TCFG series Tantalum capacitors Chip tantalum capacitors with open-function built-in TCFG series !Features 1) Safety design by open functiom built - in. 2) Wide capacitance range 3) Screening by thermal shock. !External dimensions (Units : mm) W1 L H S W2 S W2 W1 Max. Case code L W1 W2 H S P (2012) 2.0+ −0.2 3.2+ −0.2 0.9+ − 0.2 1.2+ −0.2 Max.1.20 A (3216) 1.25+ − 0.2 1.6+ −0.2 0.45+ −0.3 0.8+ − 0.3 B (3528) 3.5+ −0.2 2.8+ −0.2 1.9+ − 0.2 1.6+ −0.2 1.9+ − 0.2 0.8+ − 0.3 A 0 J 1 0 6 M 8 R T C 1 2 1 Series name TC/TCFG 4 3 5 6 4 Capacitance pF Code : 1st two digits represent significant figures, 3rd digit represent multiplier (number of zeros to follow) 2 Case code TC…………M,P,A TCFG…… P,A,B 3 Rated voltage Rataed voltage (V) 4 6.3 10 16 20 0G 0J 1A 1C 1D CODE 5 Capacitance Tolerance M : ±20％ K : ±10％ 6 Taping 8： Tape width (8mm) R：Anode is on the opposite side of the sprocket hole 1/15 TCFG series Tantalum capacitors !Capacitance range TCFG series Raited voltage (V.DC) µF 4 0G 6.3 0J 10 1A 16 1C 20 1D P P,A A P P,A A 1.0 1.5 2.2 P P P,A A 3.3 P P,A P,A A,B 4.7 P,A P,A P,A,B A,B 6.8 P,A P,A A,B A,B 10 P,A P,A,B A,B A,B 15 P,A,B P,A,B B 22 P,A,B A,B A,B ∗ A,B 33 A,B A,B B 47 A,B B B 68 B B 100 B B B ∗Please contact us about this product. typical example Valtge code P case (2012) Capacitance jJ -AA Valtge code A case (3216) j 106 YAA Valtge code B case (3528) Capacitance Capacitance 10 16V YAA 2/15 TCFG series Tantalum capacitors !Characteristics Item Performance Operating temperature −55˚C ~ +125˚C Max. operating temperature at rated voltage +85˚C Rated voltage (V. DC) Test methods / conditions (based on JIS C 5102, 5143) 4 6.3 10 16 20 Derated voltage (V. DC) 2.5 4 6.3 10 13 Surge voltage (V. DC) 5.2 8 13 20 26 at 125˚C Leakage current Less than or equal to the larger of 0.5µA or 0.01CV. Details are given in Table 1, "Standard Product List". Measured value 60s after application of rated voltage. Capacitance range 1.0 ~ 100µF Measured frequency: 120 ± 12Hz Measured voltage: 0.5Vrms + 1.5V. DC Measured circuit: equivalent series circuit tanδ P case 1µF to 4.7µF : 0.08 max. 6.8µF to 15µF : 0.10 max. A case 1µF max.: 0.04 max. 1.5µF to 22µF : 0.06 max. 33µF to 47µF : 0.08 max. Measured frequency: 120 ± 12Hz Measured voltage: 0.5Vrms + 1.5V. DC Measured circuit: equivalent series circuit B case 3.3µF to 47µF : 0.06 max. 68µF to 100µF : 0.08 max. P case 27.5Ω max. A case 20.0Ω max. B case 15.0Ω max. Appearance No noticeable irregularities, and the markings must be easy to read. L.C Must satisfy the initial specified value. ∆C / C A B case within ± 5% P case within ± 10% tanδ P case 1.5 times or less or initial specified tolerance. A B case must satisfy the initial specified value. Impedance Resistance to solder heat Open function operation Temperature cycle Appearance L.C Resistance to humidity (steady state) Measured frequency: 100 ± 10Hz Measured voltage: 0.5Vrms max. Measured circuit: equivalent series circuit Direct immersion into solder bath Solder bath temperature: 260 ± 5˚C Immersion time: 5s Immersion cycles: 1 time 320˚C for 20s or less Direct immersion into solder bath (320 ± 5˚C) No noticeable irregularities, and the markings must be easy to read. The four cycles in the table below are repeated five times in succession. Must satisfy the initial specified value. P case = Within 150% of initial limit. ∆C / C P case within ± 10% A B case within ± 5% tanδ P case 1.5 times or less or initial specified tolerance. A B case must satisfy the initial specified value. Appearance No noticeable irregularities, and the markings must be easy to read. L.C Must satisfy the initial specified value. ∆C / C P case within ± 20% A B case within ± 10% tanδ P case 1.5 times or less or initial specified tolerance. A B case must satisfy the initial specified value. Temperature 1 −55 ± 3˚C 2 Room temperature 125 ± 2˚C 3 4 Room temperature Time 30 ± 3mins. 3mins. max. 30 ± 3mins. 3mins. max. Measured after being left for 500 ± 12hrs. at 60 ± 2˚C and 90 to 95% RH, then 1 to 2 hrs. at normal room temperature and humidity. 3/15 TCFG series Tantalum capacitors Item Temperature characteristics Performance Test methods / conditions (based on JIS C 5102,5143) Temperature −55°C ∆C / C P case within +0% and −15% of the value before testing. A B case within +10% and −0% of the value before testing. tanδ P case within 1.5 times of the value before testing. A B case must satisfy the initial specified value. L.C − Temperature +85°C ∆C / C P case within +0% and −15% of the value before testing. A B case within +0% and −10% of the value before testing. tanδ Must satisfy the initial specified value. L.C Less than or equal to the larger of 5µA or 0.1CV. Temperature +125°C Surge resistance Hightemperature load Terminal strength ∆C / C P case within +20% and −0% of the value before testing. A B case within +15% and −0% of the value before testing. tanδ P case within 1.5 times of the value before testing. A B case must satisfy the initial specified value. L.C Less than or equal to the larger of 6.3µA or 0.125CV. Appearance A B case no noticeable irregularities, and the markings must be easy to read. L.C Must satisfy the initial specified value. ∆C / C P case within ± 10% A B case within ± 5% tanδ P case within 1.5 times of the value before testing. A B case must satisfy the initial specified value. Appearance No noticeable irregularities, and the markings must be easy to read. L. C Must satisfy the initial specified value. ∆C / C Within ± 10% tanδ P case within 1.5 times of the value before testing. A B case must satisfy the initial specified value. Capacitance Value must be stable during measurement. Appearance No noticeable irregularities. Apply the rated surge voltage for 30 ± 5s at intervals of 5 ± .05mins. 1000 times, with the temperature at 85 ± 2°C. Temp. Series Resistance Applied voltage Test time : 85 ± 2°C : 3Ωmax. : rated voltage : P case 1000 +36 − 0 hrs A B case 2000 +73 − 0 hrs meusure made after pieces shall be left for 1 to 2 hrs under room temp. and room humidity after test. Apply pressure to the device using the specified tool for 5s so that the center deflection is 1mm (see below). 50 20 (Units: mm) F (Direction of force) R230 1 45 45 4/15 TCFG series Tantalum capacitors Item Performance Adhesion Terminals must not detach. Test conditions With the device mounted on the printed circuit board, apply a force of 0.5kg f from each side for a period of 10 ± 1s. Device YAA C105 Force Printed circuit board External dimensions Markings Resistance to Marking must be easy to read. solvents Solderability Inspect the solder cover of the terminals using a solder immersion test Resistance to vibration Reverse polarity withstanding voltage Refer to "External dimensions" Measure using slide calipers that meet the requirements of JIS B7507 Class 2. Immerse in isopropyl alcohol for 30 ± 5s. At least 3 / 4 of the surface of the immersed terminals must be covered with new solder. Immersion speed: 25 ± 2.5mm / s Pre-processing (accelerated aging): leave for 1hr over boiling distilled water. Solder temperature: 235 ± 5°C Immersion time: 2 ± 0.5s Solder type: H63A Flux: rosin 25%, IPA 75% Vibrate in the X / Y axis at frequencies of 10~55~10Hz / minute for two hours each, with a total vibration amplitude of 1.5mm. Capacitance Value must be stable during measurement. Appearance No noticeable irregularities. Appearance No noticeable irregularities, and the markings must be easy to read. L.C Must be less than or equal to twice the initial specified value. ∆C / C Within ± 10% of the value before the test. tanδ Must be less than or equal to 1.5 times the initial specified value. Apply either 0.1 times the rated voltage, or 3V, whichever is smaller, via a series resister of 3Ωmax. and 0.1Ωmin. at a temperature of 85 ± 2°C. 5/15 TCFG series Tantalum capacitors !Table 1Standard list, TCFG series 6/15 TCFG series Tantalum capacitors (P : 2012 A : 3216 B : 3528) Part No. Rated voltage at 85°C Derated voltage at 125°C Surge voltage at 85°C (V) (V) (V) Leakage Capacitance Tolerance current at 25°C 1WV.60s (µA) (µF) (%) DF 120Hz 25°C Case code (%) TCF GP 0G 225 4 2.5 5.2 2.2 ±20,10 0.5 8 P TCF GP 0G 335 4 2.5 5.2 3.3 ±20,10 0.5 8 P TCF GP 0G 475 4 2.5 5.2 4.7 ±20,10 0.5 8 P TCF GA 0G 475 4 2.5 5.2 4.7 ±20,10 0.5 6 A TCF GP 0G 685 4 2.5 5.2 6.8 ±20,10 0.5 10 P TCF GA 0G 685 4 2.5 5.2 6.8 ±20,10 0.5 6 A TCF GP 0G 106 4 2.5 5.2 10 ±20,10 0.5 10 P TCF GA 0G 106 4 2.5 5.2 10 ±20,10 0.5 6 A TCF GP 0G 156 4 2.5 5.2 15 ±20,10 0.6 10 P TCF GA 0G 156 4 2.5 5.2 15 ±20,10 0.6 6 A TCF GB 0G 156 4 2.5 5.2 15 ±20,10 0.6 6 B TCF GA 0G 226 4 2.5 5.2 22 ±20,10 0.9 6 A TCF GB 0G 226 4 2.5 5.2 22 ±20,10 0.9 6 B TCF GA 0G 336 4 2.5 5.2 33 ±20,10 1.3 8 A TCF GB 0G 336 4 2.5 5.2 33 ±20,10 1.3 6 B TCF GA 0G 476 4 2.5 5.2 47 ±20,10 1.9 8 A TCF GB 0G 476 4 2.5 5.2 47 ±20,10 1.9 6 B TCF GB 0G 686 4 2.5 5.2 68 ±20,10 2.7 8 B TCF GB 0G 107 4 2.5 5.2 100 ±20,10 4.0 8 B TCF GP 0J 155 6.3 4 8 1.5 ±20,10 0.5 8 P TCF GP 0J 225 6.3 4 8 2.2 ±20,10 0.5 8 P TCF GP 0J 335 6.3 4 8 3.3 ±20,10 0.5 8 P TCF GA 0J 335 6.3 4 8 3.3 ±20,10 0.5 6 A TCF GP 0J 475 6.3 4 8 4.7 ±20,10 0.5 8 P TCF GA 0J 475 6.3 4 8 4.7 ±20,10 0.5 6 A TCF GP 0J 685 6.3 4 8 6.8 ±20,10 0.5 10 P TCF GA 0J 685 6.3 4 8 6.8 ±20,10 0.5 6 A TCF GP 0J 106 6.3 4 8 10 ±20,10 0.6 10 P TCF GA 0J 106 6.3 4 8 10 ±20,10 0.6 6 A TCF GB 0J 106 6.3 4 8 10 ±20,10 0.6 6 B TCF GA 0J 156 6.3 4 8 15 ±20,10 0.9 6 A TCF GB 0J 156 6.3 4 8 15 ±20,10 0.9 6 B TCF GA 0J 226 6.3 4 8 22 ±20,10 1.4 6 A TCF GB 0J 226 6.3 4 8 22 ±20,10 1.4 6 B TCF GA 0J 336 6.3 4 8 33 ±20,10 2.1 8 A TCF GB 0J 336 6.3 4 8 33 ±20,10 2.1 6 B TCF GB 0J 476 6.3 4 8 47 ±20,10 3.0 6 B 6.3 4 8 68 ±20,10 4.3 8 B TCF GB 0J 686 Tolerance (M : ±20%, K : ±10%) 7/15 TCFG series Tantalum capacitors (P : 2012 A : 3216 B : 3528) DF 120Hz 25°C Case code (V) (V) (V) (µF) (%) Leakage current at 25°C 1WV.60s (µA) TCF GP 1A 105 10 6.3 13 1.0 ±20,10 0.5 8 P TCF GP 1A 155 10 6.3 13 1.5 ±20,10 0.5 8 P TCF GA 1A 155 10 6.3 13 1.5 ±20,10 0.5 6 A TCF GP 1A 255 10 6.3 13 2.2 ±20,10 0.5 8 P TCF GA 1A 225 10 6.3 13 2.2 ±20,10 0.5 6 A TCF GP 1A 335 10 6.3 13 3.3 ±20,10 0.5 8 P TCF GA 1A 335 10 6.3 13 3.3 ±20,10 0.5 6 A TCF GP 1A 475 10 6.3 13 4.7 ±20,10 0.5 8 P 0.5 6 A Part No. Rated voltage at 85°C Derated voltage at 125°C Surge voltage at 85°C Capacitance Tolerance (%) TCF GA 1A 475 10 6.3 13 4.7 ±20,10 TCF GB 1A 475 10 6.3 13 4.7 ±20,10 0.5 6 B 0.7 6 A TCF GA 1A 685 10 6.3 13 6.8 ±20,10 TCF GB 1A 685 10 6.3 13 6.8 ±20,10 0.7 6 B TCF GA 1A 106 10 6.3 13 10 ±20,10 1.0 6 A TCF GB 1A 106 10 6.3 13 10 ±20,10 1.0 6 B TCF GA 1A 156 10 6.3 13 15 ±20,10 1.5 6 A TCF GB 1A 156 10 6.3 13 15 ±20,10 1.5 6 B TCF GB 1A 226 10 6.3 13 22 ±20,10 2.2 6 B TCF GB 1A 336 10 6.3 13 33 ±20,10 3.3 6 B TCF GB 1A 476 10 6.3 13 47 ±20,10 4.7 6 B TCF GP 1C 105 16 10 20 1.0 ±20,10 0.5 8 P TCF GA 1C 105 16 10 20 1.0 ±20,10 0.5 4 A TCF GA 1C 155 16 10 20 1.5 ±20,10 0.5 6 A TCF GA 1C 225 16 10 20 2.2 ±20,10 0.5 6 A TCF GA 1C 335 16 10 20 3.3 ±20,10 0.5 6 A TCF GB 1C 335 16 10 20 3.3 ±20,10 0.5 6 B TCF GA 1C 475 16 10 20 4.7 ±20,10 0.8 6 A TCF GB 1C 475 16 10 20 4.7 ±20,10 0.8 6 B TCF GA 1C 685 16 10 20 6.8 ±20,10 1.1 6 A TCF GB 1C 685 16 10 20 6.8 ±20,10 1.1 6 B TCF GB 1C 106 16 10 20 10 ±20,10 1.6 6 B TCF GB 1C 156 16 10 20 15 ±20,10 2.4 6 B TCF GB 1C 226 16 10 20 22 ±20,10 3.5 6 B TCF GA 1D 105 20 13 26 1.0 ±20,10 0.5 4 A Tolerance (M : ±20%, K : ±10%) 8/15 TCFG series Tantalum capacitors Taping Reel t2 0 −3 4.0 ± 0.1 2.0 ± 0.05 φ180 4.0 ± 0.1 +1 0 Product φ60 B 11.4 ± 1.0 φ13 ± 0.2 3.5 ± 0.05 A t1 8.0 ± 0.3 + 0.1 φ1.5 − 0 9.0 ± 0.3 Plastic reel 1.75 ± 0.1 TCFG Pull-out direction Case code A ± 0.1 B ± 0.1 t1 ± 0.05 P (2012) 1.55 2.3 0.25 t2 ± 0.1 1.5 A (3216) 1.9 3.5 0.25 1.9 B (3528) 3.3 3.8 0.25 2.2 Label position Some emboss tapes have the center hole on its bottom. EIAJ ETX - 7001comformed !Packaging style Part No. Package type TCFG Taping Packaging style Plastic taping φ180 mm reel Symbol R Basic ordering unit (pcs) 2,000 9/15 TCFG series Tantalum capacitors ! Electrical characteristics and operation notes (1) Soldering conditions (soldering temperature and soldering time) Reflow Preheat 280 170 TCFG 160 TEMPERATURE (°C) TEMPERATURE (°C) TCFG 150 140 130 0 60 90 120 150 260 240 220 200 0 180 10 20 30 40 50 60 70 TIME (sec) TIME (sec) Fig.1 Reflow (Infrared Ray, Hot Plate, Hot Air) 340 270 TCFG TCFG TEMPERATURE (°C) TEMPERATURE (°C) 260 250 240 230 220 320 300 280 210 200 0 2 4 6 8 10 12 14 16 0 5 10 15 20 TIME (sec) TIME (sec) Fig.2 Flow (Dipping wave soldering) Fig.3 Hand soldering (soldering gun output: 30W or less) 25 LEALKAGE CURRENT RATIO DCL / DCL (2) Leakage current-to-voltage ratio 1 0.1 0.01 0 20 40 60 80 100 % OF RATED VOLTAGE (VR) Fig.4 10/15 TCFG series Tantalum capacitors (3) Derating voltage as function of temperature PERCENT OF 85°C RVDC1 (VR) 100 125°C 85°C 90 Rated Voltage Surge Voltage Category Voltage Surge Voltage (V.DC) (V.DC) (V.DC) (V.DC) 4 5.2 2.5 3.4 6.3 8 4 5 10 13 6.3 9 16 20 10 12 20 26 13 16 80 70 60 50 75 85 95 105 115 125 TEMPERATURE (°C) Fig.5 (4) Reliability The malfunction rate of tantalum solid state electrolytic capacitors varies considerably depending on the conditions of usage (ambient temperature, applied voltage, circuit resistance). Formula for calculating malfunction rate λp = λb × (πE × πSR × πQ × πCV) λp λb πE πSR πQ πCV : Malfunction rate stemming from operation : Basic malfunction rate : Environmental factors : Series resistance : Level of malfunction rate : Capacitance For details on how to calculate the malfunction rate stemming from operation, see the tantalum solid state electrolytic capacitors column in MIL-HDBK-217. Malfunction rate as function of operating temperature and rated voltage 6.0 Ratio = Applied Voltage Rated Voltage 1.0 0.5 0.3 0.2 RESISTANCE COEFFICIENT (π) 1.0 FAILURE RATE COEFFICIENT Malfunction rate as function of circuit resistance (Ω/V) 0.7 0.1 0.5 0.06 0.03 0.02 0.3 0.01 20 4.0 2.0 1.0 0.8 0.6 0.4 0.1 40 60 85 0.1 0.2 0.4 0.6 1.0 2.0 3.0 OPERATING TEMPERATURE (°C) RESISTANCE OF CIRCUIT (Ω / V) Fig.6 Fig.7 11/15 TCFG series Tantalum capacitors (5) External temperature vs. fuse blowout (6) Power vs. fuse blowout characteristics / Product surface temperature 350 340 330 Failed Half failed 320 310 300 290 P case (2012) A case (3216) B case (3528) 90 OPERATING TIME (sec) EXTERNAL TEMPERATURE (°C) P case (2012) A case (3216) B case (3528) No failed 280 80 70 300 Open-function charcteristic Surface temp. 250 curve of the products 60 50 200 40 30 20 150 Operating area 10 270 260 1 10 0 0 1 2 No operating area 100 TIME (sec) 3 4 5 6 7 8 9 SURFACE TEMP. OF THE PRODUCT (°C) 100 360 10 ELECTRIC POWER (W) Fig.9 Fig.8 Note: Solder the chip at 300°C or less. If it is soldered using a temperature higher than 300°C, open function built-in may operate. (7) Maximum power dissipation Warming of the capacitor due to ripple voltage balances with warming caused by Joule heating and by radiated heat. Maximum allowable warming of the capacitor is to 5°C above ambient temperature. When warming exceeds 5°C, it can damage the dielectric and cause a short circuit. 2 Power dissipation (P) = I $ R Ripple current P : As shown in table at right R : Equivalent series resistance Notes: 1. Please be aware that when case size is changed, maximum allowable power dissipation is reduced. 2. Maximum power dissipation varies depending on the package. Be sure to use a case which will keep warming within the limits shown in the table below. Allowable power dissipation (W) and maximum temperature rising Ambient temp. +25°C +55°C +85°C +125°C P case (2012) 0.025 0.022 0.020 0.010 A case (3216) 0.070 0.063 0.056 0.028 B case (3528) 0.080 0.072 0.064 0.032 Max. temp. rise 5 5 5 2 Case 12/15 TCFG series Tantalum capacitors (8) Impedance frequency characteristics (9) ESR frequency characteristics 100 100000 A105 P case (2012) G475 A case (3216) C105 A case (3216) C335 B case (3528) 1000 100 A105 P case (2012) G475 A case (3216) C105 A case (3216) C335 B case (3528) 10 ESR (Ω) IMPEDANCE (Ω) 10000 1 10 1 0.1 1 100 10k 1M 1 100M 500M 100 10k 1M FREQUENCY (Hz) FREQUENCY (Hz) Fig.10 Fig.11 100M 500M (10) Temperature characteristics CAP 120Hz 10V−1µF P case (2012) 4V−4.7µF A case (3216) 4V−33µF B case (3528) 10 CAP CHANGE (%) 6 4 DF (%) 2 0 −2 −6 −10 −55 DF 120Hz 10V−1µF P case (2012) 4V−4.7µF A case (3216) 4V−33µF B case (3528) 5 3 2 1 25 85 125 0 −55 25 85 TEMPERATURE (°C) TEMPERATURE (°C) Fig.12 Fig.13 125 LC 1WV 10V−1µF P case (2012) 4V−4.7µF A case (3216) 4V−33µF B case (3528) 1000 LC (nA) 100 10 0 −55 85 25 125 TEMPERATURE (°C) Fig.14 13/15 TCFG series Tantalum capacitors Inrush current Beware of inrush current. Inrush currents are inversely proportional to ESR. Large inrush currents can cause component failure. 100 33µF Tantalum capacitor Aluminum electrolyte 33µF INRUSH CURRENT (A) 100µF 10 15µF 4.7µF 4.7µF 47µF 22µF 1 Vpp = 10V limit = 20A Pulse Width = 500µsec. Power OP Amp Slew Rate = 10V / 6µs 0.1 0.1 1 ESRΩ (100kHz) 10 100 Fig.16 Maximum inrush current and ESR Inrush current can be limited by means of a protective resistor. 100 R = 0Ω V I = 0.476 10 0.25 0.5 R 1.0 2.0 C I (A) SAMPLE 16V-3.3µF NEC Pulse width = 500µsec Slew rate = 10V-6µc Current limit = 20A 5.0 1 V I = 0.476 + R 0.1 0.1 1 V (V) 10 100 Fig.17 Imax change due to protective resistor R (11) Ultrasonic cleaning Carry out cleaning under the mildest conditions possible. The internal element of a tantalum capacitor are larger than those of a transistor or diode, so it is not as resistant to ultrasonic waves. Example : water Propagation speed Solvent density 1500m / s 3 1g / cm Frequency and wavelength Frequency Wavelength 20kHz 7.5cm 28kHz 5.3cm 50kHz 3.0cm Precautions 14/15 TCFG series Tantalum capacitors 1) Do not allow solvent to come to a boil (kinetic energy increases). 2 $ Ultrasonic output 0.5W / cm or less $ Use a solvent with a high boiling point. $ Lower solvent temperature. 2) Ultrasonic cleaning frequency 28 kHz or less 3) Keep cleaning time as short as possible. 4) Move item being cleaned. Standing waves caused by the ultrasonic waves can cause stress to build up in part of the item being cleaned. Reference Kinetic energy = 2 x π x frequency x 2 x ultrasonic output propagation speed x solvent density 15/15 Appendix Notes No technical content pages of this document may be reproduced in any form or transmitted by any means without prior permission of ROHM CO.,LTD. The contents described herein are subject to change without notice. The specifications for the product described in this document are for reference only. Upon actual use, therefore, please request that specifications to be separately delivered. Application circuit diagrams and circuit constants contained herein are shown as examples of standard use and operation. Please pay careful attention to the peripheral conditions when designing circuits and deciding upon circuit constants in the set. Any data, including, but not limited to application circuit diagrams information, described herein are intended only as illustrations of such devices and not as the specifications for such devices. ROHM CO.,LTD. disclaims any warranty that any use of such devices shall be free from infringement of any third party's intellectual property rights or other proprietary rights, and further, assumes no liability of whatsoever nature in the event of any such infringement, or arising from or connected with or related to the use of such devices. Upon the sale of any such devices, other than for buyer's right to use such devices itself, resell or otherwise dispose of the same, no express or implied right or license to practice or commercially exploit any intellectual property rights or other proprietary rights owned or controlled by ROHM CO., LTD. is granted to any such buyer. Products listed in this document use silicon as a basic material. Products listed in this document are no antiradiation design. The products listed in this document are designed to be used with ordinary electronic equipment or devices (such as audio visual equipment, office-automation equipment, communications devices, electrical appliances and electronic toys). Should you intend to use these products with equipment or devices which require an extremely high level of reliability and the malfunction of with would directly endanger human life (such as medical instruments, transportation equipment, aerospace machinery, nuclear-reactor controllers, fuel controllers and other safety devices), please be sure to consult with our sales representative in advance. About Export Control Order in Japan Products described herein are the objects of controlled goods in Annex 1 (Item 16) of Export Trade Control Order in Japan. In case of export from Japan, please confirm if it applies to "objective" criteria or an "informed" (by MITI clause) on the basis of "catch all controls for Non-Proliferation of Weapons of Mass Destruction. Appendix1-Rev1.0