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  as1910 - as1915 dual-voltage microprocessor supervisory circuits with manual reset and watchdog austria micro systems data sheet www.austriamicrosystems.com revision 0.93 1 - 15 1 general description the as1910 - as1915 microprocessor supervisory cir- cuits were designed to generate a reset when one of the two monitored supply voltages falls below a factory- trimmed threshold, and to ma intain the reset for a mini- mum timeout period when both supplies are above their reset thresholds. guaranteed to be in the correct state for v cc higher than +1.0v, these devices are ideal for multiple-voltage systems with strict moni toring require- ments. the as1913/as1914/as1915 feature factory-trimmed thresholds to monitor a primary voltage between 1.8 and 3.6v, and a secondary voltage between 0.9 and 2.5v. for the as1910/as1911/as19 12, a secondary monitor- ing voltage can be user-adjusted via an external resistor divider down to 0.6v. the devices are available wit h the reset output types listed in ta b l e 1 . the as1910 - as1915 include a manual-reset input for systems that never fully pow er down the microproces- sor. additionally, these devic es feature a watchdog timer to help ensure that the processor is operating within proper code boundaries. the as1910 - as1915 are available in a 6-pin sot23 package. figure 1. typical application diagram 2 key features primary v cc supervisory range: +1.8 to +3.6v secondary v cc supervisory range: +0.9 to +2.5v (as1913/as1914/as1915) user-adjustable threshold down to +0.63v (as1910/as1911/as1912) guaranteed reset valid down to v cc = +1.0v reset timeout delay: 215ms manual reset input three reset output types - active-high push/pull - active-low push/pull - active-low open-drain watchdog timeout period: 1.5s immune to fast negative v cc transients external components not required 6-pin sot23 package 3 applications the devices are ideal for portable and battery-powered systems, embedded controllers, intelligent instruments, automotive systems, critical cpu monitoring, and any multi-supply application. table 1. standard products model reset output type as1910/as1913 active-low push/pull as1911/as1914 active-high push/pull as1912/as1915 active-low open-drain external reset cpu core supply i/o supply v cc v cc2 gnd resetn i/o 4 wdi 6 v cc 3 mrn gnd 2 1 resetn 5 v cc2 as1913/ as1915
www.austriamicrosystems.com revision 0.93 2 - 15 as1910 - as1915 austria micro systems data sheet 4 absolute maximum ratings stresses beyond those listed in table 2 may cause permanent damage to the device. these are stress ratings only, and functional operation of the de vice at these or any other cond itions beyond those indicated in section 5 electrical characteristics on page 3 is not implied. exposure to absolute maxi mum rating conditions for extended periods may affect device reliability. table 2. absolute maximum ratings parameter min max units comments v cc , v cc2 to gnd -0.3 +5.0 v open-drain resetn -0.3 +7.0 v push/pull reset, resetn -0.3 v cc + 0.3 v mrn, wdi, resetin to gnd -0.3 v cc + 0.3 v input current (v cc )20ma output current (reset, resetn) 20 ma continuous power dissipation (t amb = +70oc) 696 mw derate 8.7mw/oc above +70oc operating temperature range -40 +125 oc junction temperature +150 oc storage temperature range -65 +150 oc package body temperature +260 oc the reflow peak soldering temperature (body temperature) specified is in accordance with ipc/jedec j-std-020c ?moisture/reflow sensitivity classification for non-hermetic solid state surface mount devices?. the lead finish for pb-free leaded packages is matte tin (100% sn).
www.austriamicrosystems.com revision 0.93 3 - 15 as1910 - as1915 austria micro systems data sheet 5 electrical characteristics v cc = +2.7 to +3.6v for as19xx-t/s/r, v cc = +2.1 to +2.75v for as19xx- z/y, v cc = +1.53 to +2.0v for as19xx-w/v; t amb = -40 to +125oc (unless otherwi se specified). typ values @ t amb = +25c. table 3. electrical characteristics symbol parameter 1 conditions min typ max units v cc operating voltage range t amb = 0 to +85oc 1.0 3.6 v t amb = -40 to +125oc 1.2 3.6 i cc v cc supply current (mrn and wdi not connected) v cc = +3.6v, no load, t amb = -40oc to +85oc 5.8 13 a v cc = +3.6v, no load, t amb = -40 to +125oc 21 i cc2 v cc2 supply current v cc2 = +2.5v 2 a v th v cc reset threshold (v cc falling) t amb = -40 to +85oc as19xx-t 2.994 3.08 3.154 v t amb = -40 to +125oc 2.972 3.179 t amb = -40 to +85oc as19xx-s 2.848 2.93 3.000 t amb = -40 to +125oc 2.827 3.024 t amb = -40 to +85oc as19xx-r 2.556 2.63 2.693 t amb = -40 to +125oc 2.538 2.714 t amb = -40 to +85oc as19xx-z 2.255 2.32 2.376 t amb = -40 to +125oc 2.239 2.394 t amb = -40 to +85oc as19xx-y 2.129 2.19 2.243 t amb = -40 to +125oc 2.113 2.260 t amb = -40 to +85oc as19xx-w 1.623 1.67 1.710 t amb = -40 to +125oc 1.612 1.723 t amb = -40 to +85oc as19xx-v 1.536 1.58 1.618 t amb = -40 to +125oc 1.525 1.631 v th2 v cc2 reset threshold t amb = -40 to +85oc as19xx-z 2.237 2.313 2.387 v t amb = -40 to +125oc 2.232 2.394 t amb = -40 to +85oc as19xx-y 2.116 2.188 2.258 t amb = -40 to +125oc 2.111 2.265 t amb = -40 to +85oc as19xx-w 1.610 1.665 1.718 t amb = -40 to +125oc 1.607 1.723 t amb = -40 to +85oc as19xx-v 1.523 1.575 1.625 t amb = -40 to +125oc 1.520 1.630 t amb = -40 to +85oc as19xx-i 1.342 1.388 1.432 t amb = -40 to +125oc 1.339 1.437 t amb = -40 to +85oc as19xx-h 1.270 1.313 1.355 t amb = -40 to +125oc 1.267 1.359 t amb = -40 to +85oc as19xx-g 1.073 1.11 1.146 t amb = -40 to +125oc 1.071 1.149 t amb = -40 to +85oc as19xx-f 1.015 1.05 1.084 t amb = -40 to +125oc 1.013 1.087 t amb = -40 to +85oc as19xx-e 0.806 0.833 0.860 t amb = -40 to +125oc 0.804 0.862 t amb = -40 to +85oc as19xx-d 0.762 0.788 0.813 t amb = -40 to +125oc 0.760 0.816
www.austriamicrosystems.com revision 0.93 4 - 15 as1910 - as1915 austria micro systems data sheet reset threshold temperature coefficient 60 ppm/ oc reset threshold hysteresis 8 x v th mv v resetinth resetin threshold v resetinth falling, t amb = 0 to +85oc 0.615 0.630 0.645 v t amb = -40 to +125oc 0.61 0.65 resetin hysteresis 8 x v th mv i resetin resetin input current 2 t amb = -40 to +85oc -25 +25 na t amb = -40 to +125oc -100 +100 t rd v cc to reset output delay v cc = v th to (v th - 100mv) 55 s resetin to reset output delay v resetin = v resetinth to (v resetinth - 30mv) 45 s t rp reset timeout period t amb = -40 to +85oc 140 215 280 ms t amb = -40 to +125oc 100 320 v ol resetn output low (push/pull or open-drain) v cc 1.0v, i sink = 50a, reset asserted, t amb = 0 to +85oc 0.3 v v cc 1.2v, i sink = 100a, reset asserted 0.3 v cc 2.55v, i sink = 1.2ma, reset asserted 0.3 v cc 3.3v, i sink = 3.2ma, reset asserted 0.4 v oh resetn output high (push/pull only) v cc 1.8v, i source = 200a, reset not asserted 0.8 x v cc v v cc 3.15v, i source = 500a, reset not asserted 0.8 x v cc v cc 3.3v, i source = 800a, reset not asserted 0.8 x v cc i lkg open-drain r esetn output leakage current resetn not asserted 1.0 a t amb = +25oc 0.2 v oh reset output high (push/pull only) v cc 1.0v, i source = 1a, reset asserted, t amb = 0 to +85oc 0.8 x v cc v v cc 1.50v, i source = 100a, reset asserted 0.8 x v cc v cc 2.55v, i source = 500a, reset asserted 0.8 x v cc v cc 3.3v, i source = 800a, reset asserted 0.8 x v cc v ol reset output low (push/pull only) v cc 1.8v, i sink = 500a, reset asserted 0.3 v v cc 3.15v, i sink = 1.2ma, reset asserted 0.3 v cc 3.3v, i sink = 3.2ma, reset asserted 0.4 manual reset input v il mrn input voltage 0.3 x v cc v v ih 0.7 x v cc table 3. electrical characteristics (continued) symbol parameter 1 conditions min typ max units
www.austriamicrosystems.com revision 0.93 5 - 15 as1910 - as1915 austria micro systems data sheet mrn minimum input pulse 1 s mrn transient rejection 90 ns mrn to reset delay 130 ns mrn pullup resistance 25 50 75 k watchdog input t wd watchdog timeout period t amb = -40 to +85oc 1.12 1.5 2.4 s t amb = -40 to +125oc 0.80 2.60 t wdi wdi pulse width 2 20 ns v il wdi input voltage 0.3 x v cc v v ih 0.7 x v cc i wdi wdi input current wdi = v cc , time average 80 160 a wdi = 0, time average -20 -11 1. over-temperature limits are guaranteed by design and not production tested. devices tested at +25oc. 2. guaranteed by design and not production tested. table 3. electrical characteristics (continued) symbol parameter 1 conditions min typ max units
www.austriamicrosystems.com revision 0.93 6 - 15 as1910 - as1915 austria micro systems data sheet 6 typical operating characteristics t amb = +25oc (unless otherwise specified). figure 2. normalized reset threshold delay vs. figure 3. v out vs. v cc ; v cc2 = 2.50v, v th = 1.58v, temperature active-low (typ) figure 4. reset timeout period vs. temperat ure figure 5. supply current vs. temperature figure 6. v oh vs. i source ; v cc = 3.2v figure 7. v ol vs. i sink ; v cc = 3.2v -0.50 0.00 0.50 1.00 1.50 2.00 2.50 3.00 3.50 4.00 4.50 5.00 5.50 0 0.5 1 1.5 2 2.5 3 3.5 4 4.5 5 v cc (v) output voltage (v) e 0.94 0.96 0.98 1 1.02 1.04 1.06 -40 -20 0 20 40 60 80 100 120 temperature (c) reset threshold (v) e 3 4 5 6 7 8 9 10 -50 -25 0 25 50 75 100 125 temperature (c) v cc supply current (a) e v cc = 3.08v t version v cc = 1.58v v version 150 160 170 180 190 200 210 220 230 240 250 -40 -20 0 20 40 60 80 100 120 temperature (c) reset timeout periode (ms) 2.9 2.95 3 3.05 3.1 3.15 3.2 3.25 0 0.2 0.4 0.6 0.8 1 1.2 i source (ma) v out (v) ] 0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 0.4 0.45 0.5 01234567 i sink (ma) v out (v) e
www.austriamicrosystems.com revision 0.93 7 - 15 as1910 - as1915 austria micro systems data sheet pin assignments 7 pinout pin assignments figure 8. pin assignments (top view) pin descriptions table 4. pin descriptions pin number pin name description 1 resetn active-low reset output (as1910, as1912, as1913, as1915). the resetn signal toggles from high to low when v cc , v cc2 , or resetin input drops below the factory-trimmed reset threshold (see table 3 on page 3) , or mrn is pulled low, or the watchdog triggers a reset. this output signal remains low for the reset timeout period after all supervised voltages exceed their reset threshold, or mrn goes low to high, or the watchdog triggers a reset. reset active-high reset output (as1911, as1914). the reset sig nal toggles from low to high when v cc , v cc2 , or resetin input drop s below the factory-trimmed reset threshold (see table 3 on page 3) , or mrn is pulled low, or the watchdog triggers a reset. this output signal remains high for the reset timeout period (see t rp on page 4 ) after all supervised voltages exceed their reset threshold, or mrn goes low to high, or the watchdog triggers a reset. 2gnd ground 3mrn active-low manu al reset input . pulling this pin low asserts a reset. this pin is connected to the internal 50k pullup to v cc . this reset remains active as long as mrn is low and for the reset timeout period (see t rp on page 4 ) after mrn goes high. note: if the manual reset feature is not used, th is pin should be unconnected or connected to v cc . 4wdi watchdog input . if wdi remains high or low for longer than the watchdog timeout period (see t wd on page 5 ), the internal watchdog timer period expires and a reset is triggered for the reset timeout period (see t rp on page 4 ). the internal watchdog timer clears whenever a reset is a asserted or when wdi senses a rising or falling edge. note: to disable the watchdog feature, this pin must be unconnected or connected to a tri- state buffer output. 5 resetin user-adjustable supervised voltage input (as1910/as1911/as1912). this high- impedance pin serves as the input to the internal reset comparator. connect this pin to an external resistor-divider network to set the reset threshold voltage (down to 0.63v). v cc2 primary supervised voltage input (as1913/as1914/as1915). this pin serves as the secondary supervised voltage input. 6v cc primary supervised voltage input . this pin serves as the primary supervised voltage input. as1910 - as1915 2 gnd 3 mrn 1 resetn/reset 4 wdi 5 resetin/v cc2 6 v cc
www.austriamicrosystems.com revision 0.93 8 - 15 as1910 - as1915 austria micro systems data sheet reset/resetn 8 detailed description the as1910 - as1915 supervisory circuits were designed to generate a reset when one of the two monitored supply voltages falls below its factory-trimmed trip threshold (see v th on page 3 and v th2 on page 3 ), and to maintain the reset for a minimum timeout period (see t rp on page 4 ) after all supplies have stabilized. the integrated watchdog timer (see watchdog input on page 10) helps mitigate against bad programming code or clock signals, and/or poor peripheral response. an active-low manual reset input (see manual reset input on page 10) allows for an externally activated system reset. reset/resetn whenever one of the monitored voltages falls below its re set threshold, the reset out put (as1910, as1912, as1913, as1915) asserts low or the resetn outp ut (as1911, as1914) asse rts high. once all monito red voltages have stabi- lized, an internal timer keeps the reset asserted for the reset timeout period (t rp ). after the t rp period, the reset or resetn output return to their original state (see figure 10) . figure 9. functional diagram of v cc supervisory application figure 10. reset timing diagram as1913/as1914/as1915 reset timeout delay generator watchdog transition detector watchdog timer + ? 1.26v v cc 0.63v 1.26v 5 v cc2 2 gnd 6 v cc 4 wdi 1 resetn/ reset 3 mrn 1v t rd t rp t rp t rd v th v th v cc resetn reset gnd 1v
www.austriamicrosystems.com revision 0.93 9 - 15 as1910 - as1915 austria micro systems data sheet resetin figure 11. functional diagram of resetin supervisory application resetin the as1910/as1911/as 1912 feature a user-adj ustable supervisory voltage input (resetin). the threshold voltage for resetin is between 0.61 and 0.65v (0.63 typ). figure 12. voltage monitoring circuit to monitor a voltage higher than 0.63v, connect a resistor divider network to the circuit as shown in figure 12 . for the circuit shown in figure 12 , the threshold at v monitor is: v monitor_trip = 0.63v [(r 1 + r 2 )/r 2 ](eq 1) note: since resetin is powered by v cc , v resetin must not be larger than v cc . as1910/as1911/as1912 reset timeout delay generator watchdog transition detector watchdog timer v cc 0.63v + ? 1.26v 2 gnd 1 resetn/ reset 5 resetin 6 v cc 4 wdi 3 mrn as1910/ as1911/ as1912 r 1 r 2 v monitor v cc v resetin 5 resetin
www.austriamicrosystems.co m revision 0.93 10 - 15 as1910 - as1915 austria micro systems data sheet watchdog input watchdog input the integrated watchdog feature can be used to monitor proce ssor activity via pin wdi, and can detect pulses as short as 50ns. the watchdog requires that the processor toggle the watchdog logic input at regular intervals, within a speci- fied minimum timeout period (1.5s, typ). a reset is asserted for the reset timeout period. as long as reset is asserted, the timer remains cleared and is not incremented. when reset is deasserted, the watchdog timer starts counting ( figure 11 ). note: the watchdog timer can be cleared with a reset pulse or by toggling wdi. figure 13. watchdog timing relationship the watchdog is internally driven low during most (87.5%) of the watchdog timeout period (see t wd on page 5 ) and high for the rest of the watchdog timeout period. when pin wdi is left unconnected, this internal driver clears the watchdog timer every 1.4s. when wdi is tri-stated or is not connected, the maximum allowable leakage current is 10a and the maximum allowable load capacitance is 200pf. note: the watchdog function can be disabled by leaving pin wd i unconnected or connecting it to a tri-state output buffer. manual reset input the active-low pin mrn is used to force a manual reset. th is input can be driven by cmos logic levels or with open- drain collector outputs. pulling mrn low asserts a reset which will remain asserted as long as mrn is kept low, and for the timeout period (see t rp on page 4 ) after mrn goes high (140ms min). the manual reset circuitry has an internal 50k pullup resistor, thus it can be left open if not used. to create a manual-reset circuit, connect a normally open momentary switch from pin mrn to gnd (see figure 1 on page 1) ; external debounce circuitry is not required in this configuration. if mrn is driven via long cables or the device is used in a noisy environment, a 0.1f capacitor between pin mrn and gnd will provide additional noise immunity. t rst the reset signal is the inverse of the resetn signal. t wd v cc resetn wdi t rp t rp
www.austriamicrosystems.co m revision 0.93 11 - 15 as1910 - as1915 austria micro systems data sheet watchdog input current 9 application information watchdog input current the watchdog input is driven through an internal buffer an d an internal series resistor from the watchdog timer (see figure 11 on page 9) . when pin wdi is left unconnected (watchdog disabled), the watchdog timer is serviced within the watchdog timeout period (see t wd on page 5 ) by a low-high-low pulse from the counter chain. for minimum watchdog input current (minimum overall power consumption), pull wdi low for most of the watchdog timeout period, pulsing it low-high-low once within the first 7/8 (87.5%) of the watchdog timeout period to reset the watchdog timer. note: if wdi is externally driven high for the majority of the timeout period, up to 160a can flow into pin wdi. interfacing to bi-direct ional cpu reset pins since the reset outputs of the as1912 and as1915 are open drai n, these devices interface easily with processors that have bi-directional reset pins. connecting the processor reset output directly to the as1912/as1915 resetn pin with a single pullup resistor (see figure 14) allows the as1912/as1912 to assert a reset. figure 14. as1912 or as1915 resetn-to-cpu bi-directional reset pin fast negative-going transients fast, negative-going v cc transients normally do not require the cpu to be shutdown. the as1910 - as1915 are virtu- ally immune to such transients. resets are issued to the cpu during power-up, powerdown, and brownout conditions. note: v cc transients that go 100mv below the reset threshold and last 55s typically will not assert a reset pulse. valid reset to v cc = 0 the as1910 - as1915 are guaranteed to operate properly down to v cc = 1v. for applications requiring valid reset lev- els down to v cc = 0, a pulldown resistor to active-low outputs (push/pull only) and a pullup resistor to active-high out- puts (push/pull only) will ensure that the reset line is vali d during the interval where the reset output can no longer sink or source current. watchdog tips careful consideration should be taken when implementing the as1910 - as1915 watchdog feature. one method of supervising software code execution is to set/ reset the watchdog input at different places in the code, rather than pulsing the watchdog input high-low-high or low-hi gh-low. this method avoids a loop condition in which the watchdog timer would continue to be reset inside the loop, preventing the watchdog from ever timing out. figure 15 shows a flowchart where the input/output driving the watchdog is set high at the beginning of the routine, set low at the beginning of every subroutine, then set high again when the routine returns to the beginning. if the routine should hang in a subroutine, the problem would quickly be corrected, since the i/o is continually set low and the watch- dog timer is allowed to time out, causing a reset or interrupt to be issued (see watchdog input current on page 11) . this method results in higher averaged wdi input current over time than a case where wdi is held low for the majority (87.5%) of the timeout period and periodically pulsing it low-high-low. as1912/ as1915 cpu reset generator v cc resetn gnd v cc v cc 1 resetn gnd 2 v cc 6
www.austriamicrosystems.co m revision 0.93 12 - 15 as1910 - as1915 austria micro systems data sheet watchdog tips figure 15. example watchdog programming flowchart start set wdi high subroutine or program loop set wdi low return program code
www.austriamicrosystems.co m revision 0.93 13 - 15 as1910 - as1915 austria micro systems data sheet 10 package drawings and markings the devices are available in a 6-pin sot23 package. figure 16. 6-pin sot23 package notes: 1. all dimensions are in millimeters. 2. foot length measured at intercept point between datum a and lead surface. 3. package outline inclusive of mold flash 7 metal burr. 4. package outline inclusive of solder plating. 5. compliant with eiaj sc74a . 6. pkg st 0004 rev a supersedes sot23-d-2005 rev c. symbol min max a 0.90 1.45 a1 0.00 0.15 a2 0.90 1.30 b 0.30 0.50 c 0.09 0.20 d 2.80 3.05 e 2.60 3.00 e1 1.50 1.75 l 0.30 0.55 e 0.95ref e1 1.90ref 0o 8o
www.austriamicrosystems.co m revision 0.93 14 - 15 as1910 - as1915 austria micro systems data sheet 11 ordering information the devices are available as the standard products shown in table 5 . table 5. ordering information model marking reset output type thresholds delivery form package as1910s-t ash3 active-low push/pull 2.93v, adjustable tape and reel 6-pin sot23 as1910r-t ash4 active-low push/pull 2.63v, adjustable tape and reel 6-pin sot23 as1910z-t ash5 active-low push/pull 2.32v, adjustable tape and reel 6-pin sot23 as1910v-t ash6 active-low push/pull 1.58v, adjustable tape and reel 6-pin sot23 AS1911S-T ash7 active high push/pull 2.93v, adjustable tape and reel 6-pin sot23 as1911r-t ash8 active high push/pull 2.63v, adjustable tape and reel 6-pin sot23 as1911z-t ash9 active high push/pull 2.32v, adjustable tape and reel 6-pin sot23 as1911v-t asia active high push/pull 1.58v, adjustable tape and reel 6-pin sot23 as1912s-t asib open drain 2.93v, adjustable tape and reel 6-pin sot23 as1912r-t asic open drain 2.63v, adjustable tape and reel 6-pin sot23 as1912z-t asid open drain 2.32v, adjustable tape and reel 6-pin sot23 as1912v-t asie open drain 1.58v, adjustable tape and reel 6-pin sot23 as1913tz-t asif active-low push/pull 3.08v, 2.313v tape and reel 6-pin sot23 as1913sf-t asig active-low push/pull 2.93v,1.05v tape and reel 6-pin sot23 as1913vd-t asih active-low push/pull 1.58v, 0.788v tape and reel 6-pin sot23 as1914tz-t asii active high push/pull 3.08v, 2.313v tape and reel 6-pin sot23 as1914sf-t asij active high push/pull 2.93v,1.05v tape and reel 6-pin sot23 as1914vd-t asik active high push/pull 1.58v, 0.788v tape and reel 6-pin sot23 as1915tz-t asil open-drain 3.08v, 2.313v tape and reel 6-pin sot23 as1915sf-t asim open-drain 2.93v,1.05v tape and reel 6-pin sot23 as1915vd-t asin open-drain 1.58v, 0.788v tape and reel 6-pin sot23
www.austriamicrosystems.co m revision 0.93 15 - 15 as1910 - as1915 austria micro systems data sheet copyrights copyright ? 1997-200 5, austriamicrosystems ag, schloss premstaett en, 8141 unterpremstae tten, austria-europe. trademarks registered ?. all rights reserved. the materi al herein may not be reproduced, adapted, merged, trans- lated, stored, or used without the prior written consent of the copyright owner. all products and companies mentioned are trademarks or registered trademarks of their respective companies. disclaimer devices sold by austriamicrosystems ag are covered by t he warranty and patent indemni fication provisions appearing in its term of sale. austriamicrosystems ag makes no warranty, express, statutory, implied, or by description regarding the information set forth herein or regarding the freedom of the described devices from patent infringement. austriami- crosystems ag reserves the right to chang e specifications and prices at any time and without notice. therefore, prior to designing this product into a system, it is necessary to check with austriamicrosystems ag for current information. this product is intended for use in normal commercial a pplications. applications r equiring extended temperature range, unusual environmental requirements, or high reliability app lications, such as military, medical life-support or life- sustaining equipment are specifically not recommended withou t additional processing by austriamicrosystems ag for each application. for shipments of less than 100 parts the manufacturing flow might show deviations from the standard production flow, such as test flow or test location. the information furnished here by austriamicrosystems ag is believed to be correct and accurate. however, austriamicrosystems 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 ar ising out of the furnishing, performance or use of the tech- nical data herein. no obligation or liability to recipient or any third party shall arise or flow out of austriamicrosystems ag rendering of technical or other services. contact information headquarters austriamicrosystems ag a-8141 schloss premstaetten, austria tel: +43 (0) 3136 500 0 fax: +43 (0) 3136 525 01 e-mail: info@austriamicrosystems.com for sales offices, distributors and representatives, please visit: http://www.austriamicrosystems.com austria micro systems ? a leap ahead


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