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IC-JXMQFP52 参数 Datasheet PDF下载

IC-JXMQFP52图片预览
型号: IC-JXMQFP52
PDF下载: 下载PDF文件 查看货源
内容描述: 16倍, 24 V与μC接口高侧驱动器 [16-FOLD 24 V HIGH-SIDE DRIVER WITH μC INTERFACE]
分类和应用: 驱动器
文件页数/大小: 36 页 / 603 K
品牌: ICHAUS [ IC-HAUS GMBH ]
 浏览型号IC-JXMQFP52的Datasheet PDF文件第3页浏览型号IC-JXMQFP52的Datasheet PDF文件第4页浏览型号IC-JXMQFP52的Datasheet PDF文件第5页浏览型号IC-JXMQFP52的Datasheet PDF文件第6页浏览型号IC-JXMQFP52的Datasheet PDF文件第8页浏览型号IC-JXMQFP52的Datasheet PDF文件第9页浏览型号IC-JXMQFP52的Datasheet PDF文件第10页浏览型号IC-JXMQFP52的Datasheet PDF文件第11页  
iC-JX  
16-FOLD 24 V HIGH-SIDE DRIVER WITH µC INTERFACE  
Rev C1, Page 7/36  
ELECTRICAL CHARACTERISTICS  
Operating conditions: VCC = VDD = 3 ... 5.5 V, VBy = 12 ... 36 V, GNDA = GNDD = 0 V, RSET = 10 k±1% . All inputs on defined logic  
states (high or low), Tj = -40 ... 125 °C unless otherwise stated. Functionality and parameters beyond operating conditions (for example  
w.r. to independent voltage supplies) are to be verified within the individual application by FMEA methods.  
Item Symbol  
No.  
Parameter  
Conditions  
Unit  
Min.  
Typ.  
Max.  
Bias and Low Voltage Detection  
501 VCCon,  
VDDon  
Turn-on Threshold VCC, VDD  
(Power-on release)  
2.4  
2.3  
60  
1
2.6  
2.5  
100  
2.9  
2.8  
140  
V
V
502 VCCoff,  
VDDoff  
Undervoltage Threshold VCC,  
VDD (Power-down reset)  
503 VCChys,  
VDDhys  
Hysteresis  
VCChys = VCCon - VCCoff,  
VDDhys = VDDon - VDDoff  
mV  
µs  
µs  
V
504 tmin()lv  
Power Down Time required for  
low voltage detection  
VCC = 0.8 V .. VCCoff,  
VDD = 0.8 V .. VDDoff  
505 tpoff  
Propagation Delay until Reset  
after Low Voltage at VCC, VDD  
12  
506 Vrefad  
Reference Voltage for A/D-  
Converter  
2.6  
2.75  
3.0  
A/D-Converter  
701 VR1  
ADC - Measurement Range 1  
ADC - Measurement Range 2  
ADC - Measurement Range 3  
ADC - Measurement Range 4  
Current and voltage measurement High at IO,  
SELAD = ’0b001’ resp. ’0b010’, EME = 0  
VBy -  
0.6 V  
VBy  
VBy  
0.6  
5
V
V
V
V
702 VR2  
703 VR3  
704 VR4  
Voltage measurement High at IO,  
SELAD = ’0b010’, EME = 1  
VBy -  
5V  
Voltage measurement Low at IO, SELAD =  
’0b100’, EME = 0  
0
Voltage measurement Low at IO SELAD =  
’0b100’; VB or VBG measurement SELAD =  
’0b101’ or. ’0b110’, EME = 1  
0
705 VR5  
ADC - Measurement Range 5  
Total voltage measurement range SELAD =  
’0b011’  
0
VB  
V
706 VR6  
707 Vbitlo  
708 Vbithi  
ADC - Measurement Range 6  
Bit-Equivalent of voltage  
Bit-Equivalent of voltage  
Temperature measurement SELAD = ’0b111’  
-40  
125  
°C  
mV  
mV  
EME = 0  
EME = 1  
0.6  
5.4  
709  
Dtemp1  
Digital value of temperature  
measurement 1  
SVREF = 0, TEMP = (774-Dtemp1)/TKtemp1  
Tj = -40°C  
Tj = 27°C  
Tj = 95°C  
826  
670  
519  
863  
712  
563  
900  
755  
608  
710 TKtemp1 Temperature coefficient 1  
SVREF = 0  
2.16  
2.22  
2.27  
1/°C  
711  
Dtemp2  
Digital value of temperature  
measurement 2  
SVREF = 1, V(VREF) = 2.5V ±0.2%  
TEMP = (861-Dtemp2)/TKtemp2  
Tj = -40°C  
931  
761  
585  
957  
800  
632  
984  
839  
679  
Tj = 27°C  
Tj = 95°C  
712 TKtemp2 Temperature coefficient 2  
SVREF = 1, V(VREF) = 2.5V ±0.2%  
2.26  
0.9  
2.41  
1.25  
2.55  
1.5  
1/°C  
MHz  
µs  
713 fICLK  
714 tSAR1  
Internal oscillating frequency  
Conversion time SAR-converter 1 Current measurement  
SELAD = ’0b001’  
154 /  
fICLK  
715 tSAR2  
716 tSAR3  
Conversion time SAR-converter 2 Voltage measurement Low resp. High;  
SELAD = ’0b010’ resp. ’0b100’  
90 /  
fICLK  
µs  
µs  
Conversion time SAR-converter 3 Total voltage measurement SELAD = ’0b011’;  
VBy voltage measurement SELAD = ’0b101’;  
26 /  
fICLK  
VBG voltage measurement SELAD = ’0b110’;  
temperature measurement SELAD = ’0b111’  
717 DVBG,1  
718 DVBY,1  
Digital value of VBG measure-  
ment (external reference)  
SELAD = ’0b110’, SVREF = 1  
480  
940  
520  
990  
560  
Digital value of VBy measure-  
ment (external reference)  
SVREF = 1, V(VBy) = 36 V, SELAD = ’0b101’  
1022  
719  
DRVBY,1  
Relative value of VBy  
measurement  
(external reference)  
SVREF = 1; DRVBY,1 = DVBY,1(V) / DVBY,1  
V(VBy) = 24 V, SELAD = ’0b101’  
V(VBy) = 12 V, SELAD = ’0b101’  
64.6  
31.3  
66.6  
33.3  
68.6  
35.2  
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