UBA2015 PHILIPS [NXP Semiconductors], UBA2015 Datasheet

no-image

UBA2015

Manufacturer Part Number
UBA2015
Description
600 V fluorescent lamp driver with PFC, linear dimming and boost function
Manufacturer
PHILIPS [NXP Semiconductors]
Datasheet

Available stocks

Company
Part Number
Manufacturer
Quantity
Price
Part Number:
UBA2015AT/1
Quantity:
4 000
1. General description
2. Features and benefits
The UBA2016A/15/15A are high voltage Integrated Circuits (IC) intended to drive
fluorescent lamps with filaments such as Tube Lamps (TL) and Compact Fluorescent
Lamps (CFL) in general lighting applications. The IC comprises a fluorescent lamp control
module, half-bridge driver, built-in critical conduction mode Power Factor Correction
(PFC) controller/driver and several protection mechanisms. The IC drives fluorescent
lamp(s) using a half-bridge circuit made of two MOSFETs with a supply voltage of up to
600 V.
The UBA2016A/15/15A are designed to be supplied by a start-up bleeder resistor and a
dV/dt supply from the half-bridge circuit, or any other auxiliary supply derived from the
half-bridge or the PFC. The supply current of the IC is low. An internal clamp limits the
supply voltage.
UBA2016A/15/15A
600 V fluorescent lamp driver with PFC, linear dimming and
boost function
Rev. 3 — 16 November 2011
Power factor correction features:
Half-bridge driver features:
Fluorescent lamp controller features:
Integrated 4-pin critical conduction mode PFC controller/driver
Open and short pin-short protection on PFC feedback pin
Overcurrent protection
Overvoltage protection
Integrated level-shifter for the high-side driver of the half-bridge
Integrated bootstrap diode for the high-side driver supply of the half-bridge
Independent non-overlap time
Linear dimming (UBA2016A and UBA2015A only)
EOL (End-Of-Life) detection (both symmetrical and asymmetrical)
Adjustable preheat time
Adjustable preheat current
Adjustable fixed frequency preheat (UBA2015 and UBA2015A only)
Lamp ignition failure detection
Ignition detection of all lamps at multiple lamps with separate resonant tanks
Second ignition attempt if first failed
Constant output power independent of mains voltage variations
Automatic restart after changing lamps
Adjustable lamp current boost at start-up (UBA2016A only)
Lamp current control
Product data sheet

Related parts for UBA2015

UBA2015 Summary of contents

Page 1

... EOL (End-Of-Life) detection (both symmetrical and asymmetrical)  Adjustable preheat time  Adjustable preheat current  Adjustable fixed frequency preheat (UBA2015 and UBA2015A only)  Lamp ignition failure detection  Ignition detection of all lamps at multiple lamps with separate resonant tanks  ...

Page 2

... Lamp overvoltage (lamp removal) protection  Temperature protection 3. Applications  Intended for fluorescent lamp ballasts with either a dimmable (UBA2016A and UBA2015A fixed (UBA2015) output and PFC for AC mains voltages 390 V. 4. Ordering information Table 1. Ordering information Type number Package ...

Page 3

NXP Semiconductors 5. Block diagram VDD 5 μA 0 AUXPFC 1.39 V FBPFCOK FBPFC 1. COMPPFC IC off EOL μA 5 μA 3.35 V 2.5 V VFB ...

Page 4

... IC off EOL μA 5 μA 3.35 V 2.5 V VFB 2.6 μ IFB 2 60 kΩ (1) Pin 9 is not connected in the UBA2015. Fig 2. Block diagram UBA2015A and UBA2015 UBA2016A_15_15A Product data sheet DEMAG OVPFC FBPFCOK PFC CONTROLLER PFCOSP PFCOK t on TIMER brownout 3.0 V ...

Page 5

... UBA2016A and UBA2015A 9 UBA2015 All information provided in this document is subject to legal disclaimers. Rev. 3 — 16 November 2011 UBA2016A/15/15A 600 V fluorescent lamp driver SLHB ...

Page 6

... UBA2016A_15_15A Product data sheet Pin description …continued Pin Description 10 boost function input UBA2016A 10 preheat frequency setting combined with enable UBA2015 and UBA2015A 11 PFC feedback input 12 PFC output voltage feedback compensation 13 PFC auxiliary winding input 14 PFC gate driver output 15 ...

Page 7

... V fluorescent lamp driver D bypass V o(PFC) D PFC l o(PFC) I switch(PFC PFC C BUS R3 R2 GPFC FBPFC UBA2016A VDD UBA2015 UBA2015A GND reg(FBPFC) is reduced and on(PFC) is increased and on(PFC) before going to the OTA to prevent timer is finished, off(PFC)low © NXP B.V. 2011. All rights reserved. 001aam533 . When ...

Page 8

... AUXPFC is HIGH when not connected bias(AUXPFC) V BUS VDD GHHB SHHB UBA2016A UBA2015 FSHB UBA2015A GLHB GND Basic half-bridge and IC supply connection diagram All information provided in this document is subject to legal disclaimers. Rev. 3 — 16 November 2011 UBA2016A/15/15A 600 V fluorescent lamp driver ensures that the pin bias(FBPFC) FBPFC after GPFC goes high ...

Page 9

NXP Semiconductors 7.3.1 VDD supply The UBA2016A/15/15A is intended to be supplied by a start-up bleeder resistor connected between the bus voltage V half-bridge point at pin SHHB. The IC starts up when the voltage at pin VDD rises above ...

Page 10

NXP Semiconductors V SHHB Fig 8. 7.4 Fluorescent lamp control The IC incorporates all the regulation and control needed for the fluorescent lamp(s), such as filament preheat, ignition frequency sweep, lamp voltage limitation, lamp current control, start-up boost, dimming, end-of-life ...

Page 11

... AND NOT(overtemp) Preheat state BOOST and EOL disabled frequency is decreased until HB preheat current or the set value for the preheat frequency (UBA2015(A) only) is reached Preheat time completed Ignition state BOOST and EOL disabled frequency is decreased as long as no lamp overvoltage or HB overcurrent or (1) ...

Page 12

... V V th(osp)(VFB) CPT th(scp)(CPT) Figure 10 “Resonance curve application with UBA2015A” to the externally connected compensation network on this pin and its voltage will , discharge current I crtl(ph)SLHB All information provided in this document is subject to legal disclaimers. Rev. 3 — 16 November 2011 ...

Page 13

... NXP Semiconductors (1) Lamp voltage when lamp is off (not ignited yet). (2) Lamp current when lamp is on. Fig 10. Resonance curve application with UBA2015A (1) Lamp voltage when lamp is off (not ignited yet). (2) Lamp current when lamp is on. Fig 11. Resonance curve application with UBA2016A UBA2016A_15_15A ...

Page 14

... NXP Semiconductors The preheat frequency for UBA2015 and UBA2015A can also be regulated via pin PH/EN. UBA2015 and UBA2015A support current controlled preheat and fixed frequency preheat. During preheat the output voltage of pin PH/ external resistor R current of the VCO (the current at pin CF with no fault condition present and the capacitor ...

Page 15

... V the boost function. For the remainder of this Section we will assume I For the UBA2015A and UBA2016A the DIM input controls the lamp current set point. The DIM input level is internally clamped the bias current on pin DIM I dimming is required, pin DIM can be left open or connected via a capacitor to ground ...

Page 16

... V ). m(IFB) IFB reg(IFB Figure 10 (UBA2015A) or Figure 11 All information provided in this document is subject to legal disclaimers. Rev. 3 — 16 November 2011 UBA2016A/15/15A 600 V fluorescent lamp driver OTA g m(IFB) VDD VOLTAGE I ch(low)(CF) CONTROLLED CURRENT SOURCE V high(CF) ÷ 2 ...

Page 17

NXP Semiconductors However, the switching frequency can never go below f the boost function is active, see f the IC will stay at f sw(low) 7.4.7.2 Operation without lamp current control To operate the lamp without current control the lamp ...

Page 18

... The sequence of events for entering the Stop state are shown in 7.5 Enable and Disable The enable function is only available in the UBA2015 and UBA2015A and works via pin PH/EN. If this pin is pulled below the enable voltage V Standby state (immediately if GLHB is high, otherwise it will continue its normal clock cycle until GLHB is high and then go to the Standby state) ...

Page 19

... DIM (see V th(oveol)(VFB) Parameters a and b can be calculated from the V The end-of-life overvoltage protection is only active during Burn state and (for UBA2015A and UBA2016A) if the voltage at pin DIM is above the overvoltage end-of-life enable voltage V 7.6.3 Capacitive mode detection Under all normal operating conditions the half-bridge switching frequency should be higher than the load resonance frequency ...

Page 20

... Depending on the topology used, the DC blocking capacitor might be charged via the lamp(s) at the moment the lamp(s) ignite. This will cause a temporary DC current addition to the load current that might be interpreted by the UBA2015 and UBA2015A as capacitive mode switching. If this happens the DC blocking capacitor must be reduced or pre-charged ...

Page 21

HV high side GHHB switch SHHB I load SENSE low side GLHB switch GND zero voltage switching hard switching (due to small phase difference between V and i ) SHHB load hard switching (due to small amplitude ...

Page 22

NXP Semiconductors 7.6.6 Coil saturation protection When the peak voltage on pin SLHB exceeds saturation threshold voltage V additional current I Ignition state the fault timer is started and a discharge current I CIFB during the next cycle to increase ...

Page 23

NXP Semiconductors timer is no longer detected for a period longer than the fault release delay time t the fault timer will be reset and at any new occurance of the fault, the timer will start from zero. Faults which ...

Page 24

NXP Semiconductors 8. Limiting values Table 4. Limiting values In accordance with the Absolute Maximum Rating System (IEC 60134). All voltages referenced to signal ground (GND pin 15); current flow into the IC is positive. Symbol Parameter General R reference ...

Page 25

NXP Semiconductors Table 4. Limiting values …continued In accordance with the Absolute Maximum Rating System (IEC 60134). All voltages referenced to signal ground (GND pin 15); current flow into the IC is positive. Symbol Parameter ElectroStatic Discharge (ESD) V electrostatic ...

Page 26

NXP Semiconductors Table 6. Characteristics …continued °C; settings according to default setting amb unless otherwise specified. Symbol Parameter V restart voltage on pin VDD restart(VDD) I restart current on pin VDD restart(VDD) V clamp voltage on pin ...

Page 27

... GLHB sink(GLHB) I source current on pin GHHB source(GHHB) UBA2016A_15_15A Product data sheet [1] ; all voltages referenced to GND; current flow into the IC is positive; Conditions preheat overcurrent detected 1.5 V CIFB UBA2015; UBA2015A k; ext(PH/EN 200 pF ext(CF 100 k; ext(PH/EN 200 pF ext(CF) pin IFB ...

Page 28

... V FBPFC V = 1.9 V EOL pin DIM open UBA2015A; UBA2016A V = 1.0 V DIM UBA2015A; UBA2016A V = 0.5 V DIM UBA2015A; UBA2016A kHz kHz kHz sw All information provided in this document is subject to legal disclaimers. Rev. 3 — 16 November 2011 UBA2016A/15/15A 600 V fluorescent lamp driver Min ...

Page 29

NXP Semiconductors Table 6. Characteristics …continued °C; settings according to default setting amb unless otherwise specified. Symbol Parameter V capacitive mode detection threshold th(cm)SHHB voltage on pin SHHB g hard switching regulation m(hswr) transconductance V short-circuit protection ...

Page 30

... C0G (NP0) capacitor to ground 8 connected via a 100 nF capacitor to ground 9 connected via a 100 pF capacitor to ground 10 connected to ground; UBA2016A 10 not connected; UBA2015 and UBA2015A 11 connected to a 1.27 V test supply 12 connected via a 100 nF capacitor to ground 13 connected to ground 14 not connected (open) 15 ...

Page 31

NXP Semiconductors 11. Application information 11.1 Connecting the application A 33 k resistor must be connected between pin IREF and GND. The tolerance of this resistor adds to any current related tolerances of the IC, including f ...

Page 32

Without lamp current regulation or dimming mains AUXPFC COMPPFC GND Fig 16. Typical schematic for minimal TL or CFL application with UBA2016A (mains filter not shown) GPFC FBPFC VDD UBA2016A IREF CF CPT CIFB DIM VFB BOOST IFB EOL ...

Page 33

AUXPFC COMPPFC GND Fig 17. Typical schematic for basic TL or CFL application (better PFC performance than minimal application) (mains filter not shown) GPFC FBPFC VDD UBA2016A IREF CF CPT CIFB DIM VFB BOOST IFB EOL GHHB SHHB FSHB ...

Page 34

GPFC AUXPFC COMPPFC GND Fig 18. Typical schematic for basic TL or CFL application with UBA2016A with fixed time boost start (mains filter not shown) FBPFC VDD GHHB SHHB FSHB UBA2016A GLHB SLHB IREF CF CPT CIFB DIM VFB ...

Page 35

GPFC AUXPFC COMPPFC GND IREF Fig 19. Typical schematic for basic TL or CFL application with UBA2016A, with lamp temperature-dependent boost start (mains filter not shown) NTC mounted close to lamp FBPFC VDD VFB BOOST GHHB SHHB FSHB UBA2016A ...

Page 36

With lamp current regulation and dimming mains GPFC AUXPFC COMPPFC GND IREF CF Fig 20. Typical schematic for dimmable TL application with UBA2016A (mains filter not shown) FBPFC VDD GHHB SHHB FSHB UBA2016A GLHB SLHB CPT CIFB DIM BOOST ...

Page 37

NXP Semiconductors 12. Package outline DIP20: plastic dual in-line package; 20 leads (300 mil pin 1 index 1 DIMENSIONS (inch dimensions are derived from the original mm dimensions UNIT max. min. max. ...

Page 38

NXP Semiconductors SO20: plastic small outline package; 20 leads; body width 7 pin 1 index 1 e DIMENSIONS (inch dimensions are derived from the original mm dimensions) A UNIT max. ...

Page 39

NXP Semiconductors 13. Revision history Table 8. Revision history Document ID Release date UBA2016A_15_15A v.3 20111116 UBA2016A_15_15A v.2 20110711 UBA2016A_15_15A v.1 20110520 UBA2016A_15_15A Product data sheet Data sheet status Product data sheet Preliminary data sheet Objective data sheet All information ...

Page 40

NXP Semiconductors 14. Legal information 14.1 Data sheet status [1][2] Document status Product status Objective [short] data sheet Development Preliminary [short] data sheet Qualification Product [short] data sheet Production [1] Please consult the most recently issued document before initiating or ...

Page 41

NXP Semiconductors Non-automotive qualified products — Unless this data sheet expressly states that this specific NXP Semiconductors product is automotive qualified, the product is not suitable for automotive use neither qualified nor tested in accordance with automotive testing ...

Page 42

NXP Semiconductors 16. Contents 1 General description . . . . . . . . . . . . . . . . . . . . . . 1 2 Features and benefits . . . . . . ...

Related keywords