IP Library Granted Patent US 11,821,714
Granted Patent B2
US 11,821,714 · App. 16/936,301 · Granted Nov 21, 2023

Multifunctional composite projectiles and methods of manufacturing the same

Inventors: Robert Folaron (Colorado Springs, CO); Howard D. Kent (Waldport, OR); Jennifer Folaron (Colorado Springs, CO)
Assignee: Smart Nanos, LLC
F42B10/48
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Quick Facts
Patent No.
US 11,821,714
App. No.
16/936,301
Granted
Nov 21, 2023
Kind
B2
Abstract

The present invention is directed to composite projectiles and the manufacture thereof for a wide range of purposes and applications through variation of the composite makeup of such composite projectiles. Embodiments of the invention include composite projectiles configured for manufacture using melt-flow manufacturing methods use-cases and composite projectiles having specialized performance for more effective use in specific use-cases.

Claims (38)

1. A composite projectile, comprising:

a leading end, and a trailing end;

at least one drag-inducing element comprising a side-cut into an external surface of a composite projectile;

the at least one drag-inducing element further comprising a trailing aspect, the at least one drag-inducing element being a plurality of drag-inducing elements radially distributed around the leading end of the projectile, the respective side-cuts of each drag-inducing element each comprising a cylindrical form, each cylindrical form being parallel to a path of travel of the composite projectile;

the trailing aspect of the at least one drag-inducing element having a surface which is substantially orthogonal to the path of travel of the composite projectile; and wherein, the composite projectile comprises a mixture comprising (by weight): greater than 0% and less than 10% of a polymer; 85-95% metallic particles, the metallic particles having a maximum dimension of 250 microns; and greater than 0% and up to 5% of carbon particles having a maximum dimension of 50 microns, wherein the mixture is homogeneously incorporated and processed in a melt-flow manufacturing process.

2. A composite projectile, comprising:

a leading end;

a trailing end; and

at least one drag-inducing element comprising a side-cut into an external surface of a composite projectile, the at least one drag-inducing element further comprising a trailing aspect, the trailing aspect of the at least one drag-inducing element having a surface which is substantially orthogonal to the path of travel of the composite projectile, the at least one drag-inducing element comprising a plurality of drag-inducing elements radially distributed around the leading end of the projectile, each surface of the trailing aspects of the drag-inducing elements being a concave form that extends toward the trailing end of the projectile further than an outer boundary of the trailing aspect of the drag-inducing element;

wherein, the composite projectile comprises a mixture comprising (by weight):

greater than 0% and less than 10% of a polymer;

85-95% metallic particles, the metallic particles having a maximum dimension of 250 microns; and

greater than 0% and up to 5% of carbon particles having a maximum dimension of 50 microns, wherein the mixture is homogeneously incorporated and processed in a melt-flow manufacturing process.

3. A composite projectile, comprising:

a leading end;

a trailing end; and

at least one drag-inducing element comprising a side-cut into an external surface of a composite projectile, the at least one drag-inducing element further comprising a trailing aspect, the trailing aspect of the at least one drag-inducing element having a surface which is substantially orthogonal to the path of travel of the composite projectile, the at least one drag-inducing element further comprising a plurality of drag-inducing elements radially distributed around the leading end of the projectile, each surface of the trailing aspect of the drag-inducing elements comprising between 10% and 80% of a frontal area of the composite projectile;

wherein, the composite projectile comprises a mixture comprising (by weight):

greater than 0% and less than 10% of a polymer;

85-95% metallic particles, the metallic particles having a maximum dimension of 250 microns; and

greater than 0% and up to 5% of carbon particles having a maximum dimension of 50 microns, wherein the mixture is homogeneously incorporated and processed in a melt-flow manufacturing process.

4. A composite projectile, comprising:

a leading end;

a trailing end; and

at least one drag-inducing element comprising a side-cut into an external surface of a composite projectile, the at least one drag-inducing element further comprising a trailing aspect, the trailing aspect of the at least one drag-inducing element having a surface which is substantially orthogonal to the path of travel of the composite projectile, the at least one drag-inducing element further comprising a plurality of drag-inducing elements radially distributed around the leading end of the projectile, each surface of the trailing aspect of the drag-inducing elements comprising between 12% and 67% of a frontal area of the composite projectile;

wherein, the composite projectile comprises a mixture comprising (by weight):

greater than 0% and less than 10% of a polymer;

85-95% metallic particles, the metallic particles having a maximum dimension of 250 microns; and

greater than 0% and up to 5% of carbon particles having a maximum dimension of 50 microns,

wherein the mixture is homogeneously incorporated and processed in a melt-flow manufacturing process.

5. A composite projectile, comprising:

a leading end;

a trailing end; and

at least one drag-inducing element comprising a side-cut into an external surface of a composite projectile, the at least one drag-inducing element further comprising a trailing aspect, the trailing aspect of the at least one drag-inducing element having a surface which is substantially orthogonal to the path of travel of the composite projectile, the at least one drag-inducing element further comprising a plurality of drag-inducing elements radially distributed around the leading end of the projectile, each surface of the trailing aspect of the drag-inducing elements comprising between 15% and 60% of a frontal area of the composite projectile;

wherein, the composite projectile comprises a mixture comprising (by weight):

greater than 0% and less than 10% of a polymer;

85-95% metallic particles, the metallic particles having a maximum dimension of 250 microns; and

greater than 0% and up to 5% of carbon particles having a maximum dimension of 50 microns, wherein the mixture is homogeneously incorporated and processed in a melt-flow manufacturing process.

Assignments (2)
CORRECTIVE ASSIGNMENT TO CORRECT THE ATTORNEY DOCKET NUMBER PREVIOUSLY RECORDED AT REEL: 053729 FRAME: 0487. ASSIGNOR(S) HEREBY CONFIRMS THE ASSIGNMENT. Recorded Oct 8, 2020
From: FOLARON, ROBERT; KENT, HOWARD D.; FOLARON, JENNIFER
To: SMART NANOS, LLC.
Reel/Frame 054023/0858 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Sep 10, 2020
From: FOLARON, ROBERT; KENT, HOWARD D.; FOLARON, JENNIFER
To: SMART NANOS, LLC.
Reel/Frame 053729/0487 →
Continuity (3)
Continuation In Part 16162179 · Oct 16, 2018
Provisional Application 62573632 · Oct 17, 2017
Related Publication 20210108903A1 · Apr 15, 2021
Cited By (2)
US 12,460,909 US 12,723,856