The present disclosure relates to munitions, and in particular, systems and methods for launching munitions.
Munitions such as air to ground missiles (AGM), air to air missiles (AMM), and rockets can be carried and launched from various vehicle types including aircraft vehicles (e.g., fighter jets, helicopters, unmanned air vehicles (UAVs)), land vehicles (e.g., tanks, BMPs), and/or watercraft (e.g., aircraft carrier, submarines, other surface craft and/or undersea craft). Launchers, fixed to the vehicle, may be used to secure the munitions during transportation as well as used to deploy the munitions. Conventional munition launchers include a rail or tube structure for holding the munitions and electromechanical apparatus for fixing the munitions to the launcher. A release mechanism arms the munitions and releases it for launching. For example, the launcher may include power supply equipment that controls the fusing and firing of the munitions.
The next generation of munitions may include further developments in target viewing, seeking, and/or detection (e.g., smart rockets). Individual munitions with target viewing, seeking, and/or detection features may require improvements in launcher technology, including changes in the rail structure, electromechanical apparatus for fixing the munitions to the launcher, and/or the release mechanism. In other applications, munitions and their respective launchers may be used without an associated vehicle, instead being adapted for transportation by an individual and/or alternative forms of transportation.
The present disclosure provides techniques for launching munitions that substantially eliminates or reduces at least some of the disadvantages and problems associated with previous methods and systems.
In some embodiments, the system may include a cover for use with a munitions launcher including a housing with a face. The cover may include a lid, a defined passage through the lid, and an actuator. The lid may be configured to mount to the face of the munitions launcher. The defined passage through the lid may be sized to allow a munition to pass through the lid when launched by the launcher and to substantially cover any other munitions disposed at least partially within the munitions launcher. The actuator may be configured to operate the lid in a manner that moves the defined passage in relation to the face of the munitions launcher. Movement of the defined passage in relation to the face of the munitions launcher may uncover at least one munition that was substantially covered prior to the movement of the defined passage and substantially cover any other munitions disposed at least partially within the munitions launcher.
In other embodiments, a launcher configured to retain a munition during transport by a vehicle is provided. The launcher may comprise a housing, at least two tubes, circuitry, a lid with a defined passage, and an actuator. The housing may have a face through which munitions pass when launched. The at least two tubes may be disposed at least partially within the housing and configured to hold munitions for transportation. The circuitry may provide electrical communication with munitions present within the at least two tubes. The lid may be configured to mount to the face of the munitions launcher. The defined passage through the lid may be sized to allow a munition launched from a first tube to pass through the lid when launched by the launcher and to substantially cover any other munitions disposed in a second tube. The actuator may be configured to operate the lid in a manner that moves the defined passage in relation to the face of the munitions launcher. Movement of the defined passage in relation to the face of the munitions launcher may uncover a munition held in the second tube and substantially cover the first tube.
In some embodiments, a method for launching a munition from a launcher coupled to a vehicle is provided. The system may include a housing, couplings, tubes, a lid, a defined passage through the lid, and an actuator. The housing may have a face through which munitions pass when launched. The housing may be coupled to a vehicle and configured to retain at least two munitions during transport by the vehicle. The couplings may provide mechanical connection between the vehicle and the housing and electrical connectivity between the vehicle and the housing. The couplings may be configured to route electrical signals from the vehicle to the at least two munitions. The tubes may be disposed at least partially within the housing and configured to hold the at least two munitions for transportation. The lid may be configured to mount to the face of the housing. The defined passage through the lid may be sized to allow a munition launched from a first tube to pass through the lid when launched by the launcher and to substantially cover any other munitions disposed in a second tube. The actuator may be configured to operate the lid in a manner that moves the defined passage in relation to the face of the housing. Movement of the defined passage in relation to the face of the munitions launcher may uncovers a munition held in the second tube and substantially cover the first tube.
The systems and methods of the present disclosure may provide an improved system for launching munitions capable of target viewing, seeking, and/or detection (e.g., smart rockets). For example, in contrast to known systems, the teachings of the present disclosure may protect sensors associated with a guidance and control unit housed in the nose of a munition. In known systems, the nose of a munition may be exposed to the exhaust plume of a neighboring munition once launched. The systems and methods of the present disclosure may provide improved performance and/or reliability of munitions, including associated electronic circuitry, sensors, and/or guidance and control functions. Other technical advantages will be readily apparent to one skilled in the art from the following figures, descriptions, and claims. Moreover, while specific advantages have been enumerated above, various embodiments may include all, some or none of the enumerated advantages.
A more complete understanding of the present embodiments and advantages thereof may be acquired by referring to the following description taken in conjunction with the accompanying drawings, in which like reference numbers indicate like features, and wherein:
Preferred embodiments and their advantages are best understood by reference to
Launcher 2 coupled to vehicle 1 may be configured to house munitions 20 (see
Housing 10 may include any device, component, and/or features of launcher 2 configured to enclose various components of launcher 2 and couple to vehicle 1. Housing 10 may be integrally formed as a part of launcher 2 or may be secured to launcher 2. In some embodiments, housing 10 may enclose one or more electrical components disposed therein and may route the appropriate electrical components to each munition 20 in housing 10.
Housing 10 may include one or more electrical transmission wires or cables and/or any other transmission component configured to provide a communication channel between a user (e.g., a pilot or mission control in communication with vehicle 1) and munition 20. In some embodiments, electrical components of housing 10 may transmit signals sent from a user to one or more munitions 20, where the signals provide details about a launching including, for example, GPS coordinates of a target, launch time, etc.
Couplings 12 may include any component, device, and/or feature of launcher 2 and/or housing 10 configured to attach launcher 2 to vehicle 1. Couplings 12 may include electrical connections between vehicle 1 and launcher 2 and/or munitions 20. For example, in some embodiments, couplings 12 may include both mechanical attachment points and electrical connectors. Couplings 12 may be configured to mate with matching and/or corresponding features of vehicle 1, depending on the type of vehicle 1 in use.
Couplings 12 may include one or more conductors that provide electrical communication between vehicle 1 and munition 20. Couplings 12 may include electrical adaptor or interface configured to connect electrical components of vehicle 1 to launcher 2. In some embodiments, couplings 12 may include small computer system interface (SCSI), male or female electrical connectors, and/or other adaptors and/or interfaces.
Tubes 14 may include any component, device, and/or feature of launcher 2 and/or housing 10 configured for use with munitions 20. For example, tubes 14 may provide a housing for individual munitions 20, including protection from physical impact, contact, and/or contamination during storage, transport, and/or launching of neighboring munitions 20. Tubes 14 may be arranged within launcher 2 and/or housing 10 in various stacking patterns. As shown in
Munition 20 may include a nose 22, a body 26, and a propulsion unit 28. Although one particular embodiment is shown in
In some embodiments of munition 20, nose 22 may house electronic components (e.g., sensors) configured to view, search for, and/or detect targets as part of a guidance and control (G&C) unit of munition 20. For example, G&C may include a signal processing unit, a global positioning system (GPS), an inertial measurement units (IMUs) configured to provide needed inertial guidance to the munitions, imaging system, and/or other components. One or more of the components of the G&C unit of munition 20 may be used to precisely guide munition 20 during launch and/or after launch. In other embodiments, the G&C unit may be used to track, view, and/or identify potential targets for munition 20 prior to launch.
Nose 22 may include one or more sensitive electronics components subject to compromised performance when dirty, obscured, and/or impacted. In some embodiments, nose 22 may include a leading surface 24. Leading surface 24 may include different materials than the rest of nose 22, those materials selected to be transparent to one or more sensors in nose 22. For example, leading surface 24 may be transparent to infrared sensors, thermal sensors, visible light, etc.
Body 26 may include any component, device, and/or feature of munition 20 configured to provide structure and/or housing for the various components, including a G&C unit, nose 22, and/or propulsion unit 28. In some embodiments, munition 20 may have a roughly cylindrical shape. For example, body 26 may include a metal cylinder housing propellant for use by propulsion unit 28, electrical conductors for communication between a G&C unit and various components of launcher 2 and/or vehicle 1.
Propulsion unit 28 may include any component, device, and/or feature of munition 20 configured to provide thrust to munition 20 for launching. For example, propulsion unit 28 may include a jet engine, a rocket, and/or other forms of propulsion (e.g., chemical rockets, solid-propellant rockets, liquid-propellant rockets, hybrid rockets, and/or thermal rockets). Some embodiments may include a chemical rocket generating thrust by the combustion of rocket propellant. Some embodiments may generate thrust by expelling propellants that exit propulsion unit 28 at great velocity. The exit of propellant from propulsion unit 28 through exhaust 30 may create an exhaust plume 32. Exhaust plume 32 may include flame, combustion products, noise, unburned propellant, etc.
Referring to
At time of launch, after appropriate signals and/or other information are sent to munition 20, launcher 2 may launch munition 20. As shown in
In contrast, however, the leading surface 24b of munition 20b may be exposed to exhaust plume 32a as munition 20a exits housing 10 of launcher 2. Exhaust plume 32a may deposit dirt, film, unspent propellant, combustion products, and/or heat on leading surface 24b of nose 22b of munition 20b, as well as any other munitions 20. The contents and/or force of the propellant exiting exhaust 30a may detrimentally impact the performance and/or operation of munition 20b and/or other remaining munitions 20.
Cover 50 may include any device, component, and/or feature of launcher 40 configured to define a passage for a munition 20 as it is launched and, at the same time, protect one or more other munitions 20 mounted in launcher 40. For example, cover 50 may include a flat panel generally matching the shape of face 43 of housing 42. Cover 50 may include a hole 52 generally configured to match the shape of tube 46. For example, hole 52 may be a circular opening in cover 50 with a diameter similar to the diameter of a cylindrical tube 46. Although substantially round tubes 46 and hole 52 may be depicted, any shape or configuration may be used as may be appropriate depending on the form and function of munition 20. Hole 52 may also be configured to allow a G&C unit housed in nose 22 of munition 20 to view, seek, and/or detect a target prior to its launch from launcher 40.
Cover 50 may be mounted to housing 42 by any device, component, and/or feature of launcher 40 configured to move cover 50 as necessary to define a passage for the various tubes 46 of launcher 40. For example, as shown in
In one example embodiment, cover 50 may be mounted to launcher 40 by means of an actuator 54 mounted along centerline 48 of housing 42. Actuator 54 may include a rotating motor mounted between the array of tubes 46 in launcher 40. In some embodiments, cover 50 may be mounted to the rotor of an electric motor 54 controlled by the operation of electronic logic and/or circuitry associated with the firing mechanism of launcher 40 and/or munitions 20. In some embodiments, cover 50 may be mounted to housing 40 around the perimeter of face 43 using an appropriate bearing rather than at centerline 48. In some embodiments, cover 50 may be configured to cover a single tube 46 and be individually operated (e.g., one cover per tube).
Although the figures and embodiments disclosed herein have been described with respect to information handling systems, it should be understood that various changes, substitutions and alternations can be made herein without departing from the spirit and scope of the disclosure as illustrated by the following claims.