MBD Mecanismo de Biela Deslizante

7.1.2.1.- MECANISMOS 14.1.2.1.- MECANISMOS
SLIDER CRANK MECHANISM - MBD

SISTEMAS INOVADORES

The Slider Crank Mechanism, "MBD", designed by EDIBON, is an example of slider-crank mechanism.

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Expansões

ICAI

Software Interativo para Educação Assistida por Computador
MSAC

Sistema Modular de Aquisição e Controle

LABORATÓRIOS

7TV
 Laboratório Mecânico, Automóvel e de Materiais para o Ensino Técnico e Vocacional
7HE
 Laboratório de Mecânica, Automóvel e Materiais para o Ensino Superior

NOTÍCIAS RELACIONADAS

EDIBON and its commitment to European Skills
EDIBON and its commitment to European Skills
At EDIBON, we are committed to strengthening skills as a strategic pillar for the competitiveness and social well-being of the European Union. Proper training not only boosts the economy but also enables individuals to fully participate in society and democracy.
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NEW Basic Mechanics course
NEW Basic Mechanics course
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Descrição Geral

The Slider Crank Mechanism, "MBD", designed by EDIBON, is an example of slider-crank mechanism.

This mechanism is made of aluminum and consists of a rotary element (graduated disc), called crank, connected to a rigid bar, calledconnecting rod. When the crank rotates, the connecting rod moves backwards and forwards.

The input angle is set on the ball bearing mounted crank disc and read on an angle measuring scale. A millimeter scale is fitted for thelinear motion of the connecting rod. The "MBD" unit includes two connecting rods of different length so that they can be compared.

EXERCÍCIOS E PRÁTICAS GUIADAS

EXERCÍCIOS PRÁTICOS GUIADOS INCLUÍDOS NO MANUAL

  1. Demonstration of the action of a simple in-line slider-crank mechanism.
  2. Study of the relationship between the linear displacement of the sliding block (connecting rod) and the angular displacement of the rotary element (crank).
  3. To illustrate graphically and study the effect of changing the length of the connecting rod.
  4. Determination of the velocity and acceleration of the sliding block by graphical differentiation and compared with the values obtained by equations of motion or by velocity and acceleration diagrams.

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