AS6200 AMSCO | Alldatasheet
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[v1-01] 2016-Jun-17 Document Feedback AS6200 Temperature Sensor The AS6200 IC is a high accuracy temperature sensor system that communicates via a 2 wire digital bus with other devices. It consists of a Si bandgap temperature sensor, an ADC and a digital signal processor. It has a very high temperature accuracy (±0.4°C for AS6200) and an ultra-low power consumption (low operation and quiescent current) which makes it ideall y suited for mobile/battery powered applications. The AS6200 is an easy to integrate and use solution, featuring an factory calibrated sensor, integrated linearization and the possibility to use 2 different I²C addresses, enabling to use two AS6200 devices on one bus. Additionally the AS6200 temperature sensor system also features an alert functionality, which triggers e.g. an interrupt to protect devices from excessive temperatures. Ordering Information and Content Guide appear at end of datasheet. Key Benefits & Features The benefits and features of AS6200, Temperature Sensor are listed below: Figure 1: Added Value of Using AS6200 Benefits Features
- High Measurement Accuracy (max. values)
- Low Power Consumption • 6 μA @Operation (typ. @ 4 Hz)
- 0.1 μA@Standby (typ.)
- Supply Voltage Range • 1.8V to 3.6 V
- Wide Operating Temperature • -40°C to 125°C
- Small PCB Footprint • 1.6 mm x 1.0 mm (WLCSP) General Description
Document Feedback [v1-01] 2016-Jun-17 AS6200 − General Description
Applications
- HVAC and thermostat controls
- Medical instrumentation
- Body temperature measurement
- Mobile devices
- Thermal monitoring for smartphones, tablets and cameras
- Smart watches and wearables
- Industrial
- Industrial automation
- Cold chain monitoring Figure 2: Typical Application Environment of the AS6200 Temperature Sensor In Figure 2 a typical application of th e AS6200 is shown. It is connected via a serial bus (I²C) with a microcontroller. The sensor system is also connected to the microcontroller via the “Alert” pin which can be used to trigger events in case the temperature exceeds defined limits. Micro- controller (Bus Master) VDD 10nF VDD Address Select Slave Serial InterfaceInterrupt Pull-up resistors RPU SDA VDD ADD0 SCL ALERT VSS AS6200
[v1-01] 2016-Jun-17 Document Feedback AS6200 − General Description Block Diagram The functional blocks of this device are shown below: Figure 3: Functional Blocks of the AS6200 In Figure 3 all relevant blocks of the AS6200 temperature sensor are shown. The sensing element is a Si bipolar transistor. The analog signal is transformed by the A/D converter in a digital signal which is processed by the DSP and written into the registers. The data in the register can be accessed by the serial bus (I²C). A/D Converter AS6200 Temperature Sensor Analog Frontend Digital Signal Processing Oscillator Control Logic Registers I2C Interface Alarm ADD0 SCL SDA VDD VSS
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Absolute Maximum Ratings Stresses beyond those listed under Absolute Maximum Ratings may cause permanent damage to the device. These are stress ratings only. Functional operation of the device at these or any other conditions beyond those indicated under Operating Conditions is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Figure 6: Absolute Maximum Ratings Symbol Parameter Min Max Units Comments Electrical Parameters VDD /VSS Supply Voltage to Ground -0.3 4 V ISCR Input Current (latch-up immunity) -100 100 mA JEDEC JESD78D Electrostatic Discharge ESDHBM Electrostatic Discharge HBM ±2 kV MIL-STD-833J-3015.9 Temperature Ranges and Storage Conditions TA Operating Temperature -40 125 °C TJ Junction Temperature 150 °C TSTRG Storage Temperature Range -55 150 °C TBODY Package Body Temperature 260 °C IPC/JEDEC J-STD-020 The reflow peak soldering temperature (body temperature) is specified according to IPC/JEDEC J-STD-020 “Moisture/Reflow Sensitivity Classification for Non-hermetic Solid State Surface Mount Devices. ” RH NC Relative Humidity non-condensing 58 5 % MSL Moisture Sensitivity Level 1 Maximum floor life time is unlimited Absolute Maximum Ratings
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Electrical Characteristics Operating Conditions Figure 7: Operating Conditions Analog System Parameters Figure 8: Analog System Parameters Note(s): 1. The accuracy is based on measurements and reflects 4,5 σ statistics. Symbol Parameter Min Typ Max Units Note VDD DC supply voltage 1.8 3.0 3.6 V Reference to VSS T _ A M B A m b i e n t t e m p e r a t e- 4 0 1 2 5° C Symbol Parameter Min Typ Max Unit Note VDD Supply voltage 1.8 2.0 3.0 3.0 3.6
3.6 V T = 0°C to 150°C
T = -40°C to 150°C T Temperature range -40 125 °C IDD Standby consumption 0.1 0.3 0.4 9.0 μA T= -40°C to 65°C T= 65°C to 125°C IDD Current consumption (4 conversions/s) 16 μA T = -40°C to 65°C Serial bus inactive T = 65°C to 125°C Serial bus inactive T_ERR Accuracy (1) -0.4 0.4 1 °C T = 0°C to 65°C T = -40°C to 125°C N Resolution 12 Bits Normal mode (TMAX=128°C) TS Conversion time 24 32 40 ms NS Conversion rate 0.25 0.35 1.35 5.5 10.7 Conv/s CR[1:0]=00 CR[1:0]=01 CR[1:0]=10 CR[1:0]=11
Electrical Characteristics
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Data Width, Bit D4 For AS6200 only the 12 bit mode is supported by the device, which means that the DW should always be set to 0. Alert, Bit D5 The alert bit can be used to easily compare the current temperature reading to the thresholds that can be set in the TLOW and THIGH registers. If the polarity bit is set to 0, the AL bit is read as 1 until the converted temperature value exceeds the defined value in the high temperature threshold register THIGH for the number of defined consecutive faults (bits CF). Such an event causes the AL bit to toggle to 0 and the va lue is kept until the converted temperature value falls below the defined value in the low temperature threshold register TLOW for the number of defined consecutive faults. If this condition is met, the AL bit is reset to 1. The polarity bit (POL) defines the active state of the alert bit as depicted in the following figure. The alert bit has the same setting as the alert output as long as the device is configured for the comparator mode. Figure 13: State Diagram of the Alert Bit Conversion Rate, Bit D6-D7 The conversion rate bits defi ne the number of executed temperature conversions per time unit. Additional readouts of the temperature register between conversion is possible but not recommended because the value is changed only after a conversion is finished. Values of 125ms, 250ms, 1s and 4s per conversion can be configured while the default rate is set to 250ms. This corresponds to a value of 4 conversions per second. AL = 1 AL = 0 T > THIGH for N consecutive cycles T < TLOW for N consecutive cycles POL = 0: AL = 0 AL = 1 T > THIGH for N consecutive cycles T < TLOW for N consecutive cycles POL = 1:
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Sleep Mode, Bit D8 The sleep mode is activated by setting the bit SM in the configuration register to 1. This shuts the device down immediately and reduces the power consumption to a minimum value. The serial interface is the only active circuitry in the sleep mode in order to provide access to the digital registers. After resetting the SM bit to 0, the device enters the continuous conversion mode. Figure 16: Sleep Mode Configuration Interrupt Mode, Bit D9 The interrupt mode bit defines whether the device operates in the temperature comparator mode or interrupt mode. This defines the operation mode of the ALERT output as described in the polarity bit section. Figure 17: Interrupt Mode Configuration The comparator mode is characterized that if the temperature value exceeds the THIGH value, the alert output is changed (e.g. from high to low if the polarity bit is set to 0 and vice versa). The alert output stays in that condition until the measured temperature drops below the defined TLOW value. The interrupt mode is characterized that it changes the alert output as soon as the measured temperature crosses the THIGH or TLOW value threshold. The alert bit has the same setting as the alert output if the device is set to comparator mode. SM Bit Operation Mode
0 Continuous Conversion Mode
0 Comparator Mode
1 Interrupt Mode
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Consecutive Faults, Bits D11-D12 A fault condition persists if the measured temperature either exceeds the configured value in register THIGH or falls below the defined value in register TLOW. As a result, the ALERT pin indicates the fault condition if a defined number of consecutive temperature readings meets this fault condition. The number of consecutive faults are define d with two bits (D12 and D11) and prevent a false alert if environmental temperature noise is present. The register configuration is shown in the following table. Figure 20: Consecutive Faults Bit Settings Single Shot Conversion, Bit D15 The device features a single shot measurement mode if the device is in sleep mode (SM=1). By setting the “Single Shot-bit” to 1, a single temperature conversion is started and the SS-bit can be read as 1 during the active conversion operation. Once the conversion is completed, the device enters the sleep mode again and the SS-bit is set to 0. The single shot conversion allows very low power consumption since a temperature conversion is executed on demand only. This allows a user defined timing of the temperature conversions to be executed and is used if the consecutive operation mode is not required. As the device exhibits a very short conversion time, the effective conversion rate can be increased by setting the single shot bit repetitively after a conversion has finished. However, it has to be ensured that the additional power is limited, otherwise self-heating effects have to be considered. Figure 21: Single Shot Conversion Bit Settings CF Bits Consecutive Faults (N) D12 D11 00 1 01 2 10 4 11 6 SS Bit Conversion
0 No conversion ongoing/conversion finished
1 Start Single Shot conversion /conversion ongoing
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Detailed Descriptions High- and Low-Limit Registers If the comparator mode is configured (IM=0), the ALERT output becomes active if the temperature equals or exceeds the defined value in register THIGH for the configured number of consecutive faults (N). This conf iguration is defined by the field CF in the configuration regist er. The ALERT output remains assigned until the converted temperature value equals or falls below the defined value in register TLOW for the same number of consecutive fault cycles. If the interrupt mode is configured (IM=1), the ALERT output becomes active if the temperature equals or exceeds the defined value in register THIGH for the configured number of consecutive fault cycles. It remains active until a read operation is executed on any register. The ALERT output is also cleared if the device is set into sleep mo de by setting bit SM in the configuration register. Once the ALERT output is cleared, it is activated again only if the temperature value falls below the configured value in register TLOW. It remains active unless a read operation has taken place. This sequence is repeated un less the device is set into the comparator mode or reset by the General Call Reset command. This reset command clears the interrupt mode bit and consequently puts the device into the comparator mode. The sequential behavior is summarized in the following figure.
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Figure 22: ALERT Operation Modes The following table defines the content of the registers TLOW and THIGH. For data transmission, the MSB byte is transmitted first, followed by the LSB byte. The data format for representing the threshold temperatures is equal to the temperature register (TVAL). After a powerup, the registers are initialized with the following default values: ALERT output cleared ALERT output active ALERT output cleared ALERT output active T ≥ THIGH for N consecutive cycles Read operation or Set to sleep mode T ≤ TLOW for N consecutive cycles Read operation or Set to sleep mode Interrupt Mode ALERT output cleared ALERT output active Comparator Mode T ≥ THIGH for N consecutive cycles T ≤ TLOW for N consecutive cycles IM=1IM=0General Reset Command
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions The binary values can be calculated according to the following formulas: Positive values: |Value| / LSB Negative values: Complement( |Value| / LSB ) + 1 Example 75°C: 75ºC / 0.0625ºC = 1200 = Binary 0100 1011 0000 = Hex 4B0 Example -40°C: |-40ºC| / 0.0625ºC + 1 = 640 + 1 = Binary 0010 1000 0000 + 1 = 1101 0111 1111 + 1 = 1101 1000 0000 = Hex D80 Figure 26: Temperature Conversion Examples Temperature (°C) Digital Output (Binary) Digital Output (Hex) 100.0 0110 0100 0000 640 75.0 0100 1011 0000 4B0 50.0 0011 0010 0000 320 25.0 0001 1001 0000 190 0.125 0000 0000 0010 002 0.0625 0000 0000 0001 001 0.0 0000 0000 0000 000 -0.0625 1111 1111 1111 FFF -0.125 1111 1111 1110 FFE -25.0 1110 0111 0000 E70 -40.0 1101 1000 0000 D80
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Detailed Descriptions Serial Interface The device employs a standard I²C-Interface. Bus Description A data transfer must be invoked by a master device (e.g. microcontroller) which defines the access to the slave device. The master device defines and generates the serial clock (SCL) and the start/stop conditions. In order to address a specific device, a START condition has to be generated by the master device by pulling the data line (SDA) from a logic high level to a logic low level while the serial clock signal (SCL) is kept at high level. After the start condition, the sl ave address byte is transmitted which is completed with a nint h bit which indicates a read (bit=’1’) or a write operation (bit=’0’) respectively. All slaves read the data on the rising edge of the clock. An acknowledge signal is generated by the a ddressed slave during the ninth clock pulse. This acknowledge signal is produced by pulling the pin SDA to a low level by the selected slave. Subsequently, the byte data transfer is started and finished by an acknowledge bit. A change in the data signal (SDA) while the clock signal (SCL) is high causes a START or STOP condition. Hence, it must be ensured such a condition is prevented during a data transfer phase. After completing the data transfer, the master generates a STOP condition by pulling the data line (SDA) from low level to high level while the clock signal (SCL) is kept at high level. Data Interface A bus connection is created by connecting the open drain input/output lines SDA and SCL to the two wire bus. The inputs of SDA and SCL feature Schmitt-trigger inputs as well as low pass filters in order to suppress noise on the bus line. This improves the robustness against spikes on the two wire interface. Both fast transmission mode (1 kHz to 400kHz) and high-speed transmission mode (1kHz to 3.4MHz) are employed to cover different bus speed settings. Any data transfer transmits the MSB first and the LSB as last bit.
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Bus Address A slave address consists of seven bits, followed by a data direction bit (read/write operation). The slave address can be selected from a pool of two different address settings by connecting the input pin ADD0 to an appropriate signal as summarized in the following table. The ADD0 must not be left unconnected. Figure 27: I²C Address Select Configuration Read/Write Operation In order to access an internal data register, the index register must be written in advance. This register contains the actual register address and selects the appropriate register for an access. A typical transfer consists of the transmission of the slave address with a write operation indication, followed by the transmission of the register address and is finalized with the actual register content data tr ansfer. This implies that every write operation to the temperature sensor device requires a value for the index register prior to the transmission of the actual register data. The index register defines the regi ster address for both the write and read operation. Consequent ly, if a read operation is executed, the register address is taken from the index register which was defined from the last write operation. If a different register needs to be read, the index register has to be written in advance to define the new register address. This is accomplished by transmitting the slave address with a low R/W bit, followed by the new content of the index register. Subsequently, the master provokes a START condition on the bus and transmits the slave address with a high R/W bit in order to initiate a read operation. Since the index register always keeps its last value, reads can be executed repetitively on the same register. Similarly to the byte transfer wh ere the MSB is transmitted first, the transfer of a 16-bit word is executed by a two byte transfer whereas the MSB byte is always transmitted first. ADD0 Connection Device Address (bin) Device Address (hex) VSS 100 1000 0x48 VDD 100 1001 0x49
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Detailed Descriptions Slave Operation The device employs a slave functionality only (slave transmitter and slave receiver) and cannot be operated as a bus master. Consequently, the device never actively drives the SCL line. Slave Receiver Mode Any transmission is invoked by the master device by transmitting the slave address with a low R/W bit. Subsequently, the slave device acknowledges the reception of the valid address by pulling the ninth bit to a low level. Following to acknowledge, the master transmits the content of the index register. This transfer is again acknowledged by the slave device. The next data byte(s) are written to the actual data register which is selected by the index register while each transfer is acknowledged upon a completed transfer by the slave device. A data transfer ca n be finished if the master transmits a START or a STOP condition on the bus. Slave Transmitter Mode The master transmits the slave a ddress with a high R/W bit. In turn, the slave acknowledges a valid slave address. Subsequently, the slave transmit s the MSB byte of the actual selected data register by the index register. After the MSB byte transmission, acknowledge is sent by the master. Afterwards, the LSB byte is transmitted by the slave which is also acknowledged by the master after the completed transmission. The data transfer can be terminated by the master by transmitting a Not-Acknowledge after the transmitted slave data or by invoking a START or a STOP condition on the bus. Alert Function If the device is configured for an interrupt mode operation (IM=1), the ALERT output can be used as an alert signal. If the polarity bit is set to ‘0’ (P OL=’0’), the alert condition bit is set to ‘0’ in case the temperature has exceeded the configured value in register THIGH. Accordin gly, the alert condition bit is set to ‘1’ if the temperature has fallen below the configured value in register TLOW. If the polarity bit is set to ‘1’ (P OL=’1’), the alert condition bit is inverted. The following table summarizes the status of the alert condition bit with different alert conditions and polarity configurations.
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Figure 28: Alert Condition Bit General Call A general call is issued by the master by transmitting the general call address (000 0000) with a low R/W bit. The slave device acknowledges the general call address and responds to commands in the second byte. If the master transmits a value of 0000 0110 as a second byte, the device is reset and all registers are initialized with their default values. In contrast to the General Call Address, the General Address Acquire command is not supported. High Speed Mode The bus operation is limited to 400kHz unless a high speed command is issued by the master device as the first byte after a START condition. This switches the bus to a high speed operation which allows data transfer frequencies up to 3.4MHz. Such a command is not acknowledged by the slave but the input filter time constants on the serial interface (SDA and SCL) are adapted to allow the higher transfer rate. After a high speed command, the slave address is transmitted by the master in order to invoke a data transfer. The bus keeps operating at the higher operating frequency until the master issues a STOP condition on the serial bus. Upon the reception of the STOP condition by the slav e, the input filters are switched to their initial time constants which allow lower transfer rates only. POL Alert Condition Alert Condition Bit (AC-Bit) 0T ≥ THIGH 0 0T ≤ T L O W 1 1T ≥ THIGH 1 1T ≤ T L O W 0
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Detailed Descriptions Summary of Bus Commands Figure 29: Summary of Bus Commands Timeout Function The serial interface of the slave de vice is reset if the clock signal SCL is kept low for typ. 30ms. Such a condition results in a release of the data line by the slave in case it has been pulled to low level. The slave remains inactive after a timeout and waits for a new START command invoked by the bus master. In order to prevent a timeout, the bus tran sfer rate must be higher than 1kHz. Bus Conditions The following conditions occur on the serial bus which is compatible to the I²C-Bus.
- B u s I d l e : The signals SDA and SCL are not actively driven and pulled to a high level by an external pull-up resistor.
- Start Data Transfer: A transition of the SDA input from high to low level while the SCL signal is kept at high level results in a START condition. Such a START condition must precede any data transfer.
- Stop Data Transfer: A transition of the SDA input from low to high level while the SCL signal is kept at high level results in a STOP condition. An y data transfer is finished by generating a STOP or START condition.
- Data Transfer: The master device defines the number of data bytes between a START an d STOP condit ion and there is no limitation in the amount of data to be transmitted. If it is desired to read only a single MSB byte without the LSB byte, a termination of the data transfer can be provoked by issuing a START or STOP condition on the bus.
- Acknowledge: It is mandatory for each slave device to respond with acknowledge if the device is addressed by the master. Acknowledge is indicated by pulling down the data line (SDA) while the clock signal (SCL) is high in the acknowledge clock phase. In order to avoid an unwanted START or STOP condition on the bus, setup and hold times must be met. The master can signal an en d of data transmission by transmitting a Not-Acknowle dge on the last transmitted data byte by keeping the ac knowledge bit at high level. Command Address Data Value General Call Address 000 0000 Device initialization 0000 0110 General Address Acquire Not supported High Speed Command 0000 1xxx
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Detailed Descriptions Timing Diagrams The following timing diagrams depict the different bus operation modes and data transmission. Figure 32: Timing Diagram for Word Write 1234567891234567 89 SCL SDA 10010 A 1 A 0 R / W 000000 I X 1 I X 0 Start by master Values are defined by ADD0 pin setting Frame 1: Slave Address Byte Frame 2: Index Register Byte 123456789 123456789 SCL SDA Frame 3: MSB Data Byte Frame 4: LSB Data Byte D7 D6 D5 D4 D3 D2 D1 D0 D6 D5 D4 D3 D2 D1D7 D0 (Continued) (Continued) Acknowledge by slave Acknowledge by slave Acknowledge by slave Acknowledge by slave Stop by master
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Detailed Descriptions Figure 33: Timing Diagram for Word Read 1234567891234567 89 SCL SDA 10010 A 1 A 0 R / W 000000 I X 1 I X 0 Start by master Values are defined by ADD0 pin setting Frame 1: Slave Address Byte Frame 2: Index Register Byte 123456789 123456789 SCL SDA Frame 3: Slave AddressByte Frame 4: Register MSB Data Byte D6 D5 D4 D3 D2 D1D7 D0 (Continued) (Continued) Acknowledge by slave Acknowledge by slave Acknowledge by slave Stop by master
10010 A 1 R/WA0
Frame 5: Register LSBData Byte D6 D5 D4 D3 D2 D1D7 D0 Acknowledge by master Stop by master
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Application Information Figure 34: Typical Application for the AS6200 Temperature Sensor In Figure 34 the connections of th e AS6200 temperature sensors to a microcontroller and the supply voltage are shown. The AS6200 is connected to a microcontroller via an I²C bus (SDA and SCL only). Additionally the Alert output can also be used for temperature monitoring (e.g. using the interrupt mode, refer to IM bit settings), an example is given in Figure 34 where the Alert output is connected to a microcontroller. The I²C of the AS6200 address of the can be selected by connecting the ADD0 pin to VDD or VSS (refer to Figure 27 ). This pin must not be left unconnected.
Application Information
(Bus Master) VDD 10nF VDD Address Select Slave Serial InterfaceInterrupt Pull-up resistors RPU SDA VDD ADD0 SCL ALERT VSS AS6200
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Package Drawings & Markings Figure 37: Mechanical Dimensions of the WLCSP Package Package Drawings & Markings A B Rows 321 Columns A3 A2 A1 B3 B2 B1 dx X Y dy d ax ay dx ax ayBottom View SCL VSS ALERT SDA VDD ADD0 A B Rows 123 Columns A3A2A1 B3B2B1 Top View SCLVSSALERT SDAVDDADD0 Green RoHS
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Ordering & Contact Information Figure 41:
Ordering Information
Buy our products or get free samples online at: www.ams.com/ICdirect Technical Support is available at: www.ams.com/Technical-Support Provide feedback about this document at: www.ams.com/Document-Feedback For further information and requests, e-mail us at: ams_sales@ams.com For sales offices, distributors and representatives, please visit: www.ams.com/contact Headquarters ams AG Tobelbaderstrasse 30
8141 Premstaetten
Austria, Europe Tel: +43 (0) 3136 500 0 Website: www.ams.com Ordering Code Package Marking Delivery Form Delivery Quantity AS6200-AWLT-S WLCSP AS6200 7” Tape and Reel in dry pack 500 pcs/reel AS6200-AWLT-L WLCSP AS6200 13” Tape and Reel in dry pack 5000 pcs/reel Ordering & Contact Information
[v1-01] 2016-Jun-17 Document Feedback AS6200 − RoHS Compliant & ams Green Statement RoHS: The term RoHS compliant means that ams AG products fully comply with current RoHS directives. Our semiconductor products do not contain any chemicals for all 6 substance categories, including the requirement that lead not exceed 0.1% by weight in homogeneous materials. Where designed to be soldered at high temperatures, RoHS compliant products are suitable for use in specif ied lead-free processes. ams Green (RoHS compliant and no Sb/Br): ams Green defines that in addition to RoHS compliance, our products are free of Bromine (Br) and Antimony (Sb) based flame retardants (Br or Sb do not exceed 0.1% by weight in homogeneous material). Important Information: The information provided in this statement represents ams AG knowledge and belief as of the date that it is provided. ams AG bases its knowledge and belief on information provided by third parties, and makes no representation or warranty as to the accuracy of such information. Efforts are unde rway to better integrate information from third parties. ams AG has taken and continues to take reasonable steps to prov ide representative and accurate information but may not have conducted destructive testing or chemical analysis on incoming materials and chemicals. ams AG and ams AG suppliers consider certain information to be proprietary, and thus CAS numbers and other limited information may not be available for release. RoHS Compliant & ams Green Statement
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Copyrights & Disclaimer Copyright ams AG, Tobelbader St rasse 30, 8141 Premstaetten, Austria-Europe. Trademarks Registered. All rights reserved. The material herein may not be reproduced, adapted, merged, translated, stored, or used with out the prior written consent of the copyright owner. Devices sold by ams AG are covered by the warranty and patent indemnification provisions appe aring in its General Terms of Trade. ams AG makes no warranty, express, statutory, implied, or by description regarding th e information set forth herein. ams AG reserves the right to ch ange specifications and prices at any time and without notice. Therefore, prior to designing this product into a system, it is necessary to check with ams AG for current information. This product is intended for use in commercial applications. Applications requiring extended temperature range, unusual environmental requirements, or high reliability applications , such as military, medical life-support or life-sustaining equipment are specifically not recommended without additional processing by ams AG for each application. This product is provided by ams AG “AS IS” and any express or implied wa rranties, including, but not limited to the implied warranties of merchantability and fitness for a particular purpose are disclaimed. ams AG shall not be liable to recipient or any third party for any damages, including but not limited to personal injury, property damage, loss of profits, loss of use, interruption of business or indirect, special, incidental or consequential damages, of any kind, in connection with or arising out of the furnishing, performance or use of the technical data herein. No obligation or liability to recipient or any th ird party shall arise or flow out of ams AG rendering of technical or other services. Copyrights & Disclaimer
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Document Status Document Status Product Status Definition Product Preview Pre-Development Information in this datasheet is based on product ideas in the planning phase of development. All specifications are design goals without any warranty and are subject to change without notice Preliminary Datasheet Pre-Production Information in this datasheet is based on products in the design, validation or qualification phase of development. The performance and parameters shown in this document are preliminary without any warranty and are subject to change without notice Datasheet Production Information in this datasheet is based on products in ramp-up to full production or full production which conform to specifications in accordance with the terms of ams AG standard warranty as given in the General Terms of Trade Datasheet (discontinued) Discontinued Information in this datasheet is based on products which conform to specifications in accordance with the terms of ams AG standard warranty as given in the General Terms of Trade, but these products have been superseded and should not be used for new designs Document Status
Document Feedback [v1-01] 2016-Jun-17 AS6200 − Revision Information Note(s): 1. Page and figure numbers for the previous version may diff er from page and figure numbers in the current revision. 2. Correction of typographical er rors is not explicitly mentioned. Changes from 1-00 (2016-Jun-16) to current revision 1-01 (2016-Jun-17) Page Updated Figure 6 5 Revision Information
[v1-01] 2016-Jun-17 Document Feedback AS6200 − Content Guide
1 General Description
1 Key Benefits & Features
2 Applications
3 Block Diagram
4 Pin Assignments
5A b s o l u t e M a x i m u m R a t i n g s
6 Electrical Characteristics
6 Operating Conditions
6 Analog System Parameters
7 Detailed Descriptions
7 Digital System Parameters
8 Configuration Register
9 Data Width, Bit D4
9A l e r t , B i t D 5