 |
MOVIE 1: Animation of the operation of the
F1-ATPase.
(Energy-minimized interpolation by Dmitry Cherepanov (2001) of the
1994-crystal structure from John Walker's lab in Cambridge) |
 |
|
MOVIE 2: Animation of the proton-driven FOF1-ATP
synthase. (after O. Fritsche & W. Junge (1999) by iAS, courtesy
of http://www.iwf.de
(2005)) |
 |
|
MOVIE 3: Original video of fluorescent
F-actin
attached to the c-ring of FO which rotates as driven by ATP-hydrolysis
in F1. The torque profile of the enzyme was calculated from the
curvature of the filament (O. Pänke et al. (2001) Biophysical
J.
81, 1220-33.) |
 |
|
MOVIE 4: Animation of the proton-translocating
(electro-)motor FO of the ATP synthase (concept: WJ et al. (1997) TIBS
22, 420-23, animation M. Sauer (2001)) |
 |
|
MOVIE 5: Stepped rotation of the c-ring in FOF1
recorded with small probe on FO. |
 |
|
MOVIE 6: Continuous rotation of the gamma subunit
of immobilized F1 driven by
rotating external magnetic field acting on hyperparamagnetic bead. |
 |
|
MOVIE 7: Magnetically forced rotation of a
hyper-paramagnetic bead attached to the FO-end of the stator of rotary
FOF1-ATPase, the extent being limited by the stiffness of the stator
(see Wächter A et al. (2011) PNAS-USA 108, 3924-29) |
 |
|
MOVIE 8: Gamma subunit with fixed C-terminus, animation by targeted MD, D.
Cherepanov (2001) based on: Gumbiowski et al. (2001) JBC 276, 42287 |
 |
|
MOVIE 9: From Light to ATP Proton
Translocating, Rotary F-ATPase in Chloroplasts
(1999, O. Fritsche & W. Junge) |
 |
 |
Torsional domain stiffness in FOF1
(see H. Sielaff et al. (2008) PNAS-USA 105, 17760-65 and A
Wächter et al. (2011 PNAS-USA 108, 3924-29) |
 |
|
Calculated turnover rate of rotary FOF1 with
attached viscous load as a function of the rotor stiffness (see D.
Cherepanov and W. Junge (2001) Biophys.J. 81, 1234-44 - O.
Pänke
et al. (2001) 81, 1220-33) |
 |
|
Actin-to-FOF1 linkage |
 |
|
MOVIE 10: Detaching filaments from immobilized FOF1 by
laminar flow |
 |
