Showing posts with label synthesis. Show all posts
Showing posts with label synthesis. Show all posts

Thursday, June 16, 2011

Fourbar 3 Precision Points Synthesis Solution ( 1 of 2 ) - Video


Fourbar 3 Precision Points Synthesis Solution ( 1 of 2 )
Tutorial Description
The resulting fourbar mechanism from a dyadic synthesis. Using the arbitrary free choices we used in the synthesis process, the resulting fourbar mechanism is a crank-rocker (Non-Grashof). This example demonstrate that with this dyadic synthesis method, there is no guarantee on the type of mechanism (Grashof or Non-Grashof) you will get. There is also no guarantee that the mechanism will pass through all 3 points in one configuration (crossed/ uncrossed). This is the simulation where the crank (R2) rotate 360 degree with uncrossed configuration. In this configuration, the mechanism is able to pass through the only one points. The crossed configuration pass through the remaining two points - please see part 2 of this video: "Fourbar 3 Precision Points Synthesis Solution ( 2 of 2 )" http://www.youtube.com/watch?v=9Beymhbu-mM Note: The first version of this video have a wrong title in the simulation - instead of "Fourbar Synthesis: 3 Precision Points", it was "Limiting Position: Fourbar (Crank-Rocker)". This version updated this error. The first version of this simulation can be found here: http://www.youtube.com/watch?v=DqFcG_h15x8 This is an example used in the Dyadic Synthesis in MAE412/512 Machines and Mechanism II class at the State University of New York at Buffalo, Mechanical & Aerospace Engineering Department. For more information, visit: http://www.eng.buffalo.edu/~llee3/ http://mechatronics.eng.buffalo.edu/
Fourbar 3 Precision Points Synthesis Solution ( 1 of 2 ) - Video

Fourbar 3 Precision Points Synthesis, Fixed Pivot (2/2) - Video


Fourbar 3 Precision Points Synthesis, Fixed Pivot (2/2)
Tutorial Description
The resulting fourbar mechanism from a dyadic synthesis. The task is to synthesize a fourbar mechanism that will pass through three precision points using dyadic synthesis method. In addition, we want to fix the pivoting location of the fourbar mechanism at (-15,-10) & (5,-10). The three points are P1(30,5), P2(15,15), P3(5,30). The resulting fourbar mechanism is a crank-rocker. This is the simulation where the crank (R4) rotate 360 degree with crossed configuration. In this configuration, the mechanism is able to pass through all three points. The crossed configuration pass through all three points - please see part 1 of this video, where the uncrossed configuration only pass through one points: "Fourbar 3 Precision Points Synthesis, Fixed Pivot (1/2)" http://www.youtube.com/watch?v=-kNuOKEz4WA This is an example used in the Dyadic Synthesis in MAE412/512 Machines and Mechanism II class at the State University of New York at Buffalo, Mechanical & Aerospace Engineering Department. For more information, visit: http://www.eng.buffalo.edu/~llee3/ http://mechatronics.eng.buffalo.edu/
Fourbar 3 Precision Points Synthesis, Fixed Pivot (2/2) - Video

Fourbar 3 Precision Points Synthesis Solution ( 2 of 2 ) - Video


Fourbar 3 Precision Points Synthesis Solution ( 2 of 2 )
Tutorial Description
The resulting fourbar mechanism from a dyadic synthesis. The task is to synthesize a fourbar mechanism that will pass through three precision points using dyadic synthesis method. The three points are P1(30,5), P2(15,15), P3(5,30). Using the arbitrary free choices we used in the synthesis process, the resulting fourbar mechanism is a crank-rocker (Non-Grashof). This example demonstrate that with this dyadic synthesis method, there is no guarantee on the type of mechanism (Grashof or Non-Grashof) you will get. There is also no guarantee that the mechanism will pass through all 3 points in one configuration (crossed/ uncrossed). The resulting fourbar mechanism is a crank-rocker. This is the simulation where the crank (R2) rotate 360 degree with crossed configuration. In this configuration, the mechanism is able to pass through the remaining two points. The uncrossed configuration pass through the remaining one point - please see part 1 of this video here: "Fourbar 3 Precision Points Synthesis Solution ( 1 of 2 )" http://www.youtube.com/watch?v=SJiYLvzhaow Note: The first version of this video have a wrong title in the simulation - instead of "Fourbar Synthesis: 3 Precision Points", it was "Limiting Position: Fourbar (Crank-Rocker)". This version updated this error. The first version of this simulation can be found here: http://www.youtube.com/watch?v=JXi4UqNTboo This is an example used in the Dyadic Synthesis in MAE412/512 Machines and Mechanism II class at the State University of New York at Buffalo, Mechanical & Aerospace Engineering Department. For more information, visit: http://www.eng.buffalo.edu/~llee3/ http://mechatronics.eng.buffalo.edu/
Fourbar 3 Precision Points Synthesis Solution ( 2 of 2 ) - Video

Friday, December 24, 2010

DJ toolbox for matlab - Video


DJ toolbox for matlab
Tutorial Description
http://simulations.narod.ru/ This sound was generated in matlab. It is synthesis of kick clap and hithat. Then combine them in a loop that played 4 times.
DJ toolbox for matlab - Video

DJ toolbox for matlab - Video


DJ toolbox for matlab
Tutorial Description
http://simulations.narod.ru/ This sound was generated in matlab. It is synthesis of kick clap and hithat. Then combine them in a loop that played 4 times.
DJ toolbox for matlab - Video