73S8010R Low Cost Smart Card Interface DATA SHEET January 2008 DESCRIPTION The TERIDIAN 73S8010R is a single smart card interface IC. The TERIDIAN 73S8010R has been designed to provide full electrical compliance with ISO-7816-3 and EMV 4.0 (EMV2000) specifications. Interfacing with the host is done through the two-wire I2C bus, and one interrupt output to inform the system controller of the card presence and faults. The card clock signal can be generated by an on-chip oscillator using an external crystal, or by connection to a clock signal. The TERIDIAN 73S8010R incorporates an ISO-7816-3 activation/deactivation sequencer that controls the card signals. Level-shifters drive the card signals with the selected card voltage (3V or 5V), coming from an internal Low Drop-Out (LDO) voltage regulator. This LDO regulator is powered by a dedicated power supply input VPC. Digital circuitry is separately powered by a digital power supply VDD. ADVANTAGES • • • Greatly reduced power dissipation Fewer external components are required Better noise performance High current capability (90mA supplied to the card) • • • Card Interface: Complies with ISO-7816-3 and EMV 4.0 A LDO voltage regulator provides 3V / 5V to the card from an external power supply input Provides at least 90mA to the card ISO-7816-3 Activation / Deactivation sequencer with emergency automated deactivation on card removal or fault detected by the protection circuitry Protection includes 3 voltage supervisors that detects voltage drops on VCC card and on power supplies VDD and VPC The VDD voltage supervisor threshold value can be externally adjusted Over-current detection 150mA max. 1 card detection input Auxiliary I/O lines, for C4 / C8 contact signals CLK signal up to 20MHz • Host Interface: Fast mode, 400kbps I2C slave bus 8 possible devices in parallel One control register and one status register Interrupt output to the host for fault detection Crystal oscillator or host clock, up to 27MHz • Power Supply: VPC: 4.75V to 5.5V VDD: 2.7V to 5.5V 6kV ESD Protection on the card interface Package: SO28 or QFN32 Emergency card deactivation is initiated upon card extraction or upon any fault generated by the protection circuitry. The fault can be a card over-current, a VDD (digital power supply), a VPC (regulator power supply), a VCC (card power supply) or an over-heating fault. The card over-current circuitry is a true current detection function, as opposed to VCC voltage drop detection, as usually implemented in ICC interface ICs. APPLICATIONS • • • • Set-Top-Box Conditional Access and Pay-perView Point of Sales & Transaction Terminals Control Access & Identification Multiple card and SAM reader configurations Page: 1 of 24 Small format (5x5x0.8mm) QFN32 package option True card over-current detection FEATURES With its embedded LDO regulator, the TERIDIAN 73S8010R is a cost-effective solution for any application where a 5V (typically -5% +10%) power supply is available. Hardware support for auxiliary I/O lines, C4 / C8 contacts, is provided. The VDD voltage fault has a threshold voltage that can be adjusted with an external resistor or resistor network. It allows automated card deactivation at a customized VDD voltage threshold value. It can be used, for instance, to match the system controller operating voltage range. Single smart card interface IC firmware compatible with TDA8020 Traditional step-up converter is replaced by a LDO regulator: • • © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET FUNCTIONAL DIAGRAM VDD [20] 21 GND VDDF_ADJ [17] 18 [2] 5 VPC [3] 6 [4, 5, 6, 9, 16, 25, 32] 7, 8, 9 NC VPC FAULT [21] 22 [1] 4 VDD VOLTAGE SUPERVISOR VOLTAGE REFERENCE GND VDD FAULT VCC FAULT [18] 19 SCL Int_Clk [19] 20 SDA R-C OSC. I2C DIGITAL & FAULT LOGIC [29] 1 SAD0 [30] 2 SAD1 [31] 3 SAD2 [22] 23 INT LDO REGULATOR & VOLTAGE SUPERVISORS ISO-7816 SEQUENCER GND [12] 14 GND [15] 17 VCC ICC RESET BUFFER [14] 16 ICC CLOCK BUFFER [13] 15 RST CLK [7] 10 PRES [23] 24 XTALIN [24] 25 XTALOUT XTAL OSC CLOCK GENERATION OVER TEMP TEMP FAULT [8] 11 [26] 26 I/O IOUC [27] 27 AUX1UC ICC I/O BUFFERS [11] 13 AUX1 [10] 12 [28] 28 AUX2 AUX2UC Pin numbers reference to the SO28 package [Pin numbers] reference to the QFN32 Package Figure 1: 73S8010R Block Diagram Page: 2 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET PIN DESCRIPTION CARD INTERFACE NAME PIN (SO) PIN (QFN) DESCRIPTION I/O 11 8 Card I/O: Data signal to/from card. Includes a pull-up resistor to VCC. AUX1 13 11 AUX1: Auxiliary data signal to/from card. Includes a pull-up resistor to VCC. AUX2 12 10 AUX2: Auxiliary data signal to/from card. Includes a pull-up resistor to VCC. RST 16 14 Card reset: provides reset (RST) signal to card. CLK 15 13 Card clock: provides clock (CLK) signal to card. The rate of this clock is determined by crystal oscillator frequency and CLKSEL bits in the control register. PRES 10 7 Card Presence switch: active high indicates card is present. Includes a pull-down resistor. VCC 17 15 Card power supply – logically controlled by sequencer, output of LDO regulator. Requires an external filter capacitor to the card GND. GND 14 12 Card ground. MISCELLANEOUS INPUTS AND OUTPUTS NAME PIN (SO) PIN (QFN) XTALIN 24 23 Crystal oscillator input: can either be connected to crystal or driven as a source for the card clock. DESCRIPTION XTALOUT 25 24 Crystal oscillator output: connected to crystal. Left open if XTALIN is being used as external clock input. VDDF_ADJ 18 17 VDD threshold adjustment input: this pin can be used to overwrite higher VDDF value (that controls deactivation of the card). Must be left open if unused. 7, 8, 9 4, 5, 6, 9, 16, 25, 32 NC Non-connected pin. POWER SUPPLY AND GROUND PIN (SO) PIN (QFN) VDD 21 20 System controller interface supply voltage and supply voltage for internal circuitry. VPC 6 3 LDO regulator power supply source. GND 4 1 LDO regulator ground. Smart Card I/O Ground. NAME GND 14 12 GND 5, 22 2,21 Page: 3 of 24 DESCRIPTION Digital ground. © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET MICROCONTROLLER INTERFACE NAME PIN (SO) PIN (QFN) INT 23 22 SAD0 SAD1 SAD2 1 2 3 29 30 31 DESCRIPTION Interrupt output(negative assertion). Interrupt output signal to the processor. A 20kΩ pull up to VDD is provided internally Serial device address bits. Digital inputs for address selection that allows for the connection of up to 8 devices in parallel. Address selections as follows: SAD2 0 0 0 0 1 1 1 1 SAD1 0 0 1 1 0 0 1 1 SAD0 0 1 0 1 0 1 0 1 2 I C Address (7 bits) 40h 42h 44h 46h 48h 4Ah 4Ch 4Eh Note: Pins SADO and SAD1 are internally pulled-down and SAD2 is internally pulled-up. The default address when left unconnected is 48h. 2 SCL 19 18 I C clock signal input SDA 20 19 I C bi-directional serial data signal I/OUC 26 26 System controller data I/O to/from the card. Includes internal pull-up resistor to VDD AUX1UC 27 27 System controller auxiliary data I/O to/from the card. Includes internal pull-up resistor to VDD AUX2UC 28 28 System controller auxiliary data I/O to/from the card. Includes internal pull-up resistor to VDD Page: 4 of 24 2 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET SYSTEM CONTROLLER INTERFACE (I2C BUS) A fast-mode 400kHz I2C bus slave interface is used for controlling the device and reading the status of the device via the data pin SDA and clock pin SCL. The bus has 3 address select pins, SAD0, SAD1, and SAD2. This allows up to 8 devices to be connected in parallel. Device Address Selections SAD2 SAD1 SAD0 I2C Address (7 bits) 0 0 0 0 1 1 1 1 0 0 1 1 0 0 1 1 0 1 0 1 0 1 0 1 40h 42h 44h 46h 48h 4Ah 4Ch 4Eh 2 Note: bit 0 of the I C address is the R/W bit. Refer to figures 2 and 3 for usage. CONTROL register Power On Reset = 00h Name Bit Start/Stop 0 Warm reset 1 5Vand 3V 2 Clock Stop Clock Stop Level Clksel1 Clksel2 3 4 5 6 I/O enable 7 Description When set, initiates an activation and a cold reset procedure; when reset, initiates a deactivation sequence When set, initiates a warm reset procedure; automatically reset by hardware when the card starts answering or when the card is declared mute When set, VCC = 3v; when reset, VCC = 5v. When de-activating (setting bit 0 = 0) and operating with 3V (bit 2 =1), do not simultaneously set bit 2 =0. When set, the card clock is stopped. Bit 4 determines the card clock stop level When set, card clock stops high; when reset card clock stops low Bits 5 and 6 determine the clock rate to the. See card clock rate selection table for more details. I/O enable bit. When set, I/O is transferred on I/OUC; when reset I/O to I/OUC is high impedance. Card clock rate selection table Bit Clksel2 Bit Clksel1 Card Clock 0 0 1 1 0 1 0 1 Clkin/8 Clkin/4 Clkin/2 Clkin (Xtalin) Page: 5 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET I2C-bus Write to Control Register: I2C-bus Write command to the control register follows the format shown below. After the START condition, a slave address is sent by the master. This address is seven bits long followed by an eighth bit which is an opcode bit (R/W) – a ‘zero’ indicates the master will write data to the control register. After the R/W bit, the ’zero’ ACK bit is sent to the master by the device. The master now starts sending the 8 bits of data to the control register during the DATA bits. After the DATA bits, the ‘zero’ ACK bit is sent to the master by the device. The master should send the STOP condition after receiving this ACK bit. SDA MSB LSB MSB LSB SCL 1-7 START condition ADDRESS bits 8 9 R/W bit ACK bit 1-8 DATA bits 9 ACK bit STOP condition Figure 2 - I2C Bus Write Protocol STATUS register Power On Reset = 04h Name Bit PRES 0 Set when the card is present (pin PRES is high); reset when the card is not present. PRESL 1 Set when the PRES pin changes state (rising/falling edge); reset when the status register is read. Generates an interrupt when set. I/O 2 Set when I/O is high; reset when I/O is low. SUPL 3 Set when a voltage fault is detected; reset when the status register is read. Generates an interrupt when set PROT 4 Set when an over-current or over-heating fault has occurred during a card session; reset when the status register is read. Generates an interrupt when set MUTE 5 Set during ATR when the card has not answered during the ISO 7816-3 time window (40000 card clock cycles); reset when the next session begins. EARLY 6 Set during ATR when the card has answered before 400 card clock cycles; reset when the next session begin. ACTIVE 7 Set when the card is active (VCC is on); reset when the card is inactive. Page: 6 of 24 Description © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET I2C-bus Read from Status Register: I2C-bus Read Command from the Status Register follows the format shown below. After the START condition, a slave address is sent by the master. This address is seven bits long followed by an eighth bit which is an opcode bit (R/W) – a ‘one’ indicates the master will read data from the status register. After the R/W bit, the ’zero’ ACK bit is sent to the master by the device. The device now starts sending the 8-bit status register data to the control register during the DATA bits. After the DATA bits, the ‘one’ ACK bit is sent to the device by the master. The master should send the STOP condition after receiving the ACK bit. SDA MSB LSB MSB LSB SCL 1-7 START condition ADDRESS bits 8 9 R/W bit ACK bit 9 1-8 DATA bits STOP condition ACK bit Figure 3 - I2C Bus Read Protocol I2C-bus timing definition: SDA Tbuf SCL Thi T h d s ta T sudat T lo w Thddat T s u s to Figure 4 - I2C Bus Timing Definitions Symbol Parameter Fsclk Tlow Thi Thdsta Tsudat Thddat Tsusto Clock frequency Clock low Clock high Hold time START condition Data set up time Data hold time Set up time STOP condition Bus free time between a STOP and START condition Tbuf Page: 7 of 24 Min. 1.3 0.6 0.6 100 5 0.6 1.3 © 2005-2008 TERIDIAN Semiconductor Corporation Typ. Max. Unit 400 kHz µs µs µs ns ns µs 900 µs Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET POWER SUPPLY AND VOLTAGE SUPERVISON The TERIDIAN 73S8010R smart card interface IC incorporates a LDO voltage regulator. The voltage output is controlled by the digital input 5V/#V. This regulator is able to provide either 3V or 5V card voltage from the power supply applied on the VPC pin. Digital circuitry is powered by the power supply applied on the VDD pin. VDD also defines the voltage range to interface with the system controller. Three voltage supervisors constantly check the presence of the voltages VDD, VPC and VCC. A card deactivation sequence is forced upon fault of any of these voltage supervisors. The two voltage supervisors for VPC and VCC are linked so that a fault is generated to activate a deactivation sequence when the voltage VPC becomes lower than VCC. It allows the 73S8010R to operate at lower VPC voltage when using 3V cards only. The voltage regulator can provide a current of at least 90mA on VCC that comply easily with EMV 4.0 specification. The VPC voltage supervisor threshold values are defined from EMV 4.0 standard. A third voltage supervisor monitors the VDD voltage. It is used to initialize the ISO-7816-3 sequencer at power-on, and to deactivate the card at power-off or upon fault. The voltage threshold of the VDD voltage supervisor is internally set by default to 2.3V nominal. However, it may be desirable, in some applications, to modify this threshold value. The pin VDDF_ADJ (pin 18 in the SO package, pin 17 in the QFN package) is used to connect an external resistor REXT to ground to raise the VDD fault voltage to another value VDDF. The resistor value is defined as follows: REXT= 56kΩ /(VDDF - 2.33) An alternative method (more accurate) of adjusting the VDD fault voltage is to use a resistive network of R3 from the pin to supply and R1 from the pin to ground (see applications diagram). In order to set the new threshold voltage, the equivalent resistance must be determined. This resistance value will be designated Kx. Kx is defined as R1/(R1+R3). Kx is calculated as: Kx = (2.789 / VTH) - 0.6125 where VTH is the desired new threshold voltage. To determine the values of R1 and R3, use the following formulas. R3 = 24000 / Kx R1 = R3*(Kx / (1 – Kx)) Taking the example above, where a VDD fault threshold voltage of 2.7V is desired, solving for Kx gives: Kx = (2.789 / 2.7) - 0.6125 = 0.42046. Solving for R3 gives: R3 = 24000 / 0.42046 = 57080. Solving for R1 gives: R1 = 57080 *(0.42046 / (1 – 0.42046)) = 41412. Using standard 1 % resistor values gives R3 = 57.6KΩ and R1 = 42.4KΩ. These values give an equivalent resistance of Kx = 0.4228, a 0.6% error. If the 2.3V default threshold is used, this pin must be left unconnected. Page: 8 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET CARD POWER SUPPLY The card power supply is provided by the LDO regulator, and controlled by the digital ISO-7816-3 sequencer. Card voltage selection is carried out by bit 2 of the control register. Choice of the VCC capacitor: Depending on the applications, the requirements in terms of both VCC minimum voltage and transient currents that the interface must be able to provide to the card are different. An external capacitor must be connected between the VCC pin and to the card ground in order to guarantee stability of the LDO regulator, and to handle the transient requirements. The type and value of this capacitor can be optimized to meet the desired specification. The table below shows the recommended capacitors for each VPC power supply configuration and applicable specification. Specification Requirements System Requirements Min VCC Voltage allowed during transient current Max transient current charge Min VPC Power Supply required EMV 4.0 4.6V 30nA.s 4.75V ISO-7816-3 4.5V 20nA.s 4.75V Specification Capacitor Type X5R/X7R w/ ESR < 100mΩ Capacitor Value 3.3 µF 1µF Table 1: Choice of VCC pin capacitor OVER-TEMPERATURE MONITOR A built-in detector monitors die temperature. Upon over-temperature condition (most likely resulting from a heavily loaded card interface, including short circuits), a card deactivation sequence is initiated, and a fault condition is reported to the system controller (sets bit 4 of the status register and generates an interrupt). ON-CHIP OSCILLATOR AND CARD CLOCK The TERIDIAN 73S8010R device has an on-chip oscillator that can generate the smart card clock using an external crystal, connected between the pins XTALIN and XTALOUT, to set the oscillator frequency. When the card clock signal is available from another source, it can be connected to the pin XTALIN, and the pin XTALOUT should be left unconnected. The card clock frequency may be chosen between 4 different division rates, defined by bits 5 and 6 of the I2C Control register, as per the following table: Bit Clksel2 0 0 1 1 Bit Clksel1 0 1 0 1 Card Clock Clkin/8 Clkin/4 Clkin/2 Clkin (Xtalin) Card power down mode (card clock STOP) is supported and is controllable through the dedicated digital inputs bits 3 and 4 of the I2C Control register, respectively Clock Stop, and Clock Stop Level. Page: 9 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET ACTIVATION SEQUENCE After Power on Reset, the signal INT is low until the VDD is stable. When VDD has been stable for approximately 10 ms and the signal INT is high, the system controller may read the status register to see if the card is present. If all the status bits are satisfied, the system controller can initiate the activation sequence by writing a ‘1’ to Start/Stop bit (bit 0) of control register. The following steps show the activation sequence and the timing of the card control signals when the system controller initiates the Start/Stop bit (bit 0) of the control register: - Voltage VCC to the card should be valid by the end of t1. If VCC is not valid for any reason, then the session is aborted. Turn I/O to reception mode at the end of t1. CLK is applied to the card at the end of t2. RST (to the card) is set high at the end of t3. Start/Stop VCC IO CLK RST t1 t2 t3 t1 = 0.510 ms (timing by 1.5MHz internal Oscillator), I/O in reception mode t2 =1.5µs, CLK starts t3 = >42000 card clock cycles, RST set high Figure 5 - Activation Sequence Page: 10 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET DEACTIVATION SEQUENCE Deactivation is initiated either by the system controller by resetting the Start/Stop bit, or automatically in the event of hardware faults. Hardware faults are over-current, over-temperature, VDD fault, VPC fault, VCC fault, and card extraction during the session. The following steps show the deactivation sequence and the timing of the card control signals when the system controller clears the start/stop bit: - RST goes low at the end of t1. CLK goes low at the end of t2. I/O goes low at the end of t3. Out of reception mode. Shut down VCC at the end of time t4. Start/Stop RST CLK IO VCC t1 t1 = t2 = t3 = t4 = t2 t3 t4 > .5µs > 7.5µs > .5µs > .5µs Figure 6 - Deactivation Sequence Page: 11 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET INTERRUPT Interrupt is an active low interrupt. It is set low if any of these internal faults are detected: -VCC fault -VDD fault -VPC fault Or if one of these status bits condition is detected: -Early ATR -Mute ATR -Card insert or card extract -Protection status from Over-current or Over-heating In case the interrupt is set low by the detection of these status bits, then the interrupt is set high when these status bits are read. (READ STATUS DONE) INT ANY FAULT STATUS BITS READ STATUS DONE Figure 7 - FAULT Functions, INT operation Note that a power-on-reset event will reset all of the control and status registers to their default states. A VDD fault event does not reset these registers, but it will signal an interrupt condition and by the action of the timer that creates interval “t1,” not clearing the interrupt until VDD is valid for at least t1. VDD fault can be considered valid for VDD as low as 1.5 to 1.8 volts. At the lower range of VDD fault, POR will be asserted. Page: 12 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET WARM RESET The 73S8010R automatically asserts a warm reset to the card when instructed through the bit 1 of the I2C Control register (bit Warm Reset). The warm reset length is automatically defined as 42,000 card clock cycles. The bit Warm Reset is automatically reset when the card starts answering or when the card is declared mute. IO Warm Reset (bit 1) RST t1 t2 t3 t1 > 1.5µs, Warm Reset Starts t2 = 42000 card clock cycles, End of Warm Reset t3 = Resets Warm Reset bit 1 when detected ATR or Mute Figure 8 – Warm Reset operation Page: 13 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET I/O CIRCUITRY AND TIMING The states of the I/O, AUX1, and AUX2 pins are low after power-on-reset and they are high when the activation sequencer enables the I/O reception state. See Activation Sequence timing section for more details on when the I/O reception is enabled. The states of the I/OUC, AUX1UC, and AUX2UC are high after power on reset. When the control I/O enable bit 7 of control register is set, the first I/O line on which a falling edge is detected becomes the input I/O line and the other becomes the output I/O line. When the input I/O line rising edge is detected then both I/O lines return to their neutral state. The delay between these signals is shown in Figure 9. IO IOUC tIO_HL Delay from I/O to I/OUC: Delay from I/OUC to I/O: tIO_LH tIO_HL = 100ns tIOuc_HL = 100ns tIOUC_HL tIOUC_LH tIO_LH = 25ns tIOUC_LH = 25ns Figure 9 - I/O Timing Definition Page: 14 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010C Low Cost Smart Card Interface DATA SHEET TYPICAL APPLICATION SCHEMATIC AUX2UC_to/from_uC AUX1UC_to.from_uC See NOTE 5 I/OUC_to/from_uC See note 7 See NOTE 3 SAD0 External_clock_from uC SAD1 - OR - SAD2 C2 VDD VPC C4 100nF C5 10uF See note 2 1 2 3 4 5 6 7 8 9 10 11 12 13 14 SAD0 SAD1 SAD2 GND GND VPC NC NC NC PRES I/O AUX2 AUX1 GND AUX2UC AUX1UC I/OUC XTALOUT XTALIN INT GND VDD SDA SCL VDDF_ADJ VCC RST CLK 73S8010R 28 27 26 25 24 23 22 21 20 19 18 17 16 15 Y1 R3 Rext2 CRYSTAL 22pF C3 22pF See NOTE 4 See NOTE 1 VDD C6 R1 Rext1 SO28 100nF R4 R5 2K 2K See note 6 INT_interrupt_to_uC SDA_to/from_uC SCK_from_uC VDD ISO7816=1uF, EMV=3.3uF Low ESR (<100mohms) C1 should be placed near the SC connecter contact 8 7 6 5 4 3 2 1 C8 I/O VPP GND C4 CLK RST VCC 10 9 C1 SW-2 SW-1 R2 NOTES: Card detection 1) VDD = 2.7V to 5.5V DC. 20K switch is normally closed 2) VPC = 4.75V(EMV, ISO) to 5.5V DC 3) Required if external clock from uP is used. 4) Required if crystal is used. Y1, C2 and C3 must be removed if external clock is used. 5) Optional. Can be left open. 6) R1 and R3 are external resistors that adjust the VDD fault voltage. Can be left open. 7) Hardware to define address of device CLK track should be routed far from RST, I/O, C4 and C8. Smart Card Connector Figure 10: 73S8010R – Typical Application Schematic Page: 15 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET ELECTRICAL SPECIFICATION ABSOLUTE MAXIMUM RATINGS Operation outside these rating limits may cause permanent damage to the device. PARAMETER RATING Supply Voltage VDD -0.5 to 6.0 VDC Supply Voltage VPC -0.5 to 6.0 VDC Input Voltage for Digital Inputs -0.3 to (VDD +0.5) VDC Storage Temperature -60 to 150°C Pin Voltage (except card interface) -0.3 to (VDD +0.5) VDC Pin Voltage (card interface) -0.3 to (VCC + 0.5) VDC ESD Tolerance – Card interface pins +/- 6kV ESD Tolerance – Other pins +/- 2kV Note: ESD testing on smart card pins is HBM condition, 3 pulses, each polarity referenced to ground. RECOMMENDED OPERATING CONDITIONS Page: 16 of 24 PARAMETER RATING Supply Voltage VDD 2.7 to 5.5 VDC Supply Voltage VPC 4.75 to 5.5 VDC Ambient Operating Temperature -40°C to +85°C Input Voltage for Digital Inputs 0V to VDD + 0.3V © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET CHARACTERISTICS: CARD INTERFACE SYMBOL PARAMETER Condition MIN Typ. MAX UNIT -0.1 0.1 V -0.1 0.4 V 4.60 5.25 V Card Power Supply (VCC) Regulator General conditions, -40°C < T < 85°C, 4.75v < VPC < 5.5v, 2.7v < VDD < 5.5v Inactive mode VCC Card supply voltage including ripple and noise Inactive mode ICC = 1mA Active mode; ICC <65mA; 5v Active mode; ICC <90mA; 5v Active mode; ICC <90mA; 3v Active mode; single pulse of 100mA for 2µs; 5 volt, fixed load = 25mA Active mode; single pulse of 100mA for 2µs; 3v, fixed load = 25mA Active mode; current pulses of 40nAs with peak |ICC | <200mA, t <400ns; 5v Active mode; current pulses of 40nAs with peak |ICC | <200mA, t <400ns; 3v Static load current, VCC>4.6 or 2.7 volts as selected, 4.55 2.80 3.2 V 4.6 5.25 V 2.76 3.2 V 4.6 5.25 V 2.76 3.2 V ICCmax Maximum supply current to the card ICCF ICC fault current VSR VCC slew rate - Rise rate on activate CF = 3.3µF on VCC 0.02 VSF VCC slew rate - Fall rate on de-activate CF = 3.3µF on VCC CF External filter capacitor (VCC to GND) Page: 17 of 24 V 90 mA 100 150 mA 0.05 0.08 V/µs 0.025 0.06 0.08 V/µs 1 3.3 5 µF © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET SYMBOL PARAMETER Condition MIN Typ. MAX UNIT Interface Requirements – Data Signals: I/O, AUX1, AUX2, and host interfaces: I/OUC, AUX1UC, AUX2UC. ISHORTL, ISHORTH, and VINACT requirements do not pertain to I/OUC, AUX1UC, and AUX2UC. VOH Output level, high (I/O, AUX1, AUX2) ILEAK IIL Output level, high (I/OUC, AUX1UC, AUX2UC) Output level, low Input level, high (I/O, AUX1, AUX2) Input level, high (I/OUC, AUX1UC, AUX2UC) Input level, low Output voltage when outside of session Input leakage Input current, low ISHORTL Short circuit output current ISHORTH Short circuit output current tR, tF Output rise time, fall times tIR, tIF Input rise, fall times VOH VOL VIH VIH VIL VINACT Internal pull-up resistor FDMAX Maximum data rate Delay, I/O to I/OUC, I/OUC to I/O, AUX1 to AUX1UC, AUX1UC to AUX1, AUX2 to AUX2UC, AUX2UC to AUX2 Delay, I/O to I/OUC, I/OUC to I/O, AUX1 to AUX1UC, AUX1UC to AUX1, AUX2 to AUX2UC, AUX2UC to AUX2 Input capacitance TRDIO CIN Page: 18 of 24 0.9 VCC 0.75 VCC 0.9 VDD 0.75 VDD VCC+v0.1 VCC + 0.1 VDD+0.1 VDD + 0.1 0.3 V V V V V 1.8 VCC +0.30 V 1.8 VDD +0.30 V -0.3 0.8 0.1 0.3 10 0.65 V V V µA mA 15 mA 15 mA 100 ns 1 µs 14 kΩ 1 MHz 100 200 ns 25 90 ns 10 pF IOL = 0 IOL = 1mA VIH = VCC VIL = 0 For output low, shorted to VCC through 33 ohms For output high, shorted to ground through 33 ohms CL = 80pF, 10% to 90% For I/OUC, AUX1UC, AUX2UC, CL=50pF Output stable for >200ns RPU TFDIO IOH =0 IOH = -40µA IOH =0 IOH = -40µA IOL=1mA Falling edge from master to slave measured at 50% point 8 60 Rising edge from master to slave measured at 50% point © 2005-2008 TERIDIAN Semiconductor Corporation 11 Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET SYMBOL PARAMETER Condition MIN IOH =-200µA IOL=200µA IOL = 0 IOL = 1mA 0.9 VCC 0 Typ. MAX UNIT VCC 0.3 0.1 0.3 30 70 V V V V mA mA CL = 35pF for CLK, 10% to 90% 8 ns CL = 200pF for RST, 10% to 90% 100 ns 55 % MAX UNIT 0.8 VDD + 0.3 0.45 V V V V Reset and Clock for card interface, RST, CLK VOH VOL VINACT IRST_LIM ICLK_LIM tR, tF δ Output level, high Output level, low Output voltage when outside of session Output current limit, RST Output current limit, CLK Output rise time, fall time Duty cycle for CLK CL =35Pf, FCLK ≤ 20MHz 45 Condition MIN CHARACTERISTICS: DIGITAL SIGNALS SYMBOL PARAMETER Typ. Digital I/O except for OSC I/O VIL VIH VOL VOH Input Low Voltage Input High Voltage Output Low Voltage Output High Voltage ROUT Pull-up resistor, INT |IIL1| Input Leakage Current -0.3 0.7*VDD IOL = 2mA IOH = -1mA VDD - 0.45 20 GND < VIN < VDD kΩ -5 5 µA -0.3 0.7*VDD 0.5 VDD+0.3 V V GND < VIN < VDD -30 30 µA Condition MIN Typ. MAX UNIT 1.5 3.0 mA 0.45 0.65 mA Oscillator (XTALIN) I/O Parameters VILXTAL VIHXTAL IILXTAL Input Low Voltage - XTALIN Input High Voltage - XTALIN Input Current XTALIN DC CHARACTERISTICS SYMBOL PARAMETER IDD Supply Current on VDD IPC Supply Current on VPC Page: 19 of 24 VCC on, ICC=0 I/O, AUX1, AUX2=high © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET CHARACTERISTICS I2C INTERFACE SYMBOL PARAMETER Condition MIN Typ. MAX UNIT 0.3* VDD VDD + 0.3 0.40 10 250 V V V pF V ns 50 ns MAX UNIT 2.4 V SDA, SCL VIL VIH VOL CIN IIN TF TSP Input Low Voltage Input High Voltage Output Low Voltage Pin capacitance Output High Voltage Output fall time -0.3 0.7*VDD IOL = 3mA IOH = -1mA VDD - 0.45 20 + 0.1*CL CL = 0 to 400pF Transition from valid Pulse width of spikes that are logic level to opposite suppressed level VOLTAGE / TEMPERATURE FAULT DETECTION CIRCUITS SYMBOL VDDF VPCF VCCF TF Page: 20 of 24 PARAMETER VDD fault (VDD Voltage supervisor threshold) VPC fault (VPC Voltage supervisor threshold) VCC fault (VCC Voltage supervisor threshold) Die over temperature fault Condition MIN No external resistor on VDDF_ADJ pin 2.15 VPC<VCC, a transient event Typ. VCC - 0.2 V VCC = 5v 4.20 4.55 V VCC= 3v 2.5 2.7 V 115 145 °C © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET MECHANICAL DRAWING (QFN) 0 .8 5 N O M . / 0 .9 M A X . 5 0 .0 0 / 0 .0 0 5 2.5 0 .2 0 R E F . 1 2.5 2 3 5 S E A T IN G PLANE TOP VIEW S ID E V IE W 0.35 / 0.45 3.0 / 3.75 0.18 / 0.3 CHAMFERED 0.30 1.5 / 1.875 1 2 3 3.0 / 3.75 0.25 1.5 / 1.875 0.5 0.2 MIN. 0.35 / 0.45 0.5 0.25 BOTTOM VIEW Figure 11: QFN 32 Page: 21 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET CAUTION: Use handling procedures necessary for a static sensitive component PACKAGE PIN DESIGNATION (QFN) NC SAD2 SAD1 SAD0 AUX2UC AUX1UC I/OUC NC 32 31 30 29 28 27 26 25 (Top View) GND 1 24 XTALOUT GND 2 23 XTALIN VPC 3 22 INT NC 4 21 GND NC 5 20 VDD NC 6 19 SDA PRES 7 18 SCL I/O 8 17 VDDF_ADJ 9 10 11 12 13 14 15 16 NC AUX2 AUX1 GND CLK RST VCC NC TERIDIAN 73S8010R Figure 12: QFN32 73S8010R Pin Out Page: 22 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET MECHANICAL DRAWING (SO) .050 TYP. (1.270) .305 (7.747) .285 (7.239) PIN NO. 1 BEVEL .715 (18.161) .695 (17.653) .420 (10.668) .390 (9.906) .0115 (0.29) .003 (0.076) .110 (2.790) .092 (2.336) .016 nom (0.40) .335 (8.509) .320 (8.128) Figure 13: 28 Lead SO PACKAGE PIN DESIGNATION (SO) CAUTION: Use handling procedures necessary for a static sensitive component (Top View) SAD0 1 28 AUX2UC SAD1 2 27 AUX1UC SAD2 3 26 I/OUC GND 4 25 XTALOUT GND 5 24 XTALIN VPC 6 23 INT NC 7 22 GND NC 8 21 VDD NC 9 20 SDA PRES 10 19 SCL I/O 11 18 VDDF_ADJ AUX2 12 17 VCC AUX1 13 16 RST GND 14 15 CLK 73S8010R Figure 14: 28SO 73S8010R Pin Out Page: 23 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5 73S8010R Low Cost Smart Card Interface DATA SHEET ORDERING INFORMATION PART DESCRIPTION 73S8010R -SOL 28-pin Lead-Free SO 73S8010R -SOL 28-pin Lead-Free SO Tape / Reel 73S8010R -QFN 32-pin Lead-Free QFN 73S8010R -QFN 32-pin Lead-Free QFNTape / Reel ORDER NO. PACKAGING MARK 73S8010R -IL/F 73S8010R -IL 73S8010R -ILR/F 73S8010R -IL 73S8010R -IM/F 73S8010R 73S8010R -IMR/F 73S8010R Data Sheet This final data sheet is proprietary to TERIDIAN Semiconductor Corporation (TSC) and sets forth design goals for the described product. The data sheet is subject to change. TSC assumes no obligation regarding future manufacture, unless agreed to in writing. If and when manufactured and sold, this product is sold subject to the terms and conditions of sale supplied at the time of order acknowledgment, including those pertaining to warranty, patent infringement and limitation of liability. TERIDIAN Semiconductor Corporation (TSC) reserves the right to make changes in specifications at any time without notice. Accordingly, the reader is cautioned to verify that a data sheet is current before placing orders. TSC assumes no liability for applications assistance. TERIDIAN Semiconductor Corp. • 6440 Oak Canyon, Suite 100 • Irvine, CA • 92618-5201 TEL (714) 508-8800 • FAX (714) 508-8877 http://www.teridian.com 01/17/08 Rev 1.5 Page: 24 of 24 © 2005-2008 TERIDIAN Semiconductor Corporation Rev 1.5