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  1. A complex Plasmodium falciparum cryptotype circulating at low frequency across the African continent

    This article has 36 authors:
    1. Olivo Miotto
    2. Alfred Amambua-Ngwa
    3. Lucas Amenga-Etego
    4. Muzamil M Abdel Hamid
    5. Ishag Adam
    6. Enoch Aninagyei
    7. Tobias Apinjoh
    8. Gordon A Awandare
    9. Philip Bejon
    10. Gwladys I Bertin
    11. Marielle Bouyou-Akotet
    12. Antoine Claessens
    13. David J Conway
    14. Umberto D’Alessandro
    15. Mahamadou Diakite
    16. Abdoulaye Djimdé
    17. Arjen M Dondorp
    18. Patrick Duffy
    19. Rick M Fairhurst
    20. Caterina I Fanello
    21. Anita Ghansah
    22. Deus Ishengoma
    23. Mara Lawniczak
    24. Oumou Maïga-Ascofaré
    25. Sarah Auburn
    26. Anna Rosanas-Urgell
    27. Varanya Wasakul
    28. Nina FD White
    29. Jacob Almagro-Garcia
    30. Richard D Pearson
    31. Sonia Goncalves
    32. Cristina Ariani
    33. Zbynek Bozdech
    34. William Hamilton
    35. Victoria Simpson
    36. Dominic P Kwiatkowski

    Reviewed by preLights

    This article has 1 evaluationAppears in 1 listLatest version Latest activity
  2. Postural adaptations may contribute to the unique locomotor energetics seen in hopping kangaroos

    This article has 8 authors:
    1. Lauren Thornton
    2. Taylor Dick
    3. John R Hutchinson
    4. Glen A Lichtwark
    5. Craig P McGowan
    6. Jonas Rubenson
    7. Alexis Wiktorowicz-Conroy
    8. Christofer J Clemente
    This article has been curated by 1 group:
    • Curated by eLife

      eLife Assessment

      This valuable biomechanical analysis of kangaroo kinematics and kinetics across a range of hopping speeds and masses is a step towards understanding a long-standing problem in locomotion biomechanics: the mechanism for how kangaroos, unlike other mammals, can increase hopping speed without a concomitant increase in metabolic cost. The authors convincingly demonstrate that changes in kangaroo posture with speed increase tendon stress/strain and hence elastic energy storage/return. This greater tendon elastic energy storage/return may counteract the increased cost of generating muscular force at faster speeds and thus allows for the invariance in metabolic cost. This methodologically impressive study sets the stage for further work to investigate the relation of hopping speed to metabolic cost more definitively.

    Reviewed by eLife, preLights

    This article has 9 evaluationsAppears in 2 listsLatest version Latest activity