Low elbow mobility indicates unique forelimb posture and function in a giant extinct marsupial

Joint mobility is a key factor in determining the functional capacity of tetrapod limbs, and is important in palaeobiological reconstructions of extinct animals. Recent advances have been made in quantifying osteological joint mobility using virtual computational methods; however, these approaches g...

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Veröffentlicht in:Journal of anatomy 2021-06, Vol.238 (6), p.1425-1441
Hauptverfasser: Richards, Hazel L., Bishop, Peter J., Hocking, David P., Adams, Justin W., Evans, Alistair R.
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container_issue 6
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creator Richards, Hazel L.
Bishop, Peter J.
Hocking, David P.
Adams, Justin W.
Evans, Alistair R.
description Joint mobility is a key factor in determining the functional capacity of tetrapod limbs, and is important in palaeobiological reconstructions of extinct animals. Recent advances have been made in quantifying osteological joint mobility using virtual computational methods; however, these approaches generally focus on the proximal limb joints and have seldom been applied to fossil mammals. Palorchestes azael is an enigmatic, extinct ~1000 kg marsupial with no close living relatives, whose functional ecology within Australian Pleistocene environments is poorly understood. Most intriguing is its flattened elbow morphology, which has long been assumed to indicate very low mobility at this important joint. Here, we tested elbow mobility via virtual range of motion (ROM) mapping and helical axis analysis, to quantitatively explore the limits of Palorchestes' elbow movement and compare this with their living and extinct relatives, as well as extant mammals that may represent functional analogues. We find that Palorchestes had the lowest elbow mobility among mammals sampled, even when afforded joint translations in addition to rotational degrees of freedom. This indicates that Palorchestes was limited to crouched forelimb postures, something highly unusual for mammals of this size. Coupled flexion and abduction created a skewed primary axis of movement at the elbow, suggesting an abducted forelimb posture and humeral rotation gait that is not found among marsupials and unlike that seen in any large mammals alive today. This work introduces new quantitative methods and demonstrates the utility of comparative ROM mapping approaches, highlighting that Palorchestes' forelimb function was unlike its contemporaneous relatives and appears to lack clear functional analogues among living mammals. Palorchestes azael, a giant extinct marsupial, showed the lowest three‐dimensional elbow mobility among a sample of living and extinct mammals. Using helical axis analysis, we show their limited elbow movement was likely skewed, indicating a crouched and abducted forelimb posture unusual for mammals of their size. This suggests Palorchestes used its forelimbs in ways unrepresented by mammals today.
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Recent advances have been made in quantifying osteological joint mobility using virtual computational methods; however, these approaches generally focus on the proximal limb joints and have seldom been applied to fossil mammals. Palorchestes azael is an enigmatic, extinct ~1000 kg marsupial with no close living relatives, whose functional ecology within Australian Pleistocene environments is poorly understood. Most intriguing is its flattened elbow morphology, which has long been assumed to indicate very low mobility at this important joint. Here, we tested elbow mobility via virtual range of motion (ROM) mapping and helical axis analysis, to quantitatively explore the limits of Palorchestes' elbow movement and compare this with their living and extinct relatives, as well as extant mammals that may represent functional analogues. We find that Palorchestes had the lowest elbow mobility among mammals sampled, even when afforded joint translations in addition to rotational degrees of freedom. This indicates that Palorchestes was limited to crouched forelimb postures, something highly unusual for mammals of this size. Coupled flexion and abduction created a skewed primary axis of movement at the elbow, suggesting an abducted forelimb posture and humeral rotation gait that is not found among marsupials and unlike that seen in any large mammals alive today. This work introduces new quantitative methods and demonstrates the utility of comparative ROM mapping approaches, highlighting that Palorchestes' forelimb function was unlike its contemporaneous relatives and appears to lack clear functional analogues among living mammals. Palorchestes azael, a giant extinct marsupial, showed the lowest three‐dimensional elbow mobility among a sample of living and extinct mammals. Using helical axis analysis, we show their limited elbow movement was likely skewed, indicating a crouched and abducted forelimb posture unusual for mammals of their size. This suggests Palorchestes used its forelimbs in ways unrepresented by mammals today.</abstract><cop>HOBOKEN</cop><pub>Wiley</pub><pmid>33533053</pmid><doi>10.1111/joa.13389</doi><tpages>17</tpages><orcidid>https://orcid.org/0000-0002-9272-6815</orcidid><orcidid>https://orcid.org/0000-0002-4078-4693</orcidid><orcidid>https://orcid.org/0000-0002-6214-9850</orcidid><oa>free_for_read</oa></addata></record>
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subjects Anatomy & Morphology
Animals
Australia
Biomechanical Phenomena - physiology
biomechanics
Computer applications
Elbow
Elbow Joint - anatomy & histology
Elbow Joint - physiology
Extinction
forelimb
Forelimb - anatomy & histology
Forelimb - physiology
Fossils
functional morphology
Gait
helical axes
Humerus
Humerus - anatomy & histology
Humerus - physiology
joint mobility
Life Sciences & Biomedicine
Mapping
Marsupialia
Marsupials
megafauna
Mobility
Movement
Original Paper
Original Papers
Palorchestes
Pleistocene
Posture
Posture - physiology
range of motion
Range of Motion, Articular - physiology
Science & Technology
title Low elbow mobility indicates unique forelimb posture and function in a giant extinct marsupial
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