UM4684H

UM4684 0.5Ω Low-Voltage Dual SPDT Analog Switch UM4684H CSP10 2.0×1.5 UM4684EEUE MSOP10 General Description The UM4684 is a sub 1Ω (0.5Ω at 2.7V) dual SPDT analog switch designed for low voltage applications. The UM4684 has on-resistance matching(less than 0.05Ω at 2.7V) and flatness (less than 0.2Ω at 2.7V) that are guaranteed over the entire voltage range. Additionally, low logic thresholds make the UM4684 an ideal interface to low voltage DSP control signals. The UM4684 has fast switching speed with break-before-make guaranteed. In the ON condition, all switching elements conduct equally in both directions. OFF-isolation and crosstalk is -69dB at 100kHz. The UM4684 is built on high-density low voltage CMOS process, and contains the additional benefit of 2000V ESD protection. As a committed partner to the community and the environment, Union manufactures this product with lead (Pb)-free device terminations. Applications Features               Cellular Phones Speaker Headset Switching Audio and Video Signal Routing PCMCIA Cards Battery Operated Systems Relay Replacement Power Routing Communication Circuits     CSP10 & MSOP10 Packages ESD Protection >2000V +1.8V to +5.5V Single Supply Operation NC Switch RON: 0.5Ω (+2.7V Supply) NO Switch RON: 0.6Ω (+2.7V Supply) RON Match between Channels: 0.05Ω Max (+2.7V Supply) RON Flatness over Signal Range: 0.2Ω Max (+2.7V Supply) 1.8V Logic Compatibility Low Crosstalk: -69dB (100kHz) High Off-Isolation: -69dB (100kHz) Ordering Information Part Number Temp. Range Packaging Type Marking Code UM4684H -40°C to 85°C CSP10 2.0×1.5 A UM4684EEUE -40°C to 85°C MSOP10 UM4684EEUE Shipping Qty 3000pcs/7 Inch Tape & Reel 4000pcs/13 Inch Tape & Reel _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 1/12 UM4684 Pin Configurations Top View A M (Top View) M: Month Code UM4684H CSP10 2.0×1.5 (Top View) UM4684 EEUE XX XX: Week Code UM4684EEUE MSOP10 Ball Mapping for UM4684H Transparent Top View _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 2/12 UM4684 Pin Description Pin Name Pin Number CSP10 MSOP10 2.0×1.5 Function NC_ A1, C1 5, 7 Analog Switch—Normally Closed Terminal IN_ A2, C2 4, 8 Digital Control Input COM_ A3, C3 3, 9 Analog Switch—Common Terminal NO_ A4, C4 2, 10 Analog Switch—Normally Open Terminal V+ B4 1 Positive Supply Voltage Input GND B1 6 Ground Function Table IN_ 0 1 NO_ OFF ON NC_ ON OFF Absolute Maximum Ratings (Note 1) Parameter Voltage on V+ Pin (Reference to GND) Voltage on IN_, COM_, NC_, NO_ Pins (Note 2) (Reference to GND) Continuous Current (NO_, NC_, COM_) Peak Current (Pulsed at 1 ms, 10% Duty Cycle) Storage Temperature Package Solder Reflow Conditions IR/Convection (Note 3) ESD per Method 3015.7 Power Dissipation (Packages) (Note 4) CSP10 (Note 5) Value -0.3 to +6 Unit V -0.3 to (V++0.3) V ±300 ±500 -65 to 150 250 >2 457 mA mA °C °C kV mW Note 1: Stresses beyond those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only and functional operation of the device at these or any other conditions beyond those indicated in the operational sections of the specifications are not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. Note 2: Signals on NC_, NO_, or COM_ or IN_ exceeding V+ will be clamped by internal diodes. Limit forward diode current to maximum current ratings. Note 3: Refer to IPC/JEDEC (J-STD-020B). Note 4: All bumps welded or soldered to PC Board. Note 5: Derate 5.7mW/°C above 70°C. _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 3/12 UM4684 Electrical Characteristics (V+=3V, ±10% deviation, VIN=0.5 or 1.4V (Note 6)) Parameter Symbol Test Conditions Otherwise Unless Specified Temp (Note 7) Limits (-40°C to 85°C) Min Typ Max (Note 9) (Note 8) (Note 9) Unit Analog Switch Analog Signal Range (Note 10) VNO VNC VCOM Full On-Resistance (Note 10) Ron Room Full RON Flatness (Note 10) Ron Flatness On-Resistance Match Between Channels (Note 10) ΔRDS(on) Switch Off Leakage Current Channel-On Leakage Current INO(off), INC(off) ICOM(off) ICOM(on) V+=2.7V, VCOM=0.6/1.5V, INO, INC=100mA V+=3.3V, VNO,VNC=0.3V/3V, VCOM=3V/0.3V V+=3.3V, VNO, VNC=VCOM =0.3V/3V 0 V+ 0.5 V 0.8 1.0 Room 0.15 Room 0.05 Room Full -2 -20 2 20 Room Full -2 -20 2 20 Room Full -2 -20 2 20 1.4 Ω nA Digital Control Input High Voltage (Note 10) VINH Full Input Low Voltage VINL Full Input Capacitance CIN Full Input Current IINL or IINH VIN=0 or V+ Full V 0.5 10 -1 pF 1 μA Dynamic Characteristics Turn-On Time tON VNO or VNC=2.0V, RL=50Ω, CL=35pF Room Full Room Full Turn-Off Time tOFF Break-Before-Make Time td VNO or VNC=2.0V, RL=50Ω, CL=35pF Full Charge Injection (Note 10) QINJ CL=1nF, VGEN=1.5V, RGEN=0Ω Off-Isolation (Note 10) OIRR Crosstalk (Note 10) XTALK -3dB Bandwidth BW 1 52 82 90 43 73 78 ns 6 ns Room 21 pC RL=50Ω, CL=5pF, f=100kHz Room -69 Room -69 RL=50Ω, CL=5pF Room 20 dB MHz _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 4/12 UM4684 NO NC Off Capacitance (Note 10) Channel On Capacitance (Note 10) CNO(off) CNC(off) CNO(on) CNC(on) VIN=0 or V+ , f=1MHz Room Room 145 145 Room Room 406 406 pF Power Supply Power Supply Range V+ Power Supply Current I+ Full VIN=0 or V+ Room Full 1.8 0.001 5.5 V 1.0 1.0 μA Note 6. VIN=input voltage to perform proper function. Note 7. Room=25°C, Full=as determined by the operating suffix. Note 8. Typical values are for design aid only, not guaranteed nor subjected to production testing. Note 9. The algebraic convention whereby the most negative value is a minimum and the most positive a maximum，is used in this datasheet. Note 10. Guaranteed by design, nor subjected to production testing. _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 5/12 UM4684 Typical Operating Characteristics Ron vs.Vcom and Supply Voltage V+=1.8V V+=2.5V V+=3.3V V+=5.5V V+=2.0V 4.00 3.50 3.00 2.50 2.00 1.50 1.00 0.50 0.60 Ron - On resistance (Ohm) Ron - On resistance (Ohm) 4.50 Ron vs.Vcom and Temperature (NC1) 0.00 0.50 0.40 0.30 0.20 - 40C -40°C 25C 25°C 85C 85°C 0.10 0.00 0.5 1.0 1.5 2.0 2.5 3.0 3.5 4.0 4.5 5.0 5.5 0.5 Vcom - Analog Voltage (V) 1.5 2.0 2.5 3.0 Vcom - Analog Voltage (V) Supply Current vs. Input Switching Frequency Switching Threshold vs. Supply Voltage (V) 3.50 V+=3.0V 10000 1000 100 10 1 0 Vt - Switching Threshold (V) 100000 I+ - Supply Current (uA) 1.0 VINH VINL 3.00 2.50 2.00 1.50 1.00 0.50 0.00 10 100 1000 10000 100000 1E+06 1E+07 Input Switching Frequency (Hz) 1.5 2 2.5 3 3.5 4 4.5 5 V+ - Supply Voltage (V) _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 6/12 5.5 UM4684 Typical Operating Characteristics (Continued) Bandwidth vs. Frequency Off-Isolation vs. Frequency _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 7/12 UM4684 Test Circuits/Timing Diagrams _______________________________________________________________________ http://www.union-ic.com Rev.11 May.2020 8/12 UM4684 Applications Information Digital Control Inputs The UM4684 logic inputs accept up to +5.5V regardless of supply voltage. For example, with a +3.3V supply, IN_ may be driven low to GND and high to 5.5V. Driving IN_ rail-to-rail minimizes power consumption. Logic levels for a +1.8V supply are 0.5V (low) and 1.4V (high). Analog Signal Levels Analog signals that range over the entire supply voltage (V+ to GND) is passed with very little change in on-resistance (see Typical Operating Characteristics). The switches are bidirectional, so the NO_, NC_, and COM_ pins can be either inputs or outputs. Caution Do not exceed the absolute maximum ratings because stresses beyond the listed ratings may cause permanent damage to devices. Proper power-supply sequencing is recommended for all CMOS devices. Always apply V+ before applying analog signals, especially if the analog signal is not current limited. If this sequencing is not possible, and if the analog inputs are not current limited to