Knowledge (XXG)

Dye-and-pry

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components, although in some cases it can be done with other components or samples. The component of interest is submerged in a dye material, such as red steel dye, and placed under vacuum. This allows the dye to flow underneath the component and into any cracks or defects. The dye is then dried in
114:. This makes it useful technique to incorporate into a reliability test plan as part of the post test failure inspection. It is also a useful method to inspect or diagnose failures due to manufacturing defects or design flaws. This includes defects such as 95:, as it can inspect a full ball grid array which may consist of hundreds of solder joints. Cross sectioning, on the other hand, may only be able to inspect a single row of solder joints and requires a better initial idea of the failure site. 83:(PCB) and inspected for the presence of dye. Any fracture surface or interface will have dye present, indicating the presence of cracks or open circuits. IPC-TM-650 Method 2.4.53 specifies a process for dye-n-pry. 91:
Dye-n-Pry is a useful failure analysis technique to detect cracking or open circuits in BGA solder joints. This has some practical advantages over other destructive techniques, such as
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an oven (preferably overnight) to prevent smearing during separation, which could lead to false results. The part of interest is mechanically separated from the
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surface finishes or early failures due to excessive board flexure from depaneling or In-circuit test (ICT).
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Dye-n-pry can be useful for detecting several different failure modes. This includes
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penetrant material is used to inspect for interconnect failures in
289:"Best Practices in Avoiding Pad Cratering and Capacitor Cracking" 67: 203:"Solder joint failure analysis - Solid State Technology" 74:. This is mostly commonly done on solder joints for 8: 66:Dye-n-Pry is a useful technique in which a 16:Analysis of electronic circuit connections 54:joint integrity. It is an application of 261:"Optimizing the Board Assembly Process" 158: 87:Use in failure analysis of electronics 7: 14: 132:Failure of electronic components 102:or solder joint fracture from 44:surface mount technology (SMT) 1: 46:components to either perform 394: 240:Resources.dfrsolutions.com 338:Electronics manufacturing 72:integrated circuits (IC) 56:dye penetrant inspection 368:Reliability engineering 373:Semiconductor analysis 358:Nondestructive testing 378:Semiconductor devices 104:mechanical drop/shock 81:printed circuit board 76:ball grid array (BGA) 343:Engineering failures 40:destructive analysis 348:Integrated circuits 328:Digital electronics 213:on 21 November 2017 183:on 1 December 2017 42:technique used on 333:Electronic design 385: 353:Mechanical tests 307: 306: 304: 302: 296:Dfrsolutions.com 293: 285: 279: 278: 276: 274: 265: 257: 251: 250: 248: 246: 237: 229: 223: 222: 220: 218: 209:. Archived from 199: 193: 192: 190: 188: 182: 176:. Archived from 171: 163: 93:cross sectioning 48:failure analysis 393: 392: 388: 387: 386: 384: 383: 382: 363:Product testing 313: 312: 311: 310: 300: 298: 291: 287: 286: 282: 272: 270: 263: 259: 258: 254: 244: 242: 235: 231: 230: 226: 216: 214: 201: 200: 196: 186: 184: 180: 169: 165: 164: 160: 155: 137:Ball grid array 128: 112:thermal cycling 89: 64: 50:or inspect for 17: 12: 11: 5: 391: 389: 381: 380: 375: 370: 365: 360: 355: 350: 345: 340: 335: 330: 325: 315: 314: 309: 308: 280: 252: 224: 194: 157: 156: 154: 151: 150: 149: 147:Solder Fatigue 144: 139: 134: 127: 124: 118:for PCBs with 88: 85: 63: 60: 22:, also called 15: 13: 10: 9: 6: 4: 3: 2: 390: 379: 376: 374: 371: 369: 366: 364: 361: 359: 356: 354: 351: 349: 346: 344: 341: 339: 336: 334: 331: 329: 326: 324: 323:Chip carriers 321: 320: 318: 297: 290: 284: 281: 269: 262: 256: 253: 241: 234: 228: 225: 212: 208: 207:Electroiq.com 204: 198: 195: 179: 175: 168: 162: 159: 152: 148: 145: 143: 140: 138: 135: 133: 130: 129: 125: 123: 121: 117: 113: 109: 108:thermal shock 105: 101: 100:pad cratering 96: 94: 86: 84: 82: 77: 73: 69: 61: 59: 57: 53: 49: 45: 41: 37: 36:Dye Penetrant 33: 29: 25: 21: 299:. Retrieved 295: 283: 271:. Retrieved 267: 255: 243:. Retrieved 239: 227: 215:. Retrieved 211:the original 206: 197: 185:. Retrieved 178:the original 173: 161: 97: 90: 65: 35: 32:Dye Staining 31: 28:Dye and Pull 27: 23: 19: 18: 301:22 November 273:22 November 245:22 November 217:22 November 187:22 November 24:Dye And Pry 317:Categories 153:References 116:black pad 20:Dye-n-Pry 268:Smta.org 126:See also 174:Ipc.org 38:, is a 142:Solder 62:Method 52:solder 292:(PDF) 264:(PDF) 236:(PDF) 181:(PDF) 170:(PDF) 110:, or 34:, or 303:2017 275:2017 247:2017 219:2017 189:2017 120:ENIG 68:dye 319:: 294:. 266:. 238:. 205:. 172:. 106:, 58:. 30:, 26:, 305:. 277:. 249:. 221:. 191:.

Index

destructive analysis
surface mount technology (SMT)
failure analysis
solder
dye penetrant inspection
dye
integrated circuits (IC)
ball grid array (BGA)
printed circuit board
cross sectioning
pad cratering
mechanical drop/shock
thermal shock
thermal cycling
black pad
ENIG
Failure of electronic components
Ball grid array
Solder
Solder Fatigue
"IPC-TM-650 Method 2.4.53. Dye and Pull Test Method (Formerly Known as Dye and Pull)"
the original
"Solder joint failure analysis - Solid State Technology"
the original
"Effective Reliability Test Plan Development using Physics of Failure"
"Optimizing the Board Assembly Process"
"Best Practices in Avoiding Pad Cratering and Capacitor Cracking"
Categories
Chip carriers
Digital electronics

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