Kyle Gene Rowe - Gainesville FL, US Alexander Rejender Webber - Gainesville FL, US
International Classification:
C05G 3/00
US Classification:
71 24
Abstract:
Embodiments of the present disclosure provide for coated particles, compositions including coated particles, methods for making coated particles, methods of reducing dust, and the like.
High Speed 3D Printing System For Wound And Tissue Replacement
- Gainesville FL, US - Atlanta GA, US Kyle Gene ROWE - Gainesville FL, US Tapomoy BHATTACHARJEE - Kolkata, IN Alberto FERNANDEZ-NIEVES - Suwanee GA, US Ya-Wen CHANG - Atlanta GA, US Samantha M. MARQUEZ - New Haven CT, US
A method or apparatus for creating a three-dimensional tissue construct of a desired shape for repair or replacement of a portion of an organism. The method may comprise injecting at least one biomaterial in a three-dimensional pattern into a first material such that the at least one biomaterial is held in the desired shape of the tissue construct by the first material. The apparatus may comprise an injector configured to inject at least one biomaterial in a three-dimensional pattern into a first material such that the at least one biomaterial is held in the desired shape of the tissue construct by the first material. The first material may comprise a yield stress material, which may be a material exhibiting Herschel-Bulkley behavior. The tissue construct may have a smallest feature size of ten micrometers or less.
Additively Manufactured Structure And Method For Making The Same
- Chandler AZ, US Alexis Fiechter - Mesa AZ, US Robert Bedsole - Knoxville TN, US Charles Hill - Topton NC, US Timofei Novikov - Friendsville TN, US Kyle Rowe - Knoxville TN, US
International Classification:
B29C 64/106 B33Y 10/00 B29B 11/06 B29B 13/08
Abstract:
An additively manufactured structure and methods for making and using same. An object can be printed at least partially on an attachment portion. The attachment portion can be bonded to the object upon the printing. The object does not need to be removed from the attachment portion. The need of providing a print surface to allow easy removal of the object is eliminated. The object can be a flat panel and can eliminate the need of printing a large flat layer using additive manufacturing. The attachment portion can be cut prior to the printing, so no trimming needs to be performed after the printing. The attachment portion can be made of a material that has one or more selected properties to expand functionalities of the object. A secondary operation for attaching the attachment portion to the object after the printing can be eliminated.
- Chandler AZ, US Alexis Fiechter - Mesa AZ, US Robert Bedsole - Knoxville TN, US Charles Hill - Topton NC, US Timofei Novikov - Friendsville TN, US Kyle Rowe - Knoxville TN, US
Methods and apparatus for additive manufacturing. In a method for additive manufacturing, a build sheet can be positioned on a print substrate of a printer. An object can be printed on the build sheet. The object can be detached from the build sheet. Advantageously, the build sheet can prevent the object from shifting on the build sheet during printing. Removing the build sheet from the object does not result in significant deformation or bending of the object. Damage to the object can be prevented. The object does not require additional cleaning or finishing for removing any residual or material. The build sheet can be ready for reuse. The build sheet can advantageously have mechanical strength to sustain removal of the build sheet from the object.
- Chandler AZ, US Timofei Novikov - Friendsville TN, US Robert Bedsole - Knoxville TN, US Kyle Rowe - Knoxville TN, US Charles Hill - Chandler AZ, US David Riha - Knoxville TN, US
International Classification:
B29C 64/393 B29C 64/245 G05B 19/4099 G06F 17/50
Abstract:
A system for part location and long-range scanning of large additively manufactured structures and method for using the same. In some embodiments, the method for locating and scanning a three-dimensional (3D) object comprises scanning a first portion of the 3D object from a first position via a long-range scanner on a mobile platform, determining whether additional portions of the 3D object require scanning, moving the long-range scanner via the mobile platform to a second position based on said determination that additional portions of the 3D object require scanning, and aligning each portion of the scanned 3D object.
Additively Manufactured Structure And Method For Making The Same
- Chandler AZ, US Alexis Fiechter - Mesa AZ, US Robert Bedsole - Knoxville TN, US Charles Hill - Topton NC, US Timofei Novikov - Friendsville TN, US Kyle Rowe - Knoxville TN, US
International Classification:
B29C 64/118
Abstract:
An additively manufactured structure and methods for making and using same. In a method for making the structure, a first layer structure can be formed. A second layer structure can be formed on the first layer structure and a support structure. The support structure can be removed from the second layer structure. The second layer structure can include an overhang structure that does not deform or break after the support structure is removed. The support structure can provide support to the second layer structure during printing. Strong bridging capability of the second layer structure is not required. The support structure can be quick and easy to make. The support structure can be reusable and does not add weight to the printed structure. The support structure can be easily removed after completing of printing. Installation of the support structure can be fast without significantly interfering with printing process.
Additive Manufactured Structure And Method For Making The Same
An additive manufactured structure and methods for making and using same. The structure includes a plurality of layers stacked in a stacking direction. The structure further includes at least one reinforcement structure affixed to the layers and extending at least partially in the stacking direction. The reinforcement structure can hold the layers together to stiffen and strengthen the structure. Mechanical strength of the structure in the stacking direction can advantageously be improved. Shape and spatial distribution of the reinforcement structure can be customized and adapted to the geometry of the layers to enhance strengthening effect. The reinforcement structure can be tension free or have a compressive stress induced by a preload applied during manufacturing. The compressive stress can be adjusted dynamically via a sensor. The structure and methods provide, among other things, a novel means for addressing the inherent weaknesses in parts created by large-scale extrusion deposition processes.
University of Florida May 2010 - Apr 2015
Graduate Research Assistant
Sandvik Jun 2009 - Aug 2009
Mechanical Engineering Intern
Lennox Benelux Bv Aug 2007 - Aug 2008
Mechanical Engineering Intern
Education:
University of Florida 2012 - 2015
Doctorates, Doctor of Philosophy, Philosophy, Mechanical Engineering
University of Florida 2010 - 2012
Master of Science, Masters, Mechanical Engineering
University of Florida 2006 - 2010
Bachelors, Bachelor of Science, Mechanical Engineering
Skills:
Heat Transfer Tribology Solidworks Solid Mechanics Friction Wear Matlab Instrumentation Development Mechanical Engineering Labview Materials Science Simulations