Ignition characteristics of semiconductor bridge based on lead styphnate and lead azide charges under capacitor discharge conditions

Hanjian Li, Qing Zhou, Hui Ren*, Qingjie Jiao, Shujing Du, Guili Yang

*Corresponding author for this work

Research output: Contribution to journalArticlepeer-review

17 Citations (Scopus)

Abstract

Eight different sizes of semiconductor bridges and three kinds of charges, namely normal-lead styphnate (N-LS), lead azide (LA) and the double stacked charge (N-LS/LA), were selected to study the ignition characteristics of semiconductor bridge igniters under capacitor discharge conditions. The Neyer D-optimal Method was utilized in the experiments to explore the critical ignition voltages of the igniters. The relationships among the ignition voltage, current, resistance, and ignition time as well as other parameters of these igniters were analyzed. The results obtained were as follows: 1) The critical ignition voltage is positively proportional with the bridge area for the igniters possessing identical charge and ignition mechanism. 2) The ignition time and critical ignition voltage are related to the charges. The relationship of ignition time and charge following the short to long ranking is LA, N-LS/LA, and N-LS, but the relationship of critical ignition voltage and charge follows the opposite ranking. 3) The electroexploding ignition mechanism brings about shorter ignition time than electrothermal ignition mechanism for the igniters with identical charge, but the electroexploding ignition mechanism is accompanied by higher critical ignition voltage than the other.

Original languageEnglish
Pages (from-to)27-33
Number of pages7
JournalSensors and Actuators A: Physical
Volume241
DOIs
Publication statusPublished - 15 Apr 2016

Keywords

  • Critical ignition voltage
  • Ignition mechanism
  • Lead azide
  • Normal lead styphnate
  • Semiconductor bridge

Fingerprint

Dive into the research topics of 'Ignition characteristics of semiconductor bridge based on lead styphnate and lead azide charges under capacitor discharge conditions'. Together they form a unique fingerprint.

Cite this