fixed in the middle motor 2. A rotating of the weighting 3 ton (mass) is 52,36 jad/sec two simple beams as shown in Figure 2. Each beam length L= 8m, motor runs at I = 2₁5 x108mmt, and E = 2000, 000 Mpa The and produces a force of TokN at this speed. Assume the beams are massless. (1) Compute the maximum displacement X(steady-state displacement) dynamic load when dumping ratio (§) is 2% due to the (2) Determine the damping ratio (§) required to reduce form (1) to half Pmax=PL3 42 L12 Rotating 42 42 motor Figurez the displacement

fixed in the middle motor 2. A rotating of the weighting 3 ton (mass) is 52,36 jad/sec two simple beams as shown in Figure 2. Each beam length L= 8m, motor runs at I = 2₁5 x108mmt, and E = 2000, 000 Mpa The and produces a force of TokN at this speed. Assume the beams are massless. (1) Compute the maximum displacement X(steady-state displacement) dynamic load when dumping ratio (§) is 2% due to the (2) Determine the damping ratio (§) required to reduce form (1) to half Pmax=PL3 42 L12 Rotating 42 42 motor Figurez the displacement

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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