The use of pulsars as astrophysical clocks for gravitational wave (GW) experiments demands the highest possible timing precision. Pulse times of arrival (TOAs) are limited by stochastic processes that occur in the pulsar itself, along the line of sight through the interstellar medium, and in the measurement process. On timescales of seconds to hours, the TOA variance exceeds that from template-fitting errors due to additive noise. We assess contributions to the total variance from two additional effects: amplitude and phase jitter intrinsic to single pulses and changes in the interstellar impulse response from scattering. The three effects have different dependencies on time, frequency, and pulse signal-to-noise ratio. We use data on 37 pul...
High-sensitivity radio-frequency observations of millisecond pulsars usually show stochastic, broad-...
Pulsar timing array projects measure the pulse arrival times of millisecond pulsars for the primary ...
We compute the sensitivity, constrained by instrumental, propagation, and other fundamental noises, ...
Gravitational wave (GW) astronomy using a pulsar timing array requires high-quality millisecond puls...
Gravitational wave (GW) astronomy using a pulsar timing array requires high-quality millisecond puls...
Low-frequency gravitational-wave experiments require the highest timing precision from an array of t...
We present high-precision timing observations spanning up to nine years for 37 millisecond pulsars m...
High-sensitivity radio-frequency observations of millisecond pulsars usually show stochastic, broad-...
Gravitational wave (GW) astronomy using a pulsar timing array requires high-quality millisecond puls...
We present high-precision timing data over time spans of up to 11 years for 45 millisecond pulsars o...
The sensitivity of Pulsar Timing Arrays to gravitational waves (GWs) depends on the noise present in...
We present high-precision timing observations spanning up to nine years for 37 millisecond pulsars m...
We present high-precision timing observations spanning up to nine years for 37 millisecond pulsars m...
We present high-precision timing data over time spans of up to 11 years for 45 millisecond pulsars o...
High-sensitivity radio-frequency observations of millisecond pulsars usually show stochastic, broad-...
Pulsar timing array projects measure the pulse arrival times of millisecond pulsars for the primary ...
We compute the sensitivity, constrained by instrumental, propagation, and other fundamental noises, ...
Gravitational wave (GW) astronomy using a pulsar timing array requires high-quality millisecond puls...
Gravitational wave (GW) astronomy using a pulsar timing array requires high-quality millisecond puls...
Low-frequency gravitational-wave experiments require the highest timing precision from an array of t...
We present high-precision timing observations spanning up to nine years for 37 millisecond pulsars m...
High-sensitivity radio-frequency observations of millisecond pulsars usually show stochastic, broad-...
Gravitational wave (GW) astronomy using a pulsar timing array requires high-quality millisecond puls...
We present high-precision timing data over time spans of up to 11 years for 45 millisecond pulsars o...
The sensitivity of Pulsar Timing Arrays to gravitational waves (GWs) depends on the noise present in...
We present high-precision timing observations spanning up to nine years for 37 millisecond pulsars m...
We present high-precision timing observations spanning up to nine years for 37 millisecond pulsars m...
We present high-precision timing data over time spans of up to 11 years for 45 millisecond pulsars o...
High-sensitivity radio-frequency observations of millisecond pulsars usually show stochastic, broad-...
Pulsar timing array projects measure the pulse arrival times of millisecond pulsars for the primary ...
We compute the sensitivity, constrained by instrumental, propagation, and other fundamental noises, ...