Nicole L Griffin
Biographic Data
| ID | 3072596 |
|---|---|
| NAME | Nicole L Griffin |
| GIVEN NAMES | Nicole L |
| FAMILY NAME | Griffin |
| SIGNATURE | GRIFFIN N L |
| AFFILIATIONS | Temple University |
| VERIFIED | No |
| TOTAL WORKS | 11 |
| TOTAL CITATIONS | 106 |
| AUTHOR COUNT | 11 |
| EDITOR COUNT | 0 |
| FIRST PUBLICATION YEAR | 2008 |
| LATEST PUBLICATION YEAR | 2020 |
| H-INDEX | 7 |
The upper limb of Paranthropus boisei from Ileret, Kenya
Cross-sectional properties of the humeral diaphysis of Paranthropus boisei: Implications for upper limb function
Humeral anatomy of the KNM-ER 47000 upper limb skeleton from Ileret, Kenya: Implications for taxonomic identification
Inter-ray variation in metatarsal strength properties in humans and African apes: Implications for inferring bipedal biomechanics in the Olduvai Hominid 8 foot
Scapular anatomy of Paranthropus boisei from Ileret, Kenya
Understanding the evolution of the windlass mechanism of the human foot from comparative anatomy: Insights, obstacles, and future directions
Humans stand alone from other primates in that we propel our bodies forward on a relatively stiff and arched foot and do so by employing an anatomical arrangement of bones and ligaments in the foot that can operate like a “windlass.” This is a significant evolutionary innovation, but it is currently unknown when during hominin evolution this mechanism developed and within what genera or species it originated. The presence of recently discovered f…
Joint orientation and function in great ape and human proximal pedal phalanges
Previous studies have referred to the degree of dorsal canting of the base of the proximal phalanx as an indicator of human‐like metatarsophalangeal joint function and thus a diagnostic trait of habitual bipedality in the fossil record. Here, we used a simple method to investigate differences in forefoot function on a finer scale. Building on Duncan et al.'s (Am J Phys Anthropol 93 [1994] 67–81) research, we tested whether dorsal canting reflects…
Comparative forefoot trabecular bone architecture in extant hominids
Comparative in vivo forefoot kinematics of Homo sapiens and Pan paniscus
Cross-sectional geometric analysis of a foot bone assemblage from Mangaia, Cook Islands
Bone architecture of the hominin second proximal pedal phalanx: A Preliminary Investigation
Comparative forefoot trabecular bone architecture in extant hominids
The upper limb of Paranthropus boisei from Ileret, Kenya
Understanding the evolution of the windlass mechanism of the human foot from comparative anatomy: Insights, obstacles, and future directions
Humans stand alone from other primates in that we propel our bodies forward on a relatively stiff and arched foot and do so by employing an anatomical arrangement of bones and ligaments in the foot that can operate like a “windlass.” This is a significant evolutionary innovation, but it is currently unknown when during hominin evolution this mechanism developed and within what genera or species it originated. The presence of recently discovered f…
Comparative in vivo forefoot kinematics of Homo sapiens and Pan paniscus
Scapular anatomy of Paranthropus boisei from Ileret, Kenya
Joint orientation and function in great ape and human proximal pedal phalanges
Previous studies have referred to the degree of dorsal canting of the base of the proximal phalanx as an indicator of human‐like metatarsophalangeal joint function and thus a diagnostic trait of habitual bipedality in the fossil record. Here, we used a simple method to investigate differences in forefoot function on a finer scale. Building on Duncan et al.'s (Am J Phys Anthropol 93 [1994] 67–81) research, we tested whether dorsal canting reflects…
Humeral anatomy of the KNM-ER 47000 upper limb skeleton from Ileret, Kenya: Implications for taxonomic identification
Cross-sectional properties of the humeral diaphysis of Paranthropus boisei: Implications for upper limb function
Inter-ray variation in metatarsal strength properties in humans and African apes: Implications for inferring bipedal biomechanics in the Olduvai Hominid 8 foot
Bone architecture of the hominin second proximal pedal phalanx: A Preliminary Investigation
Cross-sectional geometric analysis of a foot bone assemblage from Mangaia, Cook Islands
Bone architecture of the hominin second proximal pedal phalanx: A Preliminary Investigation
Joint orientation and function in great ape and human proximal pedal phalanges
Previous studies have referred to the degree of dorsal canting of the base of the proximal phalanx as an indicator of human‐like metatarsophalangeal joint function and thus a diagnostic trait of habitual bipedality in the fossil record. Here, we used a simple method to investigate differences in forefoot function on a finer scale. Building on Duncan et al.'s (Am J Phys Anthropol 93 [1994] 67–81) research, we tested whether dorsal canting reflects…
Comparative forefoot trabecular bone architecture in extant hominids
Comparative in vivo forefoot kinematics of Homo sapiens and Pan paniscus
Understanding the evolution of the windlass mechanism of the human foot from comparative anatomy: Insights, obstacles, and future directions
Humans stand alone from other primates in that we propel our bodies forward on a relatively stiff and arched foot and do so by employing an anatomical arrangement of bones and ligaments in the foot that can operate like a “windlass.” This is a significant evolutionary innovation, but it is currently unknown when during hominin evolution this mechanism developed and within what genera or species it originated. The presence of recently discovered f…
Inter-ray variation in metatarsal strength properties in humans and African apes: Implications for inferring bipedal biomechanics in the Olduvai Hominid 8 foot
Scapular anatomy of Paranthropus boisei from Ileret, Kenya
Cross-sectional properties of the humeral diaphysis of Paranthropus boisei: Implications for upper limb function
Humeral anatomy of the KNM-ER 47000 upper limb skeleton from Ileret, Kenya: Implications for taxonomic identification
The upper limb of Paranthropus boisei from Ileret, Kenya
Anatomy (11 works) · Biology (11 works) · Anatomy (10 works) · Primate Behavior and Ecology (9 works) · Paleontology (8 works) · Paleontology (7 works) · Pleistocene-Era Hominins and Archaeology (7 works) · Australopithecus (6 works) · Bipedalism (6 works) · Geography (6 works)