CXD2453Q Timing Generator for LCD Panels For the availability of this product, please contact the sales office. Description The CXD2453Q is a timing signal generator for driving the LCX017AL and LCX023AL LCD panels. This chip outputs timing signals which support XGA signals (1024 × 768 dots) and S-XGA signals (1280 × 1024 dots). Features • Supports various XGA signals (1024 × 768 dots) having horizontal scanning frequencies of 44-69kHz and vertical scanning frequencies of 55 to 85Hz. • Supports S-XGA (1280 × 1024 dots) pulse eliminator (horizontal scanning frequency of 69kHz or less). • Controls the sample-and-hold position of the CXA2112R sample-and-hold driver. • Line inversion and field inversion signal generation • AC drive of LCD panels during no signal. 80 pin QFP (Plastic) Absolute Maximum Ratings (VSS = 0V) • Supply voltage VDD VSS – 0.5 to +4.0 • Input voltage VI (3.3V input pin) VSS – 0.5 to VDD + 0.5 (5.0V input pin) VSS – 0.5 to VDD + 2.5 • Output voltage VO VSS – 0.5 to VDD + 0.5 • Storage temperature Tstg –55 to +125 Recommended Operating Conditions • Supply voltage VDD +3.0 to +3.6 • Operating temperature Topr –20 to +75 Applications LCD projectors, etc. Structure Silicon gate CMOS IC V V V V °C V °C Note: Company names and product names, etc. contains in these materials are the trademarks or registered trademarks of the respective companies. Sony reserves the right to change products and specifications without prior notice. This information does not convey any license by any implication or otherwise under any patents or other right. Application circuits shown, if any, are typical examples illustrating the operation of the devices. Sony cannot assume responsibility for any problems arising out of the use of these circuits. –1– E97425B7Y-PS CXD2453Q XCLR 78 TST5 CKI1 XCKI1 SLCK1 CKI2 CKI3 XCKI3 SLCK2 CKI4 Block Diagram 3 4 26 11 21 22 30 13 Direct Clear Master Clock (Main) 24 VSYNC 28 Master Clock (Sub) AUX V COUNTER SYNC DETECTOR HSYNC 29 V POSITION COUNTER SLHR 17 HRET 38 9 TST2 34 TST7 35 TST8 36 TST9 74 TST11 75 TST12 76 TST13 43 BLK 19 SLFR PLL COUNTER IRACT 69 V TIMING GENERATOR H POSITION COUNTER LINE CONTROLLER CLP1 39 CLP2 40 41 VCK 44 VST 45 FRP 1 TST1 15 TST3 16 TST4 27 TST6 72 TST10 ENB 47 79 TST14 PRG 48 80 TST15 67 XVS 68 XHS PCG H TIMING GENERATOR 49 HCK1 51 ADDITIONAL PULSE GENERATOR HCK2 53 70 ORACT HST 55 SCLK 6 SDAT 7 8 VDD 32 VDD 33 VDD 46 VDD Vss Vss Vss Vss Vss Vss Vss Vss Vss Vss Vss Vss Vss –2– Vss 5 10 12 14 20 23 25 31 37 42 50 52 54 63 71 77 Vss 2 Vss RGT XRGT HB DWN VB INV SHPD SHPB SHPC 56 57 58 59 60 61 62 64 65 66 Vss 73 VDD SHPA SCTL SERIAL DATA I/F 18 CXD2453Q Pin Description Pin No. I/O 1 TST1 — Test pin (Not connected.) — 2 VSS — GND — 3 CKI1 4 XCKI1 Master clock input 1 (differential) — 5 VSS GND — 6 SCLK I Serial data clock input — 7 SDAT I Serial data input — 8 SCTL I Serial data control signal input — 9 TST2 — Test pin (connect to GND) — 10 VSS — GND — 11 CKI2 Master clock input 2 — 12 VSS GND — 13 CKI4 Master clock input 4 — 14 VSS — GND — 15 TST3 — Test pin (Not connected.) — 16 TST4 — Test pin (Not connected.) — 17 SLHR I Reset by HSYNC of PLL counter (High: Disabled, Low: Enabled) H 18 VDD Power supply — 19 SLFR FRP polarity inversion cycle selection (High: Field inversion, Low: Line inversion) L 20 VSS GND — 21 CKI3 22 XCKI3 Master clock input 3 (differential) — 23 VSS — GND — 24 TST5 — Test pin (Not connected.) — 25 VSS — GND — 26 SLCK1 Clock input selection 1 (High: CKI2, Low: CKI1) L 27 TST6 — Test pin (Not connected.) — 28 VSYNC I Vertical sync signal input — 29 HSYNC I Horizontal sync signal input — 30 SLCK2 I Clock input selection 2 (High: CKI4, Low: CKI3) L 31 VSS — GND — 32 VDD — Power supply — 33 VDD — Power supply — 34 TST7 — Test pin (connect to VDD) — 35 TST8 — Test pin (connect to VDD) — 36 TST9 — Test pin (connect to VDD) — I — I — I — I — I I Description Input pin for open status Symbol –3– CXD2453Q Pin No. Symbol I/O 37 VSS — GND — 38 HRET O Phase comparison pulse output — 39 CLP1 O Pedestal clamp pulse 1 output — 40 CLP2 O Pedestal clamp pulse 2 output — 41 VCK O V clock pulse output — 42 VSS — GND — 43 BLK O BLK pulse output — 44 VST O V start pulse output — 45 FRP O AC drive inversion pulse output — 46 VDD — Power supply — 47 ENB O ENB pulse output — 48 PRG O PRG pulse output — 49 PCG O PCG pulse output — 50 VSS — GND — 51 HCK1 O H clock 1 pulse output — 52 VSS — GND — 53 HCK2 O H clock 2 pulse output — 54 VSS — GND — 55 HST O H start pulse output — 56 SHPA O External sample-and-hold driver control signal output — 57 SHPB O External sample-and-hold driver control signal output — 58 SHPC O External sample-and-hold driver control signal output — 59 SHPD O External sample-and-hold driver control signal output — 60 INV O External sample-and-hold driver control signal output — 61 VB O VB signal output — 62 HB O HB signal output — 63 VSS — GND — 64 DWN O Up/down inversion signal output — 65 XRGT O Left/right inversion signal (reverse polarity) output — 66 RGT O Left/right inversion signal output — 67 XVS O Auxiliary pulse output — 68 XHS O Auxiliary pulse output — 69 IRACT O Auxiliary pulse output — 70 ORACT O Auxiliary pulse output — 71 VSS — GND — 72 TST10 — Test pin (Not connected.) — Description –4– Input pin for open status CXD2453Q Pin No. Symbol I/O 73 VDD — Power supply — 74 TST11 — Test pin (connect to VDD) — 75 TST12 — Test pin (connect to VDD) — 76 TST13 — Test pin (connect to VDD) — 77 VSS — GND — 78 XCLR I System clear (Low: All clear) H 79 TST14 — Test pin (Not connected.) — 80 TST15 — Test pin (Not connected.) — Input pin for open status Description ∗ H: Pull-up, L: Pull-down Electrical Characteristics • DC characteristics Item Supply voltage Input voltage 1 Input voltage 2 Symbol VIH1 VIL1 VIH2 VIH3 VIL3 Input voltage 4 Conditions Min. Typ. Max. — 3.0 3.3 3.6 — 0.65VDD — VDD VSS — 0.25VDD SLHR, SLFR, XCLR, SLCK1/2 0.65VDD — VDD + 1.9 VSS — 0.25VDD 0.8VDD — VDD + 1.9 VSS — 0.2VDD (VDD × 0.606) – 0.1 VDD × 0.606 (VDD × 0.606) + 0.1 VIL4 + 0.3 — VDD VSS — VIH4 – 0.3 VDD – 0.5 — VDD VSS — 0.4 VDD – 0.5 — VDD VSS — 0.4 VDD – 0.5 — VDD VSS — 0.4 25 50 200 kΩ — — 40 mA VDD VIL2 Input voltage 3 (Topr = –20 to +75°C, VSS = 0V) VC (center level) VIH4∗1 3.3V CMOS input 5.0V CMOS input 5.0V CMOS Schmitt trigger input Low amplitude differential input VIL4∗1 Output voltage 1 Output voltage 2 Output voltage 3 VOH IOH = –4mA VOL IOL = 4mA VOH IOH = –8mA VOL IOL = 8mA VOH IOH = –12mA VOL IOL = 12mA Input pull-up/pullRP down resistance Current consumption IDD Pull-up VI = 0V Pull-down VI = VDD Master clock = 95MHz VDD = 3.3V Output load = 30pF Unit CKI2, CKI4 V SCLK, SDAT, SCTL, VSYNC, HSYNC CKI1/XCKI1, CKI3/XCKI3 ∗2 VCK, BLK, VST, ENB, PCG HCK1, HCK2, HST SLHR, XCLR SLFR, SLCK1/2 ∗1 VIH4 > (max. value of VC) and VIL4 < (min. value of VC) ∗2 Output pins other than those indicated in items output voltage 2 and output voltage 3. –5– Applicable pins — CXD2453Q • AC characteristics (Topr = –20 to +75°C, VDD = 3.3V ± 0.3V, VSS = 0V) Item Symbol Clock input cycle Applicable pins — Conditions Min. Typ. Max. CKI1/XCKI1, CKI3/XCKI3 — 10.5 — — CKI2, CKI4 — 10.5 — — tpr/tpf HCK1, HCK2, HST CL = 90pF Output rise/fall delay time tpr/tpf VCK, BLK, VST, ENB, PCG CL = 50pF Output rise/fall delay time tpr/tpf Other output pins CL = 30pF Cross-point time difference ∆t HCK1, HCK2 Duty ratio tH/ (tH + tL) HCK1, HCK2 Output rise/fall delay time Unit ns — — 25 CL = 90pF –5 — 5 CL = 90pF 48 50 52 Timing Definitions VDD CKI1, CKI2, CKI3, CKI4 50% 0V VDD Output 50% 0V tpr VDD Output 50% 0V tpf VDD HCK1 50% 50% 0V VDD 50% HCK2 50% 0V ∆t ∆t tH HCK1, HCK2 tL 50% 50% –6– 50% % CXD2453Q Serial Interface AC Characteristics (Topr = –20 to +75°C, VDD = 3.3V ± 0.3V, VSS = 0V) Item SCTL setup time with respect to rise of SCLK SCTL hold time with respect to rise of SCLK SDAT setup time with respect to rise of SCLK SDAT hold time with respect to rise of SCLK SCLK pulse width Symbol Min. Typ. Max. ts0 th0 ts1 th1 tw1 8T∗3 — — 8T — — 4T — — 4T — — 4T — — ∗3 T: Master clock cycle (ns) Timing Definitions ts0 SCTL th0 50% 50% tw1 SCLK 50% 50% ts1 SDAT tw1 50% th1 (D15) 50% (D0) –7– –8– 4 dots Display area 1032 dots 1024 dots Gate SW 4 dots 2 dots 768 dots 2 dots Photo-shielding area Gate SW 772 dots The dot arrangement of the LCD panel (LCX017AL) driven with this IC is shown below. The dot arrangement is a square arrangement. The shaded region in the diagram is not displayed. LCD Panel Dot Arrangement CXD2453Q CXD2453Q Description of Operation • Sync signal input pins (HSYNC, VSYNC) Horizontal and vertical separate SYNC signals are input to the HSYNC (Pin 29) and VSYNC (Pin 28). The sync signals are compatible with both positive and negative polarity according to serial data settings. (Refer to the section on serial data interface for details regarding serial data.) The CXD2453Q supports signals which are shown in the following table. Effective dots Horizontal scanning Vertical scanning frequency frequency 1024 × 768 (XGA) 44kHz to 69kHz 55Hz to 85Hz 1280 × 1024 (S-XGA) ≤ 69kHz Roughly ≤ 65Hz Remarks Scanning line conversion from 1024 to 768 vertical lines In the case of signals defined by special protocols that do not satisfy the conditions in the diagram below, it may not be possible to obtain a complete display even for the above signals when the image display position is properly set on the LCD panel. This IC does not support interlace signals. Image display period Horizontal blanking period Image display period HSYNC ENB Min. 0.72µs Min. 0.17µs PCG • Master clock input pins (CKI1/XCKI1, CKI2, CKI3/XCKI3, CKI4) and Clock Selection Pins (SLCK1, SLCK2) Since this IC does not contain a built-in phase comparator, phase comparison is performed externally and a divided clock is input. The 1/N (N is the clock number during 1 horizontal period) frequency divider output is output from the HRET (Pin 38) for the external phase comparator. The clock input pin consists of two channels for small amplitude differential input (center level: 2.0V, amplitude: ±0.4V), and two channels for CMOS level input for a total of four channels. These are selected according to the SLCK1 (Pin 26), SLCK2 (Pin 30) and serial data. (1) During normal operation (serial data SLLAP = 0) All internal circuits of the IC operate with CKI1 or CKI2. CKI1/XCKI1 are selected when SLCK1 = L (Pins 3/4, small amplitude differential input), and CKI2 is selected when SLCK1 = H (Pin 11, CMOS level input). (2) When using scan converter (serial data SLLAP = 1) This is used when the input signal clock and output signal clock are different such as when performing dot conversion using a scan converter. Only the serial data interface and PLL counter of the IC internal circuits operate with CKI1 or CKI2 (clock synchronized with input signal). All other blocks operate with CKI3 or CKI4 (output signal clock). CKI3/XCKI13 are selected when SLCK2 = L (Pins 21/22, small amplitude differential input), and CKI4 is selected when SLCK2 = H (Pin 13, CMOS level input). • Internal frequency divider reset selection pin (SLHR) This selects whether reset of the PLL counter (loop counter) with HSYNC is to be enabled or disabled. In the case of performing phase comparison of the HSYNC and HRET pulses with an external phase comparator, the SLHR (Pin 17) is set to H (reset disabled). When phase comparison and frequency division are performed externally and HRET pulses for phase comparison are not used, the SLHR is set to L (reset enabled). At this time, the output of each pulse is delayed by approximately 8 clocks as compared with using HRET pulses for phase comparison. • Signal inversion type selection pin (SLFR) This selects the inversion cycle of the polarity inversion pulse (FRP pulse) for AC driving. Setting the SLFR (Pin 19) to H results in field inversion, while setting the SLFR to L results in line inversion. –9– CXD2453Q • System clear pin (XCLR) All internal circuits are initialized when the XCLR (Pin 78) is L. Always make sure to initialize all internal circuits when the power has been turned on. • Serial data interface Operating mode and other settings in this IC are performed by serial data. When the power is turned on, all data are set to the default values when the internal circuits are initialized. When the power supply is turned on, the value of SDAT is read with the rise of SCLK in groups of 16 bits consisting of 8 address bits and 8 data bits as shown in the Timing Chart below. The data that has been read is enabled by being transferred to the register corresponding to each address 10 clocks after the rise of SCLK of the 16th bit. The Timing Chart and Data Format during transmission of serial data are as shown below. Timing Chart SCTL (Pin 8) SCLK (Pin 6) D15 D14 D13 D12 D11 D10 D9 SDAT (Pin 7) D8 D7 Address (8 bits) D6 D5 D4 D3 D2 D1 D0 Data (8 bits) Data Format Address Data Settings D15 to D8 D7 D6 D5 D4 D3 D2 D1 D0 F0 — — — — — PLP10 PLP9 PLP8 F1 PLP7 PLP6 PLP5 PLP4 PLP3 PLP2 PLP1 PLP0 PLL counter frequency division ratio F2 HP7 HP6 HP5 HP4 HP3 HP2 HP1 HP0 Screen horizontal position F3 VP7 VP6 VP5 VP4 VP3 VP2 VP1 VP0 Screen vertical position F4 — — — INV SHP3 SHP2 SHP1 SHP0 CXA2112R S/H control F5 — — VPOL HPOL VSCN HSCN SLXG SLSX Operating mode, etc. F6 — — HB VB SLLAP IRD10 IRD9 IRD8 F7 IRD7 IRD6 IRD5 IRD4 IRD3 IRD2 IRD1 IRD0 Operating mode, etc./ IRACT fall position F8 — — — — — IRU10 IRU9 IRU8 F9 IRU7 IRU6 IRU5 IRU4 IRU3 IRU2 IRU1 IRU0 FA — — — ORRS1 ORRS0 ORP10 ORP9 ORP8 FB ORP7 ORP6 ORP5 ORP4 ORP3 FC — — — — — FD ORD7 ORD6 ORD5 ORD4 ORD3 FE — — — — — FF ORU7 ORU6 ORU5 ORU4 ORU3 ORP2 ORP1 ORP0 ORD10 ORD9 ORD8 ORD2 ORD1 ORD0 ORU10 ORU9 ORU8 ORU2 ORU0 Note) —: Don't care – 10 – ORU1 IRACT rise position ORACT reset cycle/ ORACT division frequency ORACT fall position ORACT rise position CXD2453Q The following provides a detailed description of each setting. (a) Setting of PLL counter frequency division ratio This is used to set the frequency division ratio of the 1/N frequency divider (PLL counter) for phase comparison. The value of (total number of dots of 1 horizontal period N) – 1 is set with PLP10 (MSB) through PLP0 (LSB). The frequency division ratio can be set up to 2048. Only even numbers can be set for the value of N. When it is necessary to set an odd number, use an external frequency divider. In this case, set the value of the frequency division ratio of the PLL counter to N-2. The default value is 10100111111 (N = 1344). (b) Setting of screen horizontal position The horizontal display start position is set with HP7 (MSB) through HP0 (LSB). This setting enables the phase relationships of pulses HST, HCK1/2, ENB, PCG, PRG and CLP1/2 as well as the changing positions of VCK/FRP relative to HSYNC to change in an interlocked manner. Settings can be made in 1 dot units. Refer to the Timing Chart for the relationship between the set value and each pulse position. The default value is 01000100. (c) Setting of screen vertical position The vertical display start position is set with VP7 (MSB) through VP0 (LSB). This setting enables the phase relationships of signals VST, VCK and FRP to change relative to VSYNC in an interlocked manner. Settings can be made in 1 line units. Refer to the Timing Chart for the relationship between the set value and each signal. The default value is 00100011. 00000000 and 11111111 are not used. (d) S/H control of CXA2112R This is used to set the sample-and-hold position for the CXA2112R (sample-and-hold driver). INV setting data is output directly from the INV (Pin 60). Setting data of SHP3 (MSB) through SHP0 (LSB) is reflected as shown below in the SHPA through SHPD (Pins 56 to 59). Refer to the specifications of the CXA2112R for details. Setting data Output Setting data Output SHP3 to SHP0 SHPA SHPB SHPC SHPD SHP3 to SHP0 SHPA SHPB SHPC SHPD 0000 L L L L 1000 L L Z L 0001 H H L L 1001 H H Z L 0010 Z L L L 1010 Z L Z L 0011 Z H L L 1011 Z H Z L 0100 L L H H 1100 L L Z H 0101 H H H H 1101 H H Z H 0110 Z L H H 1110 Z L Z H 0111 Z H H H 1111 Z H Z H Note) Z: High impedance state – 11 – CXD2453Q (e) Setting of operating mode, etc. • VPOL, HPOL: These are used to set the polarity of VSYNC and HSYNC. A setting of "1" denotes positive polarity, while a setting of "0" denotes negative polarity. The default values are VPOL = 0, HPOL = 0. • VSCN, HSCN: These are used to set the vertical and horizontal scanning directions of the LCD panel. VSCN = 1 denotes downward scanning, while VSCN = 0 denotes upward scanning. HSCN = 1 denotes rightward scanning, while HSCN = 0 denotes leftward scanning. Setting data of VSCN is output from the DWN (Pin 64), while setting data of HSCN is output from the RGT (Pin 66). The default values are VSCN = 0, HSCN = 1. • SLXG, SLSX: These are used to set the input signals (operating mode). This IC has the following three operating modes. The default values are SLXG = 0, SLSX = 0. Operating mode SLXG SLSX XGA-I 0 0 XGA-II 1 0 S-XGA X 1 Note) X: Don't care • HB, VB: • SLLAP: The XGA-I mode supports typical XGA signals. The XGA-II mode is for XGA signals in which there is a low number of dots during a portion of the horizontal blanking period (typically when HSYNC + back porch is 240 dots or less). Select the appropriate operating mode to satisfy the conditions in the diagram on page 6 corresponding to the input signal. In the S-XGA mode, 1024 vertical lines are displayed decimating to 768 lines corresponding to the S-XGA signal (1280 × 1024 dots). These are used to switch the number of display dots on the LCD panel. The display is set to 960 dots horizontally when HB = 0, and to 640 lines vertically when VB = 0. The data of each setting is output from the HB (Pin 62) and VB (Pin 61), respectively. Refer to the specifications of the LCX017AL for details. The default values are HB = 1, VB = 1. This is used when the input signal clock and output signal clock differ such as when converting the number of dots using a scan converter. When SLLAP = 1, only the serial data interface and PLL counter of the IC internal circuits operate with CKI1 or CKI2 (clock synchronized with input signal), while other sections operated with CKI3 or CKI4 (output signal clock). When SLLAP = 0, all internal IC circuits operate with CKI1 or CKI2. The default value is 0. (f) Setting of IRACT fall/rise positions • IRACT pulse A pulse synchronized with HSYNC of the input signal can be output at any position and width. The fall position of the pulse is set with IRD10 (MSB) through IRD0 (LSB), while the rise position is set with IRU10 (MSB) through IRU0 (LSB). The values of IRD0 and IRU0 are ignored, and settings are made in 2-dot increments. The setting range is from "0" to (N – 2). The same value cannot be set for IRD and IRU. Refer to the Timing Chart for the relationship between setting values and pulse positions. The default values are IRD10 through IRD0 = 00000000000, and IRU10 through IRU0 = 00010000000. – 12 – CXD2453Q (g) Setting of ORACT reset cycle/ORACT frequency division ratio • ORACT pulses ORACT pulses are completely identical to IRACT pulses when serial data SLLAP = 0, when SLLAP = 1, they are generated by a dedicated counter (loop counter similar to the PLL counter) that operates according to an independent clock (CKI3 or CKI4) different from the clock synchronized with input signal HSYNC (CKI1 or CKI2). Since pulses for driving the LCD panel are also generated based on this counter at this time, the LCD panel can be driven based on a clock and cycle that are different from the input signal. ORACT pulses are synchronized with the cycle of the pulse for driving the LCD panel at this time, and can be output at any position and width. The frequency division ratio of the above dedicated counter is set with ORP10 (MSB) through ORP0 (LSB). The value of (number of counter counts M) – 1 is the actual setting value. Only even numbers can be set for M, and settings are made in 2 dot increments. The maximum setting is 2048 counts. This counter is reset with VSYNC and HSYNC of a fixed cycle in order to synchronize it with the input signal, the interval of H at which it is to be reset with this HSYNC is set with ORRS1 and ORRS0. Setting data (ORRS1/ORRS0) 00 01 10 11 Reset cycle Every 3H Every 4H Every 5H Every 1H The default values are ORRS1 = 1, ORRS0 = 1, and ORP10 through ORP0 = 10100111111. (h) Setting of ORACT fall/rise positions The fall position of the ORACT pulse is set with ORD10 (MSB) through ORD0 (LSB), while the rise position of the ORACT pulse is similarly set with ORU10 (MSB) through ORU0 (LSB). The values of ORD0 and ORU0 are ignored, and settings are made in 2-dot increments. The setting range is from "0" to (M – 2). The same value cannot be set for ORD and ORU. The relationship between setting values and pulse positions is as indicated below. The default values are ORD10 through ORD0 = 00000000000, and ORU10 through ORU0 = 00010000000. HSYNC (HSYNC when reset is applied to counter) ORACT (default setting) 128ck 8ck ORD = 000/HEX ORU = 080/HEX • XHS pulse and XVS pulse The XHS pulse is output over a width of 32 clocks 34 clocks after the fall of the IRACT pulse when SLLAP = 0. The pulse has negative polarity. When SLLAP = 1, the pulse is similarly output over a width of 34 clocks after the fall of the ORACT pulse. The XVS pulse is VSYNC latched with the XHS pulse. Its polarity is always negative regardless of the polarity of the input VSYNC. • AC driving of LCD panels for no signal When VSYNC has not been input for a specified period, a judgment of "no signal" is made to allow AC driving of LCD panels even when there is no signal. A vertical start pulse and polarity inverted pulse (FRP) are output at a specified cycle. The timing by which a judgment of "no signal" is made and the free running cycle are as indicated below. Operating mode Free running detection timing (no signal period) and VST cycle during free running All modes 1600H – 13 – – 14 – 2fH 34fH 70fH 148fH 128fH 32fH 104fH 188fH 156fH Note) The phases of HCK1 and HCK2 are respectively reversed when HSCN = 0 (left/right inversion). The polarity of 1H and 1V cycle of FRP is not defined. ORACT IRACT XHS FRP VCK PRG PCG ENB HCK2 HCK1 HST CLP2 CLP1 HRET HSYNC CKI Horizontal Direction Timing Chart (XGA-I (1024 × 768 dots)) 78fH 140fH 132fH 66fH 30fH 20fH 24fH PLP = 53F/HEX, HP = 44/HEX, HPOL = 0, HSCN = 1, SLXG = 0, SLSX = 0, IRD = 000/HEX, IRU = 080/HEX SLHR: H, SLFR: L CXD2453Q – 15 – 2fH 34fH 42fH 104fH 128fH 32fH 80fH 116fH 124fH 62fH 100fH 66fH 108fH Note) The phases of HCK1 and HCK2 are respectively reversed when HSCN = 0 (left/right inversion). The polarity of 1H and 1V cycle of FRP is not defined. ORACT IRACT XHS FRP VCK PRG PCG ENB HCK2 HCK1 HST CLP2 CLP1 HRET HSYNC CKI Horizontal Direction Timing Chart (XGA-II (1024 × 768 dots)) 22fH 20fH 24fH PLP = 51F/HEX, HP = 14/HEX, HPOL = 0, HSCN = 1, SLXG = 1, SLSX = 0, IRD = 000/HEX, IRU = 080/HEX SLHR: H, SLFR: L CXD2453Q – 16 – Note) The polarity of 1H and 1V cycle of FRP is not defined. ORACT IRACT XVS XHS BLK PRG PCG ENB HST FRP VCK VST VSYNC HRET HSYNC Vertical Direction Timing Chart (XGA-I/II (1024 × 768 dots)) VP = 23/HEX, VPOL = 0, SLSX = 0, IRD = 000/HEX, IRU = 080/HEX, SLFR: L CXD2453Q – 17 – Note) The polarity of 1H and 1V cycle of FRP is not defined. ORACT IRACT XVS XHS BLK PRG PCG ENB HST FRP VCK VST VSYNC HRET HSYNC Vertical Direction Timing Chart (XGA-I/II (during display of 640 vertical lines)) VP = 23/HEX, VPOL = 0, SLSX = 0, VB = 0, IRD = 000/HEX, IRU = 080/HEX, SLFR: L CXD2453Q – 18 – 2fH 34fH 22fH 114fH 128fH 32fH 102fH 144fH 184fH 102fH 120fH Note) The phases of HCK1 and HCK2 are respectively reversed when HSCN = 0 (left/right inversion). The polarity of 1H and 1V cycle of FRP is not defined. ORACT IRACT XHS FRP VCK PRG PCG ENB HCK2 HCK1 HST CLP2 CLP1 HRET HSYNC CKI Horizontal Direction Timing Chart (S-XGA (1280 × 1024 dots displayed on 960 × 768 dots)) 136fH 86fH 26fH 18fH 24fH PLP = 4F1/HEX, HP = 12/HEX, HPOL = 1, HSCN = 1, SLSX = 1, IRD = 000/HEX, IRU = 080/HEX SLHR: H, SLFR: L CXD2453Q – 19 – Note) The polarity of 1H and 1V cycle of FRP is not defined. ORACT IRACT XVS XHS BLK PRG PCG ENB HST FRP VCK VST VSYNC HRET HSYNC Vertical Direction Timing Chart (S-XGA (1280 × 1024 dots displayed on 960 × 768 dots)) VP = 24/HEX, VPOL = 1, SLSX = 1, IRD = 000/HEX, IRU = 080/HEX, SLFR: L CXD2453Q CXD2453Q Application Circuit CXA2112R (when not using CXA2111R) SN74HC04 (Vcc = 5.0V) LCD Panel (POS CNT1) (POS CNT2) SN74HC244 (Vcc = 5.0V) (INV CNT) LCD Panel 10 SN74HC86 (Vcc = 5.0V) 10 47k SN74HC244 (Vcc = 5.0V) 10 10 47k 3.3V 10 0.1µ 10 VSS VCK BLK VST VDD FRP ENB PRG VSS PCG VSS HCK1 VSS HCK2 HST SHPA SHPB SHPC SHPD VB INV HB XRGT CLP2 RGT CLP1 39 40 67 XVS HRET 38 68 XHS VSS 37 69 IRACT TST9 36 70 ORACT TST8 35 71 VSS TST7 34 72 TST10 VDD 33 73 VDD VDD 32 74 TST11 VSS 31 75 TST12 SLCK2 30 76 TST13 HSYNC 29 77 VSS VSYNC 28 78 XCLR 10 0.1µ COMS TST6 27 SLCK1 26 80 TST15 VSS 25 10µ TST5 VSS CKI3 VSS SLFR 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 VDD 8 SLHR 7 TST4 TST2 6 TST3 SCTL 5 VSS SDAT 4 CKI4 SCLK 3 VSS VSS 2 VSS XCKI1 1 CKI2 CKI1 XCKI3 79 TST14 VSS 1µ 65 66 TST1 10k VSS DWN 64 63 62 61 60 59 58 57 56 55 54 53 52 51 50 49 48 47 46 45 44 43 42 41 0.1µ Driver IC/Circuit 10µ Differential SLCK1 0.1µ Serial data PLL IC∗ HSYNC VSYNC ∗ PLL IC: Sony CXA3106Q (built-in phase comparator and frequency divider) is recommended. Application circuits shown are typical examples illustrating the operation of the devices. Sony cannot assume responsibility for any problems arising out of the use of these circuits or for any infringement of third party patent and other right due to same. – 20 – CXD2453Q Package Outline Unit: mm 80PIN QFP(PLASTIC) 23.90 ± 0.40 3.35MAX 20.00 ± 0.20 0.05MIN 64 0.10 41 80 A B 25 24 0.25 0.30 0.16 M 0.58MAX 0.35 ± 0.10 0.18MAX 0.80 0.80 ± 0.20 1 0° to 10° DETAIL B DETAIL A PACKAGE STRUCTURE PACKAGE MATERIAL EPOXY RESIN SOLDER PLATING SONY CODE QFP-80P-L022 LEAD TREATMENT EIAJ CODE QFP080-P-1420 LEAD MATERIAL 42 ALLOY PACKAGE MASS 1.7g JEDEC CODE – 21 – 16.30 ± 0.40 INDEX 17.90 ± 0.40 40 14.00 ± 0.20 65