English
Language : 

NCL30030 Datasheet, PDF (9/32 Pages) ON Semiconductor – Combination Power Factor Correction
NCL30030
Table 4. ELECTRICAL CHARACTERISTICS: (VCC = 12 V, VBO/HV = 120 V, VFault = open, VPFB = 1.9 V, VPControl = 4 V,
VPCS/PZCD = 0 V, VQFB = 3 V, VPONOFF = 4 V, VQCS = 0 V, VQZCD = 0 V, CMULT = 2 nF, CVCC = 100 nF , CQCT = 220 pF, CPDRV = 1 nF,
CQDRV = 1 nF, for typical values TJ = 25°C, for min/max values, TJ is – 40°C to 125°C, unless otherwise noted)
Characteristics
Conditions
Pin
Symbol
Min Typ Max Unit
PFC DISABLE
Voltage to Current Conversion Ratio
PFC Disable Threshold
PFC Enable Hysteresis
PONOFF Operating Mode Voltage
PFC Disable Timer
PFC Enable Filter Delay
PFC Enable Timer
PFC MULTIPLIER
VQFB = 3 V, Low Line
VQFB = 3 V, High Line
VPONOFF decreasing
VQFB = increasing
tdemag/T = 70%,
RPONOFF = 191 kW, CPONOFF = 1 nF
VQFB = 1.8 V (decreasing)
VQFB = 3 V (decreasing)
Disable Timer
PONOFF Increasing
5
Iratio1(QFB/PON)
13
15
17
mA
Iratio2(QFB/PON)
13
15
17
5
VPOFF
1.9
2.0
2.1
V
5
VPONHYS
0.135 0.160 0.185
V
5
V
VPONOFF1
VPONOFF2
1.08
1.20
1.32
1.8
2.0
2.2
5
tPdisable
450
500
550
ms
5
tPenable(filter)
50
100
150
ms
5
tPenable
200
–
500
ms
Multiplier maximum BO=180V
PControl = open, BO = 180 V
3
MULT_max_180
0.85
1
1.15
V
Multiplier maximum BO = 360V
PControl = open, BO = 360 V
3
MULT_max_360 0.425
0.5
0.575
V
Multiplier output
PControl = 2.5 V, BO = 180 V
3
VmultLL
0.425
0.5
0.575
V
Multiplier output
PControl = 2.5 V, BO = 360 V
3
VmultHL
0.2125 0.25 0.2875
V
Multiplier linearity with respect to BO at
low line.
(VMULT180/180V)/(VMULT120/120V)
PControl = 2.5 V, BO = 180 V and
BO = 120 V
3
Mult_linearityLL
0.98
1
1.02
Multiplier linearity with respect to BO at
PControl = 2.5 V, BO = 360 V and BO
3
Mult_linearityHL
0.99
1
1.01
high line.
= 300 V
(VMULT360/360V)/VMULT300/300V)
PFC GATE DRIVE
Rise Time (10−90%)
Fall Time (90−10%)
Driver Resistance
Source
Sink
VPDRV from 10% to 90% of VCC
13
90% to 10% of VPDRV
13
13
Current Capability
Source
Sink
High State Voltage
13
VPDRV = 2 V
VPDRV = 10 V
VCC = VCC(off) + 0.2 V, RPDRV = 10 kW
13
VCC = 26 V, RPDRV = 10 kW
Low State Voltage
VFault = 4 V
13
PFC ZERO CURRENT DETECTION
tPDRV(rise)
tPDRV(fall)
RPDRV(SRC)
RPDRV(SNK)
IPDRV(SRC)
IPDRV(SNK)
VPDRV(high1)
VPDRV(high2)
VPDRV(low)
–
40
80
ns
–
20
40
ns
W
−
13
−
−
7
−
mA
–
500
–
–
800
–
8
–
–
V
10
12
14
–
–
0.25
V
Zero Current Detection Threshold
Hysteresis on Voltage Threshold
Propagation Delay
Input Voltage Excursion
Upper Clamp
Negative Clamp
Minimum detectable ZCD Pulse Width
VPCS/PZCD rising
VPCS/PZCD falling
VPZCD(rising) – VPZCD(falling)
Measure from VPCS/PZCD =
VPZCD(falling) to PDRV rising
IPCS/PZCD = 1 mA
IPCS/PZCD = −2 mA
Between VPZCD(rising) and
VPZCD(falling) to PDRV
14
VPZCD(rising)
VPZCD(falling)
14
VPZCD(HYS)
14
tPZCD
675
750
825
mV
200
250
300
375
500
625
mV
50
100
170
ns
14
V
VPCS/PZCD(MAX)
6.5
7
7.5
VPCS/PZCD(MIN)
−0.9
−0.7
0
14
tSYNC
–
70
200
ns
ZCD blanking time
QR FLYBACK GATE DRIVE
Measured DRV off to DRV on
14
TPzcd_blank
450
700
1000
ns
Rise Time (10−90%)
VQDRV from 10 to 90%
12
tQDRV(rise)
–
40
80
ns
Product parametric performance is indicated in the Electrical Characteristics for the listed test conditions, unless otherwise noted. Product
performance may not be indicated by the Electrical Characteristics if operated under different conditions.
www.onsemi.com
9