The angular velocity of link AB is given as AB = 2 rad/s (CCW)
linear velocity of link AB (direction is perpendicular to link AB) , VAB = (AB)* AB = 2 * 16 = 100.531 inch/s
here, the unknowns are the angular velocity of link PC and the linear velocity of slider 4
The unknowns can be determined by velocity analysis
The figure of mechanism along with velocity triangles are shown below
Note here, Capital letters denote the mechanism and small letter alphabets represent respective velocities.
The velocity diagram is drawn by dropping perpendicular lines from links AB and CP ( as velocity is perpendicular to links) and completing the triangle by drawing a line from B parallel to link CP( this line represents the velocity of slider 4 which moves along link CP)
from the velocity triangle,
VPC/sin(80.94) = VAB/sin(90) = Vslider/sin(9.06)
we got, VAB = 100.531 inches/s
therefore, VPC = VAB*sin(80.94)/sin(90) = 100.531*sin(80.94) = 99.2767 inches/s
Vslider = VAB*sin(9.06)/sin(90) = 15.8305 inches/s
we know, VPC = (PC)* PC , where PC is the angular velocity of link PC and (PC) is the length of link PC
from this equation, PC = VPC/(PC) = 99.267/12.6944 = 7.82 rad/s
hence we get the unknowns, PC= 7.82 rad/s and Vslider = 15.8305 inches/s
For the figure shown below, link 2 moves at a constant angular v loop closure is shown in the figure below elocity of 2π Rad/sec cew. 2. The following information is also known about the linkages...
3. Link 2 (AB) of the slider crank inversion shown in Figure 3 is rotating at a constant 2 11.00k(rad/s). Determine the angular velocity of link 4 (DC) at the instant shown in the figure. Hints: The angle between links 3 and 4 is fized so they have the same angular velocity. Consider Cs as point on Link 3 sliding through the bearing on link 4. (100 points) C3 90° A = (0,0). Figure 3: Slider crank inversion. (110.09,0) cm....