Carolyne Tranquille

Ms. Carolyne Tranquille


Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 August 2006 in Equine Veterinary Journal
Verified
Journal Article
Closed access
PDF file
RMR. C. Murray
R. C. Murray
SDS. J. Dyson
S. J. Dyson
CTCarolyne Tranquille
Carolyne Tranquille
VAVicki Jean Adams
Vicki Jean Adams

1 November 2013 in Preventive Veterinary Medicine
Verified
Journal Article
Closed access
AEAgneta Egenvall
Agneta Egenvall
CTCarolyne Tranquille
Carolyne Tranquille
ALA.C. Lönnell
A.C. Lönnell
CBC. Bitschnau
C. Bitschnau
AOA. Oomen
A. Oomen
LRLars Roepstorff
Lars Roepstorff

14 April 2011 in Equine Veterinary Journal
Verified
Journal Article
Closed access
PDF file
SDSue Dyson
Sue Dyson
CTCarolyne Tranquille
Carolyne Tranquille
SCS. N. Collins
S. N. Collins
TPT. D. H. Parkin
T. D. H. Parkin
RMR. C. Murray
R. C. Murray

1 November 2005 in American Journal of Veterinary Research
Verified
Journal Article
Closed access
RMRachel C. Murray
Rachel C. Murray
MBMarion V. Branch
Marion V. Branch
CTCarolyne Tranquille
Carolyne Tranquille
SWSarah Woods
Sarah Woods
Objective—To validate use of magnetic resonance images (MRIs) for measurement of equine articular cartilage and subchondral bone thickness by comparison with measurements in histologic specimens. Sample Population—32 cadaveric carpal joints from 16 horses. Procedure—Magnetic resonance imaging was performed by use of 3-dimensional fast spoiled gradient echo (SPGR) and T2* 3-dimensional fast gradient echo (GRE) pulse sequences with and without fat saturation. Standard sites on the medial and lateral facets of the intermediate, radial, and third carpal bones were used for subchondral bone and articular cartilage thickness measurements. Digital image analysis software was used for MRI measurements 10 mm from the dorsal extent and perpendicular to the articular surface. Histomorphometric measurements of hyaline, calcified cartilage, and subchondral bone thickness were obtained at selected sites. Comparisons between histomorphometric and MRI measurements and between magnetic resonance pulse sequences were evaluated. Results—There were significant correlations between GRE and SPGR and SPGR and histologic measurements of articular cartilage, with no significant difference between measurements and good agreement. When calcified cartilage was excluded from the histologic measurement, MRI measurements were significantly greater than histologic measurements. For subchondral bone thickness, there was significant correlation between GRE and SPGR but GRE was significantly greater than SPGR measurements. Histomorphometric and MRI measurements were strongly correlated and not significantly different. Conclusions and Clinical Relevance—Magnetic resonance imaging provides a good representation of cartilage and subchondral bone thickness, supporting its use in the study and clinical diagnosis of osteochondral structure and alteration. (Am J Vet Res 2005;66:1999–2005)

1 December 2011 in The Veterinary Journal
Verified
Journal Article
Closed access
SDSue Dyson
Sue Dyson
CTCarolyne Tranquille
Carolyne Tranquille
SCSimon N. Collins
Simon N. Collins
TPTim D.H. Parkin
Tim D.H. Parkin
RMRachel C. Murray
Rachel C. Murray

19 January 2012 in Equine Veterinary Journal
Verified
Journal Article
Open access
PDF file
CTCarolyne Tranquille
Carolyne Tranquille
TPT. D. H. Parkin
T. D. H. Parkin
RMR. C. Murray
R. C. Murray
Summary: Reasons for performing the study: Lateral condylar (LC) fractures of the third metacarpus (McIII) are a common reason for euthanasia in racehorses, and may be the result of repetitive overloading or cumulative pathological change. Magnetic resonance imaging (MRI) allows monitoring of bone and cartilage to detect pathological and adaptive changes that may be precursors of fracture. Objectives: To describe bone and cartilage MRI features in the distal condyles of McIII of Thoroughbred racehorses, with and without condylar fracture. Hypotheses: 1) A greater degree of bone and cartilage adaptation or pathology will be seen in fractured McIIIs compared with their respective contralateral McIIIs. 2) Contralateral McIIIs will have a greater degree of bone and cartilage adaptation or pathology than McIIIs from control horses that did not sustain a LC fracture. Methods: The McIIIs from 96 horses subjected to euthanasia at racecourses were divided into 3 groups: Group 1 : nonfractured bones from horses without LC fracture; Group 2 : nonfractured bones from horses with unilateral LC fracture; and Group 3 : fractured bones from horses with unilateral LC fracture. The MR images were examined and graded for bone and cartilage changes. Results: Nine percent of Group 1 (n = 9) and 11% of Group 2 bones (n = 5) had incomplete LC fractures. Focal palmar necrosis was most frequently detected in bones from Group 1 (12%) compared with Groups 2 (9%) and 3 (4%). The prevalence of bone and/or cartilage abnormalities tended to increase from Group 1 to Group 2 to Group 3 . Conclusions: Magnetic resonance imaging is able to detect cartilage and bone changes that may be associated with LC fracture. There was no significant difference in bone/cartilage changes between bones from Groups 1 and 2 , despite increased pathology in Group 2 bones. Potential relevance: Periodic monitoring of bone and/or cartilage changes in distal McIII of Thoroughbred racehorses may help to prevent catastrophic LC fractures.