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5962-9958502QXC 参数 Datasheet PDF下载

5962-9958502QXC图片预览
型号: 5962-9958502QXC
PDF下载: 下载PDF文件 查看货源
内容描述: [Field Programmable Gate Array, 36000 Gates, 2414-Cell, CMOS, CQFP256, CERAMIC, QFP-256]
分类和应用: 可编程逻辑
文件页数/大小: 217 页 / 1554 K
品牌: ACTEL [ Actel Corporation ]
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MIL-PRF-38535K  
APPENDIX C  
C.3.4.1.3 Wafer acceptance plan. The TRB shall develop and demonstrate a wafer acceptance plan based on electrical and  
radiation measurement of parametric monitors (PMs). PMs shall be used to determine wafer and wafer lot uniformity and latch-  
up immunity (when specified). Further testing of the actual device to table C-I may be required. As an option to actual device  
testing, after initial establishment of device specification and device post-irradiation parameter limits (PIPL), the following  
procedures are presented as examples for the specified radiation environments:  
a. Latch-up: The PM should utilize worst case latch-up structures to determine latch-up holding voltage at maximum  
temperature. The holding voltage shall be greater than the maximum rated voltage.  
b. SEE: The PM should utilize SEE structures such as cross-coupling resistors to memory cells to assure critical  
parameters agree with worst case acceptance criteria.  
c. Dose rate: The PM should utilize structures to ensure rail span collapse does not cause upset or burnout or both and  
that the metallization resistivity, contact resistance, via resistance, epitaxial layer (EPI), substrate resistivity, and  
minority carrier lifetime specifications are met.  
d. Total ionizing dose: The PM should utilize structures such as capacitors and transistors to ensure that critical  
parameters agree with worst case PIPL values.  
C.3.5 On-site validation. In addition to the requirements in 3.4.1.3 the on-site validation shall include RHA test procedures  
and RHA data reduction.  
C.3.5.1 Technology validation. The general requirements for a technology validation are defined in 3.4.1.4. For RHA  
technology the following items shall be added:  
a. Radiation test procedures.  
b. RHA data reduction (e.g., interface state and oxide trapped charge separation).  
C.3.6 RHA packages. Packages used for RHA microcircuits shall be characterized for effects that may influence the  
hardness of packaged product. Characterization shall include impedance of the power and ground distribution network,  
impedance contributions of bond wires and die attach, and the impedance associated with any passive elements included as  
integral parts of the package. Qualification of the same die in different packages shall require demonstration either by test or  
similarity analysis.  
C.3.7 Demonstration vehicles. The demonstration vehicles shall be as described in H.3.4.1.3. Each demonstration vehicle  
shall operate and perform in compliance with the device specification and to the RHACL for a radiation hardened process  
(which shall be submitted to the qualifying activity) and shall be manufactured in packages which have been tested to C.3.6  
herein prior to use for qualification. For a technology that has die as its primary product, the demonstration vehicle shall be  
suitably packaged to allow evaluation of the technology without adversely affecting the outcome of the tests.  
C.3.7.1 Qualification test plan. See H.3.4.2. Note that for RHA, the die traceability shall be to the individual wafer.  
C.3.7.2 Qualification test report. For RHA testing, the pre and post irradiation, electrical parameters and the transient and  
SEE test conditions shall be retained by the manufacturer.  
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