this invention is a toy version of an improved design for a space shuttle . the most basic embodiment of the toy of this invention is shown in fig1 , 2 , & amp ; 3 . in this embodiment it consists of a seven person cabin 20 , an eight inch fuselage 30 , and a seven inch inner fuselage 40 . the wings 63 and tail rudder 62 and rocket engines 80 are integral parts of the fuselage 30 . in fig1 the toy is shown compact as it would be on the launch pad and during reentry . the cabin 20 is joined to the eight inch fuselage 30 at the joint 14 . the inner fuselage 40 is inside of the eight inch fuselage 30 . it protrudes slightly out of the fuselage 30 and is attached to the inside of the back of the cabin 20 by means of three protrusions 91 fitting into corresponding concavities 92 so that it will remain attached when the eight inch fuselage 30 is pulled away from the cabin . the protrusions 91 are shown in fig2 and the concavities 92 are shown in fig1 , and both are described in paragraph 0054 below . fig2 shows the seven inch inner fuselage 40 beginning to telescope out of the eight inch fuselage 30 as a real shuttle would do when it gets into outer space . the fitting ring 105 is now visible as is the larger protrusion 93 on the left side . these fit inside of the back of the cabin 20 and hold it in place until the cabin and fuselage are pulled apart . they are described in detail in paragraph 0053 . the cargo bay doors 50 are a part of the inner fuselage 40 to protect the outer fuselage from the structural problems they would pose to it and so future missions can use a different inner fuselage when cargo bay doors are not necessary . fig3 shows the toy with the inner fuselage 40 having telescoped fully from the outer fuselage 30 and still attached to the back of the cabin 20 the way a real space shuttle would be in outer space . this method of making a space shuttle also provides windows 52 which are not present on the current u . s . space shuttle . the inner fuselage 40 is the color of aluminum because in the real version the inner fuselage is not designed for the stress of reentry . by expanding in this way a space shuttle can create its own empty space for astronauts to live and work in without the expense of carrying that empty space all of the way from the surface of the earth . different inner fuselages of different lengths can be used to customize the size of the shuttle for each mission , or different inner fuselages with different equipment can be used , all with the same cabin and outer fuselage . this design also makes a safer space shuttle for reentry because if the fuselage or wings are damaged the cabin can detach and deploy parachutes and make a splash down . the toy might have no more pieces than are shown in fig1 , 2 , & amp ; 3 , or it can have any number of additional interchangeable pieces that can be included in a larger set or collected individually over time . fig4 shows how the joint 14 allows the shuttle shown in fig1 , 2 , and 3 , or any other configuration of this invention to be extended by adding a fuselage extender , in this case a one and a half inch fuselage 31 . the one and a half inch fuselage 31 uses the same fitting ring 105 as most other outer fuselages and tail sections in this invention at its front end and the inside of its back end is the same as the inside of the cabin 20 shown in fig1 so it can accept the front of the next fuselage or tail section . the four inch fuselage 32 in fig1 and the six inch fuselage 33 in fig8 have the same attributes and can be used in the same way . this configuration can use the same seven inch inner fuselage 40 as the configuration shown in fig1 , 2 , and 3 or it can have a longer or shorter inner fuselage or no inner fuselage at all . fig5 shows how the telescoping inner fuselage can be used to make a weaponized space shuttle . when the inner fuselage 45 is extended the side doors 55 open and have missiles 57 already attached . fig6 shows a space shuttle with a stairway 58 that folds up and acts as a door in the side of the fuselage 46 . other specialized inner fuselages might include a lunar landing fuselage that comes out completely and detaches from the cabin , allowing the cabin to rejoin the outer fuselage for their return to earth , or an inner fuselage with rocket engines to travel to a different place . fig7 , 8 , 9 , and 10 show how different cabins 20 and 21 and a separate tail section 60 can be used to make different configurations of this toy . fig1 uses a three person cabin 21 . fig1 , 12 , and 13 show how a toy space station can be configured using this invention . fig1 shows the cabin 20 and tail section 60 attached to the space station 70 as a real shuttle would be when attached to its rockets on a launch pad . fig1 shows the cabin 20 and tail section 60 detaching from the space station 70 as a real shuttle would do in outer space . the inner fuselages 44 can be seen but have not yet started to come out . the space station 70 has rectangular windows 54 . fig1 shows the space station 70 in orbit over the earth and the inner fuselages 44 are fully extended . the cabin 20 and the tail section 60 have come together and are headed back to earth . fig1 shows alternative methods of making the toy of this invention expandable . it is a fold out fuselage 35 that has fold out sides 65 and a telescoping top 53 . the fold out sides 65 have canvas 56 to create extra room when the sides 65 are opened . the fold out sides 65 are only half open in this picture . the fuselage 35 shown here needs a tail section 60 added but another version can be made with an integrated tail section . in either case an inner fuselage can be added for more expandability . these methods of expandability can also be employed by an inner fuselage after it slides out . fig1 shows a toy mini space shuttle that models what would be about a four meter long space shuttle in real life , or about six meters when fully extended . it has a two person mini cabin 22 , a mini fuselage 36 , and a mini inner fuselage 49 , and it uses a mini fitting ring 106 in the same way that the other cabins , tail sections , and fuselages of this invention use the normal fitting ring 105 , which will be described below . fig1 shows a top view of the cabin 20 to show how the sectional view in fig1 is made . fig1 , 20 , 21 , and 22 show one method for fitting the pieces of this invention together . fig1 is a side sectional view of the cabin 20 that shows the parts that fit the various fuselages and tail sections of this invention . the back edge 100 of the cabin , which is also present on many of the fuselages butts into the front edge 104 of the fuselage or tail section that is being attached , creating the visible line of the joint 14 where the parts come together . the fitting ring 105 which is on the front end of the fuselage or tail section goes into the back of the cabin and the larger protrusions 93 which are on the sides of the fitting ring 105 fit into the larger concavities 94 . the larger concavities 94 and the larger protrusions 93 are both shaped like part of a cylinder , one convex and the other concave . the larger concavities 94 are designed and placed so they will hold the front edge 104 of the fuselage tight against the back edge 100 of the cabin . the larger concavities 94 are slightly longer than the larger protrusions 93 to avoid the need for a perfect fit . the inner bevel 101 around the back edge 100 of the cabin helps to guide the fitting ring 105 into place . the larger protrusions 93 can be seen in top view on each side of the fitting ring 105 in fig2 . fig2 shows the protrusions 91 that fit into the concavities 92 that are shown in fig1 . there are three protrusions 91 spaced about evenly around the outside of the five inch inner fuselage 41 near each end as with any other inner fuselage of this invention . the protrusions 91 and the concavities 92 are both shaped like part of a cylinder , one convex and the other concave . the concavities 92 are designed and placed to hold the inner fuselage tightly against the back wall 96 of the cabin to prevent any wobbling when the outer fuselage is pulled away . the second inner bevel 102 helps to guide the inner fuselage into place , and reduces the size of the inside of the cabin to fit the inner fuselage . when the outer fuselage is attached to the back of the cabin there is still space for the protrusions 91 between the front of the fitting ring 105 and the second inner bevel 102 so the inner fuselage does not have to be stuck at all , but can be removed freely as would be desirable in the case of the lunar landing inner fuselage described in paragraph 0042 or the space station shown in fig1 , 12 , and 13 . the protrusions 91 also prevent the inner fuselage from slipping completely into the outer fuselage by bumping into the fitting ring 105 , and they prevent the inner fuselage from slipping completely out of the outer fuselage by the same means . the port hole 98 is a hole in the back wall 96 for astronauts to go through . the toy can be made of any ordinary toy making plastic , preferably plastic that can be colored easily and which will accept decals , paint , or ink , and which is tough and durable because it is intended to be an action toy . harder plastics such as polystyrene are also suitable for versions of the toy that are intended for display . it is shown in white but it can be made in any color desired , and may also have stickers , paint , or ink added for adornment such as the american flag , racing stripes , and the name of the space ship e . g . uss enterprise . it can also have electric lights or any other additional gadgets that are desirable .
an expandable toy space shuttle that employs a detachable cabin which allows a telescoping inner fuselage to extend from inside of the main fuselage thereby doubling the interior volume of the toy space shuttle . the toy can be customized to individual missions by the use of different inner fuselages of different sizes , different cabins , and different main fuselages all of which fit together and work with each other .