Analyzing the Feeding Behaviour of MEX Extruder Heads
Show simple item record
| dc.contributor.advisor |
Sedláček, Tomáš
|
|
| dc.contributor.author |
Modebadze, Aleksi
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|
| dc.date.accessioned |
2025-12-10T23:10:38Z |
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| dc.date.available |
2025-12-10T23:10:38Z |
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| dc.date.issued |
2025-01-02 |
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| dc.identifier |
Elektronický archiv Knihovny UTB |
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| dc.identifier.uri |
http://hdl.handle.net/10563/58752
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| dc.description.abstract |
This thesis analyzes feeding force in extrusion-based additive manufacturing using simulations and experiments. A finite element model in Ansys Polyflow simulated non-Newtonian, non-isothermal flow through an E3D V6 nozzle. The focus was on predicting feeding resistance rather than melt behavior. Two materials ABS and a 316L polymer composite were modeled using shear-dependent viscosity (Cross model) and temperature-dependent properties (Arrhenius law). Simulations ran at three nozzle temperatures with two wall conditions: full adhesion and temperature-dependent slip. Feeding forces were measured with a force sensor on a modified 3D printer. Results show that force depends on temperature, material, and velocity. Simulated trends matched experiments in shape and scale, suggesting the model reflects key influencing factors and can aid further simulation development. |
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| dc.format |
77 |
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| dc.language.iso |
en |
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| dc.publisher |
Univerzita Tomáše Bati ve Zlíně |
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| dc.rights |
Bez omezení |
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| dc.subject |
Additive manufacturing
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cs |
| dc.subject |
MEX extrusion
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cs |
| dc.subject |
Feeding behavior
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cs |
| dc.subject |
ABS
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cs |
| dc.subject |
316L
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cs |
| dc.subject |
Simulation
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cs |
| dc.subject |
Additive manufacturing
|
en |
| dc.subject |
MEX extrusion
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en |
| dc.subject |
Feeding behavior
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en |
| dc.subject |
ABS
|
en |
| dc.subject |
316L
|
en |
| dc.subject |
Simulation
|
en |
| dc.title |
Analyzing the Feeding Behaviour of MEX Extruder Heads |
|
| dc.title.alternative |
Analyzing the Feeding Behaviour of MEX Extruder Heads |
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| dc.type |
diplomová práce |
cs |
| dc.contributor.referee |
Musil, Jan |
|
| dc.date.accepted |
2025-06-03 |
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| dc.description.abstract-translated |
This thesis analyzes feeding force in extrusion-based additive manufacturing using simulations and experiments. A finite element model in Ansys Polyflow simulated non-Newtonian, non-isothermal flow through an E3D V6 nozzle. The focus was on predicting feeding resistance rather than melt behavior. Two materials ABS and a 316L polymer composite were modeled using shear-dependent viscosity (Cross model) and temperature-dependent properties (Arrhenius law). Simulations ran at three nozzle temperatures with two wall conditions: full adhesion and temperature-dependent slip. Feeding forces were measured with a force sensor on a modified 3D printer. Results show that force depends on temperature, material, and velocity. Simulated trends matched experiments in shape and scale, suggesting the model reflects key influencing factors and can aid further simulation development. |
|
| dc.description.department |
Ústav inženýrství polymerů |
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| dc.thesis.degree-discipline |
Polymer Engineering |
cs |
| dc.thesis.degree-discipline |
Polymer Engineering |
en |
| dc.thesis.degree-grantor |
Univerzita Tomáše Bati ve Zlíně. Fakulta technologická |
cs |
| dc.thesis.degree-grantor |
Tomas Bata University in Zlín. Faculty of Technology |
en |
| dc.thesis.degree-name |
Ing. |
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| dc.thesis.degree-program |
Polymer Engineering |
cs |
| dc.thesis.degree-program |
Polymer Engineering |
en |
| dc.identifier.stag |
71596
|
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| dc.date.submitted |
2025-05-09 |
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