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(R)
RO2023-10 433.97 MHz SAW Resonator
* * * * *
Ideal for European 433.92 MHz Transmitters Low Series Resistance Quartz Stability Rugged, Hermetic, Low-Profile TO39 Case Complies with Directive 2002/95/EC (RoHS)
Pb
The RO2023-10 is a true one-port, surface-acoustic-wave (SAW) resonator in a low-profile TO39 case. It provides reliable, fundamental-mode, quartz frequency stabilization of fixed-frequency transmitters operating at 433.92 MHz. The RO2023-10 is designed specifically for remote-control and wireless security devices operating in Europe under ETSI I-ETS 300 220 and in Germany under FTZ 17 TR 2100.
Absolute Maximum Ratings
Rating CW RF Power Dissipation (See: Typical Test Circuit) DC Voltage Between Any Two Pins (Observe ESD Precautions) Case Temperature Value +0 30 -40 to +85 Units dBm VDC C
TO39-3 Case
Electrical Characteristics
Characteristic Center Frequency at +25 C Insertion Loss Quality Factor Temperature Stability Unloaded Q 50 W Loaded Q Turnover Temperature Turnover Frequency Frequency Temperature Coefficient Frequency Aging RF Equivalent RLC Model Absolute Value during the First Year Motional Resistance Motional Inductance Motional Capacitance Pin 1 to Pin 2 Static Capacitance Transducer Static Capacitance Test Fixture Shunt Inductance Lid Symbolization DC Insulation Resistance between Any Two Pins RM LM CM CO CP LTEST 5, 6, 9 5, 6, 7, 9 2, 7 1.8 5, 7, 9 Absolute Frequency Tolerance from 433.970 MHz Sym fC fC IL QU QL TO fO FTC |fA| 1 5 1.0 48 102.2902 1.31488 2.1 1.8 64
RFM RO2023-10
Notes 2, 3, 4, 5 2, 5, 6 5, 6, 7
Minimum 433.720
Typical
Maximum 434.220 250
Units MHz kHz dB
3.4 8,400 2,800 22 37 fc + 2.3 0.037 10
4.8
52
C kHz ppm/C2 ppm/yr M
6, 7, 8
74
H fF
2.4
pF pF nH
CAUTION: Electrostatic Sensitive Device. Observe precautions for handling. Notes:
1. Frequency aging is the change in fC with time and is specified at +65C or less. Aging may exceed the specification for prolonged temperatures above +65C. Typically, aging is greatest the first year after manufacture, decreasing in subsequent years. The center frequency, fC, is measured at the minimum insertion loss point, ILMIN, with the resonator in the 50 test system (VSWR 1.2:1). The shunt inductance, LTEST, is tuned for parallel resonance with CO at fC. One or more of the following United States patents apply: 4,454,488 and 4,616,197. Typically, equipment utilizing this device requires emissions testing and government approval, which is the responsibility of the equipment manufacturer. Unless noted otherwise, case temperature TC = +25C2C. The design, manufacturing process, and specifications of this device are subject to change without notice. 7. 8. Derived mathematically from one or more of the following directly measured parameters: fC, IL, 3 dB bandwidth, fC versus TC, and CO. Turnover temperature, TO, is the temperature of maximum (or turnover) frequency, fO. The nominal frequency at any case temperature, TC, may be calculated from: f = fO [1 - FTC (TO -TC)2]. Typically, oscillator TO is 20C less than the specified resonator TO. This equivalent RLC model approximates resonator performance near the resonant frequency and is provided for reference only. The capacitance CO is the static (nonmotional) capacitance between Pin1 and Pin 2 measured at low frequency (10 MHz) with a capacitance meter. The measurement includes case parasitic capacitance with a floating case. For usual grounded case applications (with grund connected to either Pin 1 or Pin 2 and to the case), add approximately 0.25 pF to CO.
2.
3. 4. 5. 6.
9.
RF Monolithics, Inc. Phone: (972) 233-2903 Fax: (972) 387-9148 RFM Europe Phone: 44 1963 251383 Fax: 44 1963 251510 (c)1999 by RF Monolithics, Inc. The stylized RFM logo are registered trademarks of RF Monolithics, Inc.
E-mail: info@rfm.com http://www.rfm.com RO2023-10-101999
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433.97 MHz
Electrical Connections
SAW Resonator
Temperature Characteristics
The curve shown on the right accounts for resonator contribution only and does not include oscillator temperature characteristics.
fC = f O , T C = T O
0
(f-fo ) / fo (ppm)
This one-port, two-terminal SAW resonator is bidirectional. The terminals are interchangeable with the exception of circuit board layout.
Pin 1 2 3 Connection Terminal 1 Terminal 2 Case Ground
Pin 1 Bottom View Pin 2
0 -50 -100 -150 -200 0 +20 +40 +60 +80
-50
-100
-150 -200 -80 -60 -40 -20
Pin 3
T = TC - T O ( C )
Typical Test Circuit
The test circuit inductor, LTEST, is tuned to resonate with the static capacitance, CO at FC.
Electrical Test:
Network Analyzer
1 2
Equivalent LC Model
The following equivalent LC model is valid near resonance:
1 2
Network Analyzer
R M Cp
Co= Cp + 0.25 pF*
*Case Parasitics
3
L
M
C
M 0.5 pF*
0.5 pF*
3
Power Test:
P INCIDENT
1
Low-Loss Matching Network to 50
Case Design
C G B H
50 Source at P REFLECTED F C
3
2
CW RF Power Dissipation =
-P P INCIDENT REFLECTED
F A D (3 places) J (2 places) E
Typical Application Circuits
Typical Low-Power Transmitter Application:
200k
45
Modulation Input
MPS-H10
+9VDC
47
C1
Millimeters Dimensions Min A B Max 9.40 3.18 2.50 3.50 0.098 0.46 Nominal 5.08 Nominal 2.54 Nominal 2.54 Nominal 1.02 1.40 0.055 Min
Inches Max 0.370 0.125 0.138 0.018 Nominal 0.200 Nominal 0.100 Nominal 0.100 Nominal 0.040
L1
1
2
(Antenna)
C2
ROXXXX Bottom View
3
470
RF Bypass
C D E
Typical Local Oscillator Application:
Output C1 1 2
F G H J
+VDC
+VDC L1
C2 ROXXXX
Bottom View
3
RF Bypass
RF Monolithics, Inc. Phone: (972) 233-2903 Fax: (972) 387-9148 RFM Europe Phone: 44 1963 251383 Fax: 44 1963 251510 (c)1999 by RF Monolithics, Inc. The stylized RFM logo are registered trademarks of RF Monolithics, Inc.
E-mail: info@rfm.com http://www.rfm.com RO2023-10-101999
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