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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 ]
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iC-JX
16-FOLD 24 V HIGH-SIDE DRIVER WITH µC INTERFACE
Rev C1, Page 8/36
ELECTRICAL CHARACTERISTICS
Operating conditions: VCC = VDD = 3 ... 5.5 V, VBy = 12 ... 36 V, GNDA = GNDD = 0 V, RSET = 10 kΩ ±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
No.
720
721
Symbol
D1
IO,1
DR1
IO,1
Parameter
Digital value using VR1 range
(external reference)
Digital relative value using VR1
range
(external reference)
Conditions
Min.
SELAD = ’0b010’, EME = ’0b0’, SVREF = 1,
V(IOx) = V(VBy)
0.6V
SELAD = ’0b010’, EME = ’0b0’, SVREF = 1;
DR1
IO,1
= D1
IO,1
(V) / D1
IO,1
;
V(IOx) = V(VBy)
0.3 V
V(IOx) = V(VBy)
0.1 V
840
Typ.
900
Max.
1022
Unit
46
12
870
49
15
930
52
18
1022
%
%
722
723
D2
IO,1
DR2
IO,1
Digital absolute value using VR2 SELAD = ’0b010’, EME = ’0b1’, SVREF = 1,
range (external reference)
V(IOx) = V(VBy)
5.0 V
Digital relative value using VR2
range (external reference)
SELAD = ’0b010’, EME = ’0b1’, SVREF = 1;
DR2
IO,1
= D2
IO,1
(V) / D2
IO,1
;
V(IOx) = V(VBy)
2.5 V
V(IOx) = V(VBy)
0.6 V
48
9.5
880
50
11.5
940
52
14
1022
%
%
724
725
D3
IO,1
DR3
IO,1
Digital absolute value using VR3 SELAD = ’0b100’, EME = ’0b0’, SVREF = 1,
range (external reference)
V(IOx) = 0.6 V;
Digital relative value using VR3
range (external reference)
SELAD = ’0b100’, EME = ’0b0’, SVREF = 1;
DR3
IO,1
= D3
IO,1
(V) / D3
IO,1
;
V(IOx) = 0.3 V
V(IOx) = 0.1 V
48
14.5
870
50
16
930
52
18.5
1022
%
%
726
727
D4
IO,1
DR4
IO,1
Digital absolute value using VR4 SELAD = ’0b100’, EME = ’0b1’, SVREF = 1;
range (external reference)
V(IOx) = 5.0V
Digital relative value using VR4
range (external reference)
SELAD = ’0b100’, EME = ’0b1’, SVREF = 1;
DR4
IO,1
= D4
IO,1
(V) / D4
IO,1
V(IOx) = 2.5V
V(IOx) = 0.6V
48
9.5
930
50
11.5
980
52
14
1022
%
%
728
729
D5
IO,1
DR5
IO,1
Digital absolute value using VR5 SELAD = ’0b011’, SVREF = 1, V(IOx) = 36.0V
range (external reference)
Digital relative value using VR5
range (external reference)
SELAD = ’0b011’, SVREF = 1;
DR5
IO,1
= D5
IO,1
(V) / D5
IO,1
V(IOx) = 24.0V
V(IOx) = 5.0V
64.6
11.8
700
66.6
13.8
800
68.6
15.8
1022
%
%
730
731
DC
IO,1
DRC
IO,1
Digital value of current measure- SELAD = ’0b001’,SVREF = 1, I(IOx) = 150mA
ment (external reference)
Relative value of current
measurement (external
reference)
Digital value of VBG measure-
ment (internal reference)
Digital value of VBG measure-
ment (internal reference)
Relative value using VR1 range
(internal reference)
SELAD = ’0b001’, SVREF = 1;
DRC
IO,1
= DC
IO,1
(I) / DC
IO,1
I(IOx) = 75mA
I(IOx) = 15mA
SELAD = ’0b110’, SVREF = 0
SVREF = 0, V(VBy) = 36V, SELAD = ’0b101’
SVREF = 0, SELAD = ’0b101;
DR
VBY,0
= D
VBY,0
(V) / D
VBY,0
V(VBy) = 24V
V(VBy) = 12V
SELAD = ’0b010’, EME = ’0b0’, SVREF = 0,
V(IOx) = V(VBy) - 0.6V
SELAD = ’0b010’, EME = ’0b0’, SVREF = 0;
DR1
IO,0
= D1
IO,0
(V) / D1
IO,0
V(IOx) = V(VBy) - 0.3V
V(IOx) = V(VBy) - 0.1V
SELAD = ’0b010’, EME = ’0b1’, SVREF = 0,
V(IOx) = V(VBy) - 5.0V
SELAD = ’0b010’, EME = ’0b1’, SVREF = 0;
DR2
IO,0
= D2
IO,0
(V) / D2
IO,0
V(IOx) = V(VBy) - 2.5V
V(IOx) = V(VBy) - 0.6V
SELAD = ’0b100’, EME = ’0b0’, SVREF = 0,
V(IOx) = 0.6V
48
6.2
435
830
51
9.2
460
880
54
12.2
485
1022
%
%
732
733
734
D
VBg,0
D
VBY,0
DR
VBY,0
64.6
31.3
760
66.6
33.3
820
68.6
35.3
1022
%
%
735
736
D1
IO,0
DR1
IO,0
Digital value using VR1 range
(internal reference)
Relative value using VR1 range
(internal reference)
46
12
790
49
15
840
52
18
1022
%
%
737
738
D2
IO,0
DR2
IO,0
Digital value using VR2 range
(internal reference)
Relative value using VR2 range
(internal reference)
48
9.5
790
50
11.5
840
52
14
1022
%
%
739
D3
IO,0
Digital value using VR3 range
(internal reference)