Figure(a) depicts a head-on view of a 1000 kg mass private airplane flying in a state of equilibrium. The force labeled P represents the lift force acting on each wing, and W represents the gravitational weight of the craft. Fig. (b) depicts a more detailed view of the wing ABCD showing its physical dimensions and the assumed location of the lift force P. The wing has a mass of 200 kg and a center of gravity at point B. The wing is attached to the fuselage at point A, which can be modeled as a pin connection. The wing is supported by a pin-connected strut BE whose mass may be neglected. (a) Sketch a free-body diagram of the forces acting on the wing depicted in Fig (b). Compute the vertical lift force P. (c) Compute the forces supported by the strut BE and the pin at A. Hint: You may model the wing as a two-dimensional structure where all forces lie in the same plane. (a) W y (b) 1.4 m + 2m B с 0.6m 2.4 m

Elements Of Electromagnetics
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**Educational Content: Analysis of Forces on an Airplane Wing**

The illustration consists of two figures detailing the forces acting on a private airplane wing.

**Figure (a):**
- This diagram shows a frontal view of a private airplane with a mass of 1000 kg, stabilized in equilibrium during flight.
- The force labeled \( P \) represents the lift force exerted on each wing of the airplane.
- The force labeled \( W \) denotes the gravitational weight of the aircraft, acting downward.

**Figure (b):**
- This side view provides a detailed look at the airplane's wing, referred to as \( ABCD \), along with its physical dimensions and the presumed location for the lift force \( P \).
- The mass of the wing is 200 kg, with its center of gravity located at point \( B \).
- The wing is attached to the fuselage at point \( A \), which can be modeled as a pin connection.
- A pin-connected strut \( BE \) supports the wing, and its mass can be neglected.

**Tasks:**
1. Sketch a free-body diagram representing the forces acting on the wing in Figure (b).
2. Calculate the vertical lift force \( P \).
3. Determine the forces supported by the strut \( BE \) and the pin at point \( A \).

**Hint:**
Model the wing as a two-dimensional structure where all forces are assumed to lie within the same plane.

**Dimensional Details:**
- Distance between \( A \) and \( B \): 1.4 meters.
- Overall span from \( A \) to \( D \): 3.8 meters.
- Distance from \( B \) to \( C \): 0.6 meters and from \( C \) to \( D \): 2.4 meters.
- A supporting strut extends from \( B \) to a point \( E \) below \( A \).

By analyzing the provided diagrams and given forces, students can apply principles of mechanics to solve for the necessary forces ensuring the wing's equilibrium in flight.
Transcribed Image Text:**Educational Content: Analysis of Forces on an Airplane Wing** The illustration consists of two figures detailing the forces acting on a private airplane wing. **Figure (a):** - This diagram shows a frontal view of a private airplane with a mass of 1000 kg, stabilized in equilibrium during flight. - The force labeled \( P \) represents the lift force exerted on each wing of the airplane. - The force labeled \( W \) denotes the gravitational weight of the aircraft, acting downward. **Figure (b):** - This side view provides a detailed look at the airplane's wing, referred to as \( ABCD \), along with its physical dimensions and the presumed location for the lift force \( P \). - The mass of the wing is 200 kg, with its center of gravity located at point \( B \). - The wing is attached to the fuselage at point \( A \), which can be modeled as a pin connection. - A pin-connected strut \( BE \) supports the wing, and its mass can be neglected. **Tasks:** 1. Sketch a free-body diagram representing the forces acting on the wing in Figure (b). 2. Calculate the vertical lift force \( P \). 3. Determine the forces supported by the strut \( BE \) and the pin at point \( A \). **Hint:** Model the wing as a two-dimensional structure where all forces are assumed to lie within the same plane. **Dimensional Details:** - Distance between \( A \) and \( B \): 1.4 meters. - Overall span from \( A \) to \( D \): 3.8 meters. - Distance from \( B \) to \( C \): 0.6 meters and from \( C \) to \( D \): 2.4 meters. - A supporting strut extends from \( B \) to a point \( E \) below \( A \). By analyzing the provided diagrams and given forces, students can apply principles of mechanics to solve for the necessary forces ensuring the wing's equilibrium in flight.
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