500 MILLION PARTS FROM 12000 MANUFACTURERS

DATASHEET SEARCH ENGINE

## Top Results

TPS2390OR91CALCU Texas Instruments TPS2390/91 Design-in calculator
LMK62I0-156M25SIAR Texas Instruments High-Performance Low Jitter Oscillator 6-QFM -40 to 85
LMK62E2-100M00SIAR Texas Instruments High-Performance, Low-Jitter Oscillator 6-QFM -40 to 85
LMK62E2-100M00SIAT Texas Instruments High-Performance, Low-Jitter Oscillator 6-QFM -40 to 85
LMK62I0-100M00SIAT Texas Instruments High-Performance, Low-Jitter Oscillator 6-QFM -40 to 85
LMK62I0-100M00SIAR Texas Instruments High-Performance, Low-Jitter Oscillator 6-QFM -40 to 85

## Calculate Oscillator Jitter By Using Phase-Noise

Catalog Datasheet MFG & Type PDF Document Tags

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: Boris Drakhlis Drakhlis, "Calculate Oscillator Jitter by using Phase-Noise Analysis Part 2," Microwaves and RF, February , 14, 2003, http://www.eedesign.com. 6. Boris Drakhlis, "Calculate Oscillator Jitter by using , MT-008 TUTORIAL Converting Oscillator Phase Noise to Time Jitter by Walt Kester INTRODUCTION , online to perform the integration by segments and calculate the rms jitter, thereby greatly simplifying , converting oscillator phase noise into time jitter. PHASE NOISE DEFINED First, a few definitions are in
Analog Devices
Original
AD9445 AD9446 Calculate Oscillator Jitter By Using Phase-Noise Boris Drakhlis ULN 2009 uln series Wenzel Associates ultra Low Noise ULN types

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: Boris Drakhlis . 6. References Drakhlis, Boris, "Calculate Oscillator Jitter By Using Phase-Noise Analysis," , . Rev. 0.1 3 AN279 By contrast, if we weight L(f) using the period jitter weighting function and , AN279 AN279 3. Basic Approach By definition, period jitter compares two similar instants in time , example. The estimation process may be simplified further by treating the period jitter weighting , jitter is dominated by high-frequency phase noise. Channel bandwidth plays a determining role in the
Silicon Laboratories
Original
GR-499-CORE GR-1244-CORE

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: Boris Drakhlis Circuits, Vol. 34, No. 6, pp. 790-804. 2. Boris Drakhlis, "Calculate Oscillator Jitter By Using , point. The probability density as a function of the timing jitter t is calculated by setting vn = y = , various terms within Equation 4 by A yields: Equation 5 is a jitter distribution function similar to , slight modification, Equation 6 can also accommodate the jitter translation of other waveforms. By , bandwidth. Using numerical integration to integrate Equation 22, the resulting accumulated jitter with
Maxim Integrated Products
Original
AN3631 APP3631 2n 3631 an363 100MH

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: Boris Drakhlis Oscillator Jitter By Using Phase-Noise Analysis," Microwaves & RF, Jan. 2001 pp. 82-90 and p. 157. 7 , , voltagecontrolled oscillator, low phase noise, low phase jitter, clock jitter, crystal oscillator, noise, SNR , 3 illustrates a sampling clock signal that contains jitter. Jitter generated by the clock is caused , Degrades ADC's Signal-to-Noise Ratio (SNR) Jitter generated by a clock source can cause the ADC's internal , can be calculated for a given amount of clock jitter: Figure 4. An SNR model obtained using the
Maxim Integrated Products
Original
MAX104 MAX106 MAX2620 MB15E07 MAX105 MAX107 white noise Generator 1GHz VCO 10GHz Develop trimless voltage-controlled oscillators APP800 120MH

#### Analog-Digital Conversion Handbook

Abstract: Tdc1007j . Information furnished by Analog Devices applications and development tools engineers is believed to be accurate and reliable, however no responsibility is assumed by Analog Devices regarding technical accuracy , , 1956, issued January 13, 1959. (describes flash and subranging conversion using tubes and transistors). , . Kiyomo, K. Ikeda, and H. Ichiki, "Analog-to-Digital Converter Using an Esaki Diode Stack," IRE , 3-bit flash ADC using a stack of tunnel diodes). 12. H. R. Schindler, "Using the Latest
Analog Devices
Original
Analog-Digital Conversion Handbook Tdc1007j S4 diode 6cA Analog-DigitalConversionHandbook MT-228 DIST/10 THD/10 HAR/20 MT10539

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: AN3822 noise in two ways. One way is to directly modulate the oscillator or VCO using a noise source. A VCO , KPHASEVn(t) = (t). You can calculate phase Page 3 of 8 noise by applying the Fourier transform to VOUT , : Phase Noise, PLL, Phase Locked Loop, VCO, Voltage Controlled Oscillator, Oscillator, Impairment, System , phaselocked loops can degrade the performance of a system. Phase noise in the oscillator of a wireless , telecommunications system causes time jitter in the signal chain. Although engineers usually try to minimize phase
Maxim Integrated Products
Original
AN3822 APP3822 noise diode generator Zener Diode White noise noise source diode abstract for communication in ieee format

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: HP Agilent 10MHz Reference network processors. The classic design of using multiple 3rdovertone crystal oscillators followed by , System Environment Most clock oscillators give their jitter or phase-noise specification using an ideal , SV(f), one can instead calculate the DJ by measuring the spur in the phasenoise spectrum while , the PLL. The DJ can be estimated using the dual-Dirac model1 by measuring the peak distance between , caused by the convolution of the SJ PDF with the Gaussian distribution of the random jitter component
Maxim Integrated Products
Original
HP Agilent 10MHz Reference fm linear 88-108mhz abstract on fm am modulation and demodulation DSO81304 abstract on fm modulation and demodulation DSO81304A HFAN-04
Abstract: With Ultralow Noise Floor of â'"169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 fsRMS (Typ , inputs consist of primary, secondary, and crystal inputs, and manually selectable (through pins) using , CDCLVC1310. The overall additive jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small , 1 XTAL bypass (2) This mode is for XTAL input or overdrive of XTAL oscillator with LVCMOS , by simulating a cold plate test on the package top. No specific JEDECstandard test exists, but a Texas Instruments
Original
SCAS917C QFN-32 ISO/TS16949
Abstract: report Crystal Oscillator Performance of the CDCLVC1310 (SCAA119). NOTE If using the overdrive or , With Ultralow Noise Floor of â'"169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 fsRMS (Typ , inputs consist of primary, secondary, and crystal inputs, and manually selectable (through pins) using , CDCLVC1310. The overall additive jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small , ) IN_SEL0 0 1 XTAL bypass (2) This mode is for XTAL input or overdrive of XTAL oscillator with Texas Instruments
Original
SCAS917E
Abstract: Crystal Buffer With Ultralow Noise Floor of ­169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 , ) using the input MUX. The primary and secondary inputs can accept LVPECL, LVDS, HCSL, SSTL or LVCMOS , jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small 32-pin 5-mm × 5-mm QFN package , oscillator with LVCMOS input. For characteristics; see LVCMOS OUTPUT CHARACTERISTICS. This mode is only XTAL , described in JESD51-2a. The junction-to-case (top) thermal resistance is obtained by simulating a cold plate Texas Instruments
Original
SCAS917D

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: SCAA115 report Crystal Oscillator Performance of the CDCLVC1310 (SCAA119). NOTE If using the overdrive or bypass , Crystal Buffer With Ultralow Noise Floor of ­169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 , ) using the input MUX. The primary and secondary inputs can accept LVPECL, LVDS, HCSL, SSTL or LVCMOS , jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small 32-pin 5-mm × 5-mm QFN package , overdrive of XTAL oscillator with LVCMOS input. For characteristics; see . This mode is only XTAL bypass
Texas Instruments
Original
SCAA115
Abstract: report Crystal Oscillator Performance of the CDCLVC1310 (SCAA119). NOTE If using the overdrive or , With Ultralow Noise Floor of â'"169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 fsRMS (Typ , inputs consist of primary, secondary, and crystal inputs, and manually selectable (through pins) using , CDCLVC1310. The overall additive jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small , ) IN_SEL0 0 1 XTAL bypass (2) This mode is for XTAL input or overdrive of XTAL oscillator with Texas Instruments
Original
Abstract: With Ultralow Noise Floor of â'"169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 fsRMS (Typ , inputs consist of primary, secondary, and crystal inputs, and manually selectable (through pins) using , CDCLVC1310. The overall additive jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small , ) IN_SEL0 0 1 XTAL bypass (2) This mode is for XTAL input or overdrive of XTAL oscillator with , environment described in JESD51-2a. The junction-to-case (top) thermal resistance is obtained by simulating a Texas Instruments
Original
Abstract: report Crystal Oscillator Performance of the CDCLVC1310 (SCAA119). NOTE If using the overdrive or , With Ultralow Noise Floor of â'"169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 fsRMS (Typ , inputs consist of primary, secondary, and crystal inputs, and manually selectable (through pins) using , CDCLVC1310. The overall additive jitter performance is 25 fsRMS (typical). The CDCLVC1310 comes in a small , ) IN_SEL0 0 1 XTAL bypass (2) This mode is for XTAL input or overdrive of XTAL oscillator with Texas Instruments
Original

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: MB15E07SL clock (namely a low jitter clock) in order to limit the dynamic performance degradation caused by noise , contribution to jitter. Jitter is caused by noise but what can be interesting to understand in the phenomenon , uncertainty due to Clock Jitter The impact of the time jitter on the voltage errors is accentuated by the , 3-1. Example of High-speed Low Jitter Clock Generating System Clock Crystal Oscillator PLL , desired frequency. It works by comparing the VCO output frequency to a crystal oscillator. Since the
Atmel
Original
MB15E07SL AT84A AT84D
Abstract: simply means dBm at a specified offset from the fundamental. By investigating jitter in the frequency , Measured using a Wenzel Oscillator as the input source. 5 Â©2014 Integrated Device Technology, Inc , simply means dBm at a specified offset from the fundamental. By investigating jitter in the frequency , Measured using a Wenzel Oscillator as the input source. 6 Â©2014 Integrated Device Technology, Inc , characterized and guaranteed by using a differential signal. Figure 1. Recommended Schematic for Wiring a Integrated Device Technology
Original
IDT8P34S1102I
Abstract: simply means dBm at a specified offset from the fundamental. By investigating jitter in the frequency , Measured using a Wenzel Oscillator as the input source. 5 Â©2014 Integrated Device Technology, Inc , simply means dBm at a specified offset from the fundamental. By investigating jitter in the frequency , Measured using a Wenzel Oscillator as the input source. 6 Â©2014 Integrated Device Technology, Inc , characterized and guaranteed by using a differential signal. Figure 1. Recommended Schematic for Wiring a Integrated Device Technology
Original
Abstract: fundamental. By investigating jitter in the frequency domain, we get a better understanding of its effects , Differential input accepts ECL/LVPECL, LVDS and CML levels Additive phase jitter, RMS @ 122.88MHz: 45fs , ) Part-to-Part Skew, NOTE 3, 4 odc Output Duty Cycle tjit Buffer Additive Phase Jitter, RMS; Refer to Additive Phase Jitter Section Test Conditions Minimum Typical Maximum Units 3 , voltage, same temperature, same frequency and with equal load conditions. Using the same type of inputs Integrated Device Technology
Original
ICS853S9252I

#### Calculate Oscillator Jitter By Using Phase-Noise

Abstract: ECHU1C104JB5 . Most PLL clock devices use a VCO (Voltage Controlled Oscillator) for output clock generation. By using , MK2058-01 P R E L I M I N A RY I N F O R M AT I O N Communications Clock Jitter Attenuator Description Features The MK2058-01 is a VCXO (Voltage Controlled Crystal Oscillator) based clock jitter , 27MHz. A dual input mux is also provided. · Jitter attenuation for T1, E1, Frame Sync and other By controlling the VCXO frequency within a phase-locked loop (PLL), the output clock is phase and
Integrated Circuit Systems
Original
MK2058-01SI MK2058-01SITR ECHU1C104JB5 MAN05
Abstract: Ultralow Noise Floor of ­169 dBc/Hz Additive Phase Noise/Jitter Performance Is 25 fsRMS (Typ.) Operates , , secondary and crystal inputs and can be selected manually (through pins) using the input MUX. The primary , jitter performance is 25 fsRMS (typ). The CDCLVC1310 is packaged in a small 32-pin 5-mm × 5-mm QFN , Oscillator Input or XTAL Bypass mode Crystal Oscillator Output LVCMOS output 0 LVCMOS output 1 LVCMOS output , SEC_IN XTAL/overdrive (1) XTAL bypass (2) This mode can be used to overdrive the XTAL oscillator with Texas Instruments
Original
SCAS917B