TWM462714U - Parachute landing training simulator - Google Patents

Description

Parachute landing training simulator

The present invention is a parachute landing training simulator, which mainly guides the parachute trainee to accelerate the rise inside the air cylinder by the upward airflow generated by the wind input unit inside the air cylinder, and the parachute manner is dropped from the opening provided by the outlet layer to Pre-drop the fixed point to achieve the experience of training real parachute landing.

According to the traditional parachute training method, a fixed tower is used to lift the parachute or rope from the top of the tower to a certain height, and then the fixed rope is attached to the trainee. The trainee exercises the landing mode, but the fixed type The tower is very large in size, in addition to high cost and difficult maintenance, and the operation is complicated by the inefficient use of the unit time. The trainees wear a fully parachute parachute, but the training mode and trajectory are fixed modes, which cannot be naturally experienced. The feeling of opening the umbrella in the air, this training method is not the same as the actual skydiving. When the actual skydiving training, there are still people injured and so on.

In view of the above various situations and problems, the creator has accumulated many years of experience in the experience of wind tunnels and devoted himself to the integration of the above-mentioned conventional structures, and created a parachute landing training simulator that is more in line with the needs of modern users.

The creation has the following beneficial effects: 1. When the skydiving landing training simulator is vertically set by the air duct, the trainee is located in the air cylinder, and the airbag is fully opened by the ascending airflow, and the umbrella body and the air duct are presented at this time. In the state of a piston, the parachute trainer can safely land the parachute trainer in a parabolic manner at the opening to the pre-drop point.

2. The parachute landing training simulator can cooperate with the air hood to guide the ascending airflow, and cooperate with the wind direction indicator to adjust the wind direction by the structure of the opening rotation, which can reduce the power demand and the parachute trainer can land at the pre-drop point.

3. When the air duct of the skydiving landing training simulator is tilted, the same parabolic landing path can be achieved with the aforementioned relatively lower power intensity, and the sliding rail is arranged in the air cylinder, and the trainer is connected by the fixing device to make the air cylinder The parachute trainee kept in the center of the air duct and successfully achieved the training purpose.

Furthermore, the created skydiving training device can be set up at various venues to generate updrafts through the wind input unit, so that it is no longer limited by external environmental factors, and can be flexibly adjusted with the wind direction of the site to make skydiving The trainee's landing point is always in a controllable position, and the parabolic path of the landing has the effect of reducing the power output and preventing the trainee from rising and colliding in the air duct, thereby providing a safe landing and simulating the real skydiving environment. The above description is only a preferred and feasible embodiment of the present invention, and thus does not limit the scope of the patent of the present invention. Therefore, the equivalent structural changes of the present specification and the contents of the drawings are equally included. Within the scope of this creation, it is given to Chen Ming.

1‧‧‧Air tube

11‧‧‧Environmental protection

111‧‧‧ access door

12‧‧‧Exit layer

121‧‧‧ openings

13‧‧‧wind hood

14‧‧‧Rotating orbit

15‧‧‧Wind input unit

2‧‧‧Parachute trainees

21‧‧‧ umbrella body

22‧‧‧ Umbrella

23‧‧‧ Trainees

3‧‧‧ wind vane

4‧‧‧Slide rails

41‧‧‧Sliding rail hook

42‧‧‧Fixed devices

43‧‧‧ Entrance

44‧‧‧Export

A1‧‧‧rope distance

A2‧‧‧People umbrella distance

B1‧‧‧Air tube inner diameter

B2‧‧‧ umbrella distance

C‧‧‧ Opening distance

D‧‧‧ Updraft

E1‧‧‧ horizontal line

E2‧‧‧ vertical line

E3‧‧‧ tilt angle

F‧‧‧Pre-drop

P‧‧‧Parabolic Landing Path

The first picture: a perspective view of the creation structure.

The second picture: a schematic diagram of the parachute trainee of the creation structure.

The third picture: the action diagram of the parachute trainee of the creation structure.

The fourth picture: a schematic action diagram of the creation structure.

Figure 5: Schematic diagram of the ascending airflow of the creative structure.

Figure 6: Schematic diagram of the structure of the creation.

Figure 7: Schematic diagram of the structure of the creation.

Figure 8 is a perspective view of another embodiment of the present authoring structure.

Ninth Diagram: A schematic action diagram of another embodiment of the present authoring structure.

Figure 11 is a perspective view of another embodiment of the present authoring structure.

Figure 11 is a schematic action diagram of another embodiment of the present authoring structure.

Twelfth Diagram: Schematic diagram of the slide rail of another embodiment of the authoring structure.

The following is a detailed example of the structure and function of this creation, with the details of the drawings. After detailed explanation, 俾 increase the understanding of this creation; this creation is a parachute landing training simulator, please refer to the figure shown in the first to seventh figures, the main structure includes a air duct 1, and the air duct 1 is composed of At least one of the outer ring layer 11 and the one of the outlet layers 12 is combined, and an opening 121 is formed at the outlet layer 12. The outlet layer 12 is non-fixed and can be adjusted according to the actual wind direction, and a wind input unit 15 The parachute trainee 2 is guided by the updraft airflow D generated inside the air duct 1 by the wind input unit 15 at an appropriate position on the bottom of the air duct 1, and is parabolically lowered from the opening 121 provided in the outlet layer 12. Set a point.

Referring to the first to fourth figures, the wind input unit 15 can be disposed at least one or more, and is mainly disposed under the height of the umbrella body 21 in the air cylinder 1 , which is generated by the wind input unit 15 . The ascending airflow D is introduced into the air cylinder 1 so that the parachute trainee 2 experiences the realism of the umbrella body 21 being pulled by the umbrella rope 22 in the full state of the open umbrella through the ascending airflow D. At this time, the umbrella body distance B2 and the inner diameter of the air cylinder B1 is approximately equal, so the air cylinder 1 and the umbrella body 21 are in a piston state, and the shape of the air cylinder 1 can be more matched with the umbrella body 21 of different forms (such as a circular umbrella, a square umbrella, etc.). When the updraft D increases the intensity to cause the parachute trainee 2 to rise, the updraft D mostly flows upwardly with the outlet layer 12 to the opening 121, and the air duct 1 is fitted with the air duct 13 to guide the part of the airflow to the air. The opening 121 increases the intensity of the airflow discharged from the opening 121, and causes the parachute trainee 2 to accelerate out of the air cylinder 1; as shown in the third embodiment, the opening 121 is substantially V-shaped, and the V-shaped design opening 121 allows the airflow. The amount of leakage is reduced to a minimum; if the opening 121 is changed to a U-shaped, Y-shaped, etc., although the parachute trainee 2 can pass smoothly, the amount of leakage of the opening 121 due to different designs also changes. The output of the power source is increased, and the overhead cost of the energy is further increased. However, the opening 121 is mainly for achieving the smooth passage of the parachute trainee 2, so the opening 121 is not limited to the fixed design; the umbrella body 21 is subjected to the upward airflow. D influences, and the opening distance C of the exit layer 12 is greater than the human rope distance A1, the parachute trainee 2 can safely land at the pre-fall point F with the parabolic drop path P at the opening 121, thereby eliminating the linear rising airflow intensity. Foot, causing the origin swing or offset falls and other accidents; better sense of the impact of the actual situation to experience G-forces generated when the free fall stage and air parachute. Please refer to the fifth to seventh figure. When the pre-fall point F is changed, the rotating track 14 is rotated to rotate the exit layer 12, so that the opening 121 can be adjusted according to the direction measured by the wind direction indicator 3. The wind vane 3 can be conventional or Electronic selection The air deflector 13 can guide the airflow to be disposed in the same direction as the opening 121, so that the design of the interlocking adjustment; the parachute trainer 2 can open the parabolic path P to a different pre-drop point F in different directions 121. The air guiding hood 13 has a guiding function, so that the originally lost rising airflow D can be guided to the opening 121, and the parachute trainee 2 can be ejected from the opening 121 by a parabola with a better elevation angle, so that the wind input unit 15 can further reduce the power input and achieve the power source. The overhead cost is reduced and the original effect can be maintained.

For another embodiment of the present invention, as shown in the eighth to ninth diagrams, when the air cylinder 1 is disposed at the inclination angle E3, since the upward airflow D is discharged along the inside of the air cylinder 1 to the opening 121, the airflow can be guided to In the oblique direction, when the air hood 13 is further configured to make the guiding airflow effect more obvious and a parabola with a better elevation angle in the air cylinder 1, the wind input unit 15 can reduce more power than the vertical air duct 1 structure. Input, so that the overhead cost of power energy is reduced, and the original effect can be maintained. Referring to FIG. 10 to FIG. 12, when the inclination angle E3 formed by the air cylinder 1 between the horizontal line E1 and the vertical line E2 above the wind input unit 15 is greater than or equal to 45 degrees, the parabolic drop path P is not required. The air hood 13 is matched with the air hood 13 to achieve the optimal elevation angle of the parabola, so that the assembly or disassembly can be judged according to the inclination angle E3; and the air cylinder 1 is internally provided with a slide rail 4, and the slide rail 4 is provided with an inlet 43 and an outlet 44 for aligning with the rail. The hook 41 and the fixing device 42, when the updraft D drives the parachute trainer 2 to move toward the opening 121, the rail hook 41 moves from the inlet 43 to the outlet 44 to disengage the rail 4, which is designed to enable the trainee 23 to When the slanting rises, it is kept at the center of the air cylinder 1 to smoothly leave the air cylinder 1, so that the creation can achieve the purpose of realism and safety training; however, the above is only the creation of the parachute landing training simulator. In the preferred embodiment, if it is not intended to limit the scope of the present invention, the equivalent changes or modifications made by the scope of the patent application should be within the scope of this patent.

1‧‧‧Air tube

11‧‧‧Environmental protection

111‧‧‧ access door

12‧‧‧Exit layer

121‧‧‧ openings

13‧‧‧wind hood

14‧‧‧Rotating orbit

15‧‧‧Wind input unit

D‧‧‧ Updraft

Claims (9)

A skydiving landing training simulator includes: a wind cylinder, wherein the air cylinder is composed of at least one annular sheath and an outlet layer, and an opening is provided at the outlet layer, and the outlet layer is non-fixed The wind input unit can be adjusted according to the actual wind direction, and is disposed at a suitable position on the bottom of the air cylinder; and is characterized in that: the parachute trainee is guided by the upward airflow generated by the wind input unit inside the air cylinder, and the exit layer is The opening is parabolically lowered to the ground. The parachute landing training simulator according to claim 1, wherein the air duct further comprises: an air guiding hood, wherein one end is connected to the upper side of the air cylinder and subjected to the upward airflow, thereby guiding to the other end of the air guiding hood. For example, the skydiving landing training simulator described in claim 1 wherein the shape of the opening is such as to allow the parachute trainee to pass. The skydiving landing training simulator according to claim 1, wherein the outlet layer is further provided with a rotating track fixed to the upper exit layer of the outer ring layer for rotating the outlet layer. The parachute landing training simulator according to claim 1, wherein the inner diameter of the air cylinder is substantially equal to the contour of the umbrella worn by the parachute trainee. For example, the skydiving landing training simulator described in claim 1 is characterized in that the position of the opening is synchronized with the electronic wind vane, and the action of adjusting the opening downwind position is performed by the power. A skydiving landing training simulator includes: a wind cylinder, wherein the air cylinder is composed of at least one annular sheath and an outlet layer, and an opening is provided at the outlet layer, and the outlet layer is non-fixed The wind direction input unit is disposed on the same side according to the actual tilt direction, and the wind input unit is disposed at the bottom of the air cylinder; the air cylinder is set at an inclined angle, and the wind input unit is in the air cylinder. The internally generated updraft directs the parachute trainee to parachute from the opening provided by the exit layer to the ground. The skydiving landing training simulator according to claim 7, wherein the air cylinder further comprises a sliding rail disposed in the air cylinder for connecting the parachute trainee. For example, the skydiving landing training simulator described in claim 7 wherein the position of the air cylinder is synchronized with an electronic wind vane to adjust the downwind position.