Sugestões para trabalhos futuros

As potencialidades da tecnologia Selective Laser Melting “exigem” que continue a ser estudada, otimizada, e potencializada para que cada vez mais se transforme numa tecnologia revolucionária que permite criar componentes que mais nenhuma outra tecnologia o faz. Posto isto, sugerem-se os seguintes trabalhos futuros:

 Otimização dos parâmetros para materiais cerâmicos produzidos via SLM;

 Otimização dos parâmetros que permitam a produção de componentes com gradiente de material produzidos via SLM;

 Estudo do comportamento mecânico, metalúrgico, tribológico e biocompatível de amostras porosas com gradiente de material produzidas via SLM.

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158

Anexos

159

ANEXO A – Dados de introdução no SPSS Aço 316L

ANEXO A1 – Dados Densidade Aço 316L SPSS

Amostra P (W) v (mm/s) d (mm) E (J/mm3 Densidade (%) 1 100 1250 0,07 38,1 68,85 2 100 733 0,08 56,84 99,92 3 100 733 0,07 64,96 99,56 4 100 700 0,12 39,68 94,82 5 100 417 0,15 53,29 97,77 6 100 417 0,14 57,1 97,23 7 100 417 0,12 66,61 99,77 8 100 417 0,11 72,67 97,97 9 90 1250 0,07 34,29 53,68 10 90 700 0,12 35,71 91,75 11 90 417 0,14 51,39 99,07 12 90 417 0,12 59,95 99,37 13 90 417 0,11 65,4 99,79 14 90 417 0,1 71,94 96,68 15 90 733 0,07 58,47 98,52 16 80 800 0,09 37,04 80,89 17 80 733 0,07 51,97 99,25 18 80 700 0,09 42,33 95,92 19 80 600 0,09 49,38 98,1 20 80 500 0,09 59,26 96,61 21 80 417 0,12 53,29 97,37 22 80 417 0,11 58,14 99,64 23 80 417 0,1 63,95 99,25 24 80 417 0,08 79,94 99,7 25 80 400 0,09 74,07 99,35 26 70 550 0,11 38,57 72,96 27 70 550 0,1 42,42 94,08 28 70 550 0,09 47,14 97,16 29 70 550 0,08 53,03 92,71 30 70 550 0,07 60,61 98,63 31 70 417 0,11 50,87 97,57 32 70 417 0,1 55,96 99,43 33 70 417 0,08 69,94 99,76 34 70 417 0,07 79,94 98,15 35 60 700 0,09 31,75 62,03 36 60 600 0,09 37,04 47,72 37 60 500 0,09 44,44 50,67 38 60 417 0,1 47,96 95,83 39 60 417 0,08 59,95 97,06 40 60 417 0,07 68,52 97,79 41 60 400 0,09 55,56 84,08 42 60 300 0,09 74,07 99,62 43 50 417 0,07 57,1 96,51 44 50 400 0,11 37,88 49,93 45 50 400 0,1 41,67 70,15 46 50 400 0,09 46,3 77,36 47 50 400 0,08 52,08 63,94 48 50 400 0,07 59,52 84,37

160

ANEXO A2 – Dados Dureza Aço 316L SPSS

Amostra P (W) V (mm/s) D (mm) E (J/mm3 Dureza (HV) 1 100 1250 0,07 38,1 170 2 100 733 0,08 56,84 213 3 100 733 0,07 64,96 220 4 100 700 0,12 39,68 161 5 100 417 0,15 53,29 218 6 100 417 0,14 57,1 214 7 100 417 0,12 66,61 221 8 100 417 0,11 72,67 214 9 90 1250 0,07 34,29 169 10 90 700 0,12 35,71 169 11 90 417 0,14 51,39 209 12 90 417 0,12 59,95 220 13 90 417 0,11 65,4 217 14 90 417 0,1 71,94 227 15 90 733 0,07 58,47 234 16 80 800 0,09 37,04 176 17 80 733 0,07 51,97 204 18 80 700 0,09 42,33 165 19 80 600 0,09 49,38 199 20 80 500 0,09 59,26 212 21 80 417 0,12 53,29 218 22 80 417 0,11 58,14 227 23 80 417 0,1 63,95 219 24 80 417 0,08 79,94 223 25 80 400 0,09 74,07 216 26 70 550 0,11 38,57 171 27 70 550 0,1 42,42 180 28 70 550 0,09 47,14 203 29 70 550 0,08 53,03 197 30 70 550 0,07 60,61 212 31 70 417 0,11 50,87 214 32 70 417 0,1 55,96 211 33 70 417 0,08 69,94 213 34 70 417 0,07 79,94 215 35 60 700 0,09 31,75 152 36 60 600 0,09 37,04 171 37 60 500 0,09 44,44 107 38 60 417 0,1 47,96 189 39 60 417 0,08 59,95 208 40 60 417 0,07 68,52 208 41 60 400 0,09 55,56 189 42 60 300 0,09 74,07 205 43 50 417 0,07 57,1 196 44 50 400 0,11 37,88 185 45 50 400 0,1 41,67 135 46 50 400 0,09 46,3 164 47 50 400 0,08 52,08 123 48 50 400 0,07 59,52 132

Anexos

161

ANEXO A3 – Dados Tensão de rutura Aço 316L SPSS

Amostra P (W) v (mm/s) d (mm) E (J/mm3 Tensão de rutura (MPa)

1 100 1250 0,07 38,1 289 2 100 733 0,08 56,84 512 3 100 733 0,07 64,96 513 4 100 700 0,12 39,68 511 5 100 417 0,15 53,29 523 6 100 417 0,14 57,1 499 7 100 417 0,12 66,61 520 8 100 417 0,11 72,67 502 9 90 1250 0,07 34,29 235 10 90 700 0,12 35,71 506 11 90 417 0,14 51,39 550 12 90 417 0,12 59,95 573 13 90 417 0,11 65,4 566 14 90 417 0,1 71,94 557 15 90 733 0,07 58,47 554 16 80 800 0,09 37,04 490 17 80 733 0,07 51,97 567 18 80 700 0,09 42,33 522 19 80 600 0,09 49,38 592 20 80 500 0,09 59,26 586 21 80 417 0,12 53,29 546 22 80 417 0,11 58,14 555 23 80 417 0,1 63,95 568 24 80 417 0,08 79,94 546 25 80 400 0,09 74,07 548 26 70 550 0,11 38,57 243 27 70 550 0,1 42,42 489 28 70 550 0,09 47,14 544 29 70 550 0,08 53,03 550 30 70 550 0,07 60,61 557 31 70 417 0,11 50,87 548 32 70 417 0,1 55,96 561 33 70 417 0,08 69,94 573 34 70 417 0,07 79,94 539 35 60 700 0,09 31,75 144 36 60 600 0,09 37,04 222 37 60 500 0,09 44,44 362 38 60 417 0,1 47,96 550 39 60 417 0,08 59,95 531 40 60 417 0,07 68,52 519 41 60 400 0,09 55,56 556 42 60 300 0,09 74,07 583 43 50 417 0,07 57,1 520 44 50 400 0,11 37,88 198 45 50 400 0,1 41,67 378 46 50 400 0,09 46,3 368 47 50 400 0,08 52,08 365 48 50 400 0,07 59,52 491

162

ANEXO B – Análise estatística Aço 316L

ANEXO B1 – Tabela com os coeficientes que definem a equação do modelo da Densidade

Anexos

163

164

ANEXO C – Análise estatística Ti6Al4V

ANEXO C1 – Tabela com os coeficientes que definem a equação do modelo da Densidade

Anexos

165

No documento Otimização dos parâmetros de processamento em Laser Melting (páginas 178-193)