standards give clearer documentation. |
Materials, Mechanism, and Technical Principle
The material history of extraction tools is also a history of reliability. Working ends needed to be hard enough to hold shape under force. Handles needed to be strong and comfortable enough to control. Older examples often combine steel or iron with wood, horn, bone, or ivory.
The main technical principles were simple:
- Lever action: using a handle to magnify force at the working end.
- Fulcrum support: placing force through a supporting point, as seen in pelicans and keys.
- Gripping fit: shaping the working end to hold part of the tooth.
- Anatomical specialization: adjusting the form for upper, lower, front, back, or root structures.
The most important design change was the move away from one powerful motion toward instruments that could match the mouth more closely. The later value of forceps was not that they were more dramatic. It was that they could be more specific.
Early Uses and Social Setting
Tooth extraction tools were used in a social setting very different from modern dental clinics. Medieval and early modern tooth removal could be performed by barber-surgeons, traveling tooth-pullers, surgeons, or early dental practitioners. In many communities, the person extracting a tooth was not a licensed dentist in the modern sense.
Related articles: Dental Fillings (Etruscans) [Ancient Inventions Series]
That changed gradually as dentistry became a profession with schools, societies, licensing systems, and specialized equipment. The tool itself is part of that story. A dental key in a traveling operator’s kit and a set of shaped forceps in a trained dental practice belong to different stages of care.
The change was also educational. Instrument makers, dental authors, and museums preserved examples that show how knowledge moved between surgery, craft, dentistry, and manufacturing. This is why a tooth extraction tool belongs not only to medical history, but also to the history of hand tools and precision instrument making.
How the Tools Spread and Changed
Dental tools spread through several channels: surgical books, apprenticeships, instrument catalogues, trade networks, dental schools, military and hospital practice, and museum collections. The tooth key is a clear example. It began as a European instrument and spread widely because it was compact, memorable in shape, and quick in operation.
Changes over time were often small but meaningful:
- Straight shafts gave way to curved or bent shafts.
- Fixed claws developed into adjustable or interchangeable claws.
- General gripping tools gave way to tooth-specific forceps.
- Heavy leverage tools declined as anesthesia, antisepsis, professional training, and better surgical planning developed.
The University of Liverpool’s Victoria Gallery & Museum notes that tooth keys were introduced in the early 1700s, that extra curves were added by the late 18th century to reduce damage to the jaw and adjacent teeth, and that forceps rapidly replaced keys by the early 1900s in Britain.[f]
What Changed Because of Tooth Extraction Tools
Specialized extraction tools changed oral care in several concrete ways. They created dedicated instrument categories, helped dentists think in terms of tooth anatomy, and pushed dental practice away from improvised pulling.
The strongest long-term effects were:
- Professional specialization: extraction became a dental and oral surgery procedure rather than only a general act of pulling.
- Instrument design: makers created tools for different teeth, roots, and surgical situations.
- Teaching and classification: dental schools could train students with named instrument families.
- Regulation and standards: modern dental hand instruments became part of controlled medical-device systems.
- Related care: anesthesia, antisepsis, radiography, and restorative dentistry changed when and why extraction was performed.
Modern dental coding and device systems still reflect the historical separation between removal with elevators and forceps and more involved surgical removal. The American Dental Association’s guide to extractions describes erupted tooth or exposed-root extraction in relation to elevation and/or forceps removal, while distinguishing it from procedures involving tissue or bone removal.[g]
Common Misunderstandings
The Tool Was Not Invented Once
“Tooth extraction tools” refers to a group of instruments. No single person invented the entire category.
The Earliest Evidence Is Not Always the First Use
A surviving drawing or object shows what is known today. It does not prove that earlier versions never existed.
The Dental Key Was Not a Modern Forceps
A tooth key used a claw and turning motion. Modern forceps rely more on shaped beaks and anatomical fit.
Better Tools Did Not Remove All Risk
Improved instruments made control easier, but safety also depended on training, anesthesia, antisepsis, diagnosis, and clinical judgment.
Modern Descendants and Regulated Instrument Families
Modern extraction instruments include forceps, elevators, luxators, periotomes, root-tip picks, surgical hand instruments, and device-assisted systems. Their design is shaped by clinical training, sterilization requirements, material standards, and medical-device regulation.
The U.S. Food and Drug Administration lists tooth extractor surgical forceps and dental surgical elevators under dental hand instruments, regulation number 872.4565, device class 1.[h] This shows how far the invention group has moved from craft-made objects toward regulated medical instrument categories.
Modern descendants also changed the purpose of extraction. In older practice, extraction often stood almost alone. In modern dentistry, it may connect to radiography, local anesthesia, infection control, orthodontics, oral surgery, bone preservation, implant planning, and prosthetic replacement. The instrument is now one part of a wider clinical system.
Related Inventions
These related inventions help place tooth extraction tools within the wider history of dentistry and medical instruments:
- Dental Chair: improved access, posture, and control during dental procedures.
- Anesthesia: changed the pain experience of oral surgery and dental extraction.
- Dental Drill: supported tooth repair, which reduced the need for extraction in many cases.
- Surgical Scalpel: connected dental extraction to broader surgical practice.
- Antiseptic Practice: helped transform dental care from manual intervention into safer clinical treatment.
- Dental Radiography: made tooth roots and jaw structures easier to assess before treatment.
- Dental Implants: created later systems for replacing missing teeth after extraction.
- Precision Medical Instrument Making: supported standardized forceps, elevators, and surgical hand tools.
Frequently Asked Questions
Who invented tooth extraction tools?
Tooth extraction tools were not invented by one person. The category developed over time from general pincers and surgical forceps into specialized tools such as dental pelicans, tooth keys, elevators, and tooth-specific forceps.
What was the dental pelican?
The dental pelican was an early specialized tooth extraction instrument with a claw and supporting part. It was named because its shape was thought to resemble a pelican’s beak.
What was a tooth key used for?
A tooth key, also called a dental key, was used historically to loosen or remove teeth with a claw, bolster, shaft, and turning motion. It was common in the 18th and 19th centuries before specialized forceps became preferred.
Why did forceps replace the dental key?
Forceps replaced the dental key because they could be shaped for different teeth and could grip more directly. This made them better suited to professional dental practice than a large rotating key mechanism.
Are old tooth extraction tools still used today?
Historical tools such as the dental pelican and tooth key are museum objects today. Modern dentistry uses professional dental hand instruments such as forceps, elevators, luxators, and other specialized surgical tools.
Sources and Verification
- [a] extraction: Macaulay Dental Museum — Used to verify the early historical framing of dental extraction, the pelican and tooth key as early specialized extraction instruments, and the 1363 and 1483 references. (Reliable because it is an institutional dental museum page from the Medical University of South Carolina library.)
- [b] Dental Pelican for Tooth Pulling — Used to verify the surviving steel dental pelican object, its European dating, and the explanation of its name and mechanism. (Reliable because it is an official Science Museum Group collection object record.)
- [c] Dental key | Science Museum Group Collection — Used to verify the 1825–1870 Paris dental key object, materials, common 18th–19th century use, and later design changes. (Reliable because it is an official Science Museum Group collection object record.)
- [d] Toothache and Trauma: A History of the Toothkey — Used to verify the toothkey’s approximate appearance around 1740, spread from England, and historical transition toward forceps. (Reliable because it is a university dental museum exhibit page.)
- [e] extraction: Macaulay Dental Museum — Used to verify the basic historical role of elevators and forceps in dental extraction. (Reliable because it is an institutional dental museum page from the Medical University of South Carolina library.)
- [f] Dental collection further information – Victoria Gallery & Museum – University of Liverpool — Used to verify the University of Liverpool museum account of pelicans, tooth keys, curved shafts, and the early 20th-century replacement of keys by forceps in Britain. (Reliable because it is a university museum collection page.)
- [g] Guide to Extractions – Tooth and Remnants — Used to verify modern terminology distinguishing forceps/elevator removal from more involved surgical extraction categories. (Reliable because it is an American Dental Association publication.)
- [h] Product Classification – FDA — Used to verify that tooth extractor surgical forceps and dental surgical elevators appear within FDA dental hand instrument classification records. (Reliable because it is an official U.S. Food and Drug Administration device classification database.)

