Matched Filter Recovery of S5 Hardware Injections

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Matched Filter Recovery of S5 Hardware Injections M. Sung and W. Jonhson Louisiana State University Ligo Science Collaboration Meeting March 21 2007 @ Baton Rouge, LA LIGO-G070121-00-D

Hardware Injection Analysis Direct test for measuring the absolute size of signal and detector time response. Successive application of linear filters: Whitening filters, single and double. Matched filter using the injected waveforms On both DERR(t) and strain, h(t), data. Improved algorithm and fixed many bugs.

Servo Diagram of IFO Infer strain s(f) from observable DERR(f): s(f) = R(f)DERR(f) Calibration team measures this detector response function R(t,f) : where open loop gain G 0 (f): G 0 (f) = D(f)A(f)C 0 (f) EXC x (t) for hardware injections: EXC x (f) = -h inj (f)/ A x (f)

S5 Burst Injections Twenty different burst waveforms in strain, h(t) Four Gaussians: σ = 0.3, 1.0, 3.0, 10 ms. Sine-Gaussians (Q=9) with 12 frequencies from 50Hz to 3068Hz Supernova waveform: Zwerger-Mueller (A3B3G1) Cosmic string - cusp (f cutoff = 220Hz) Band-limited white noise burst: f = 250Hz, δf = 100Hz and σ = 30ms Ringdown: f = 2600Hz δt = 30ms Various settings of strengths and time for each injections Same waveform injected to three IFOs with time shifts (if in science mode). Two regular injections daily on average, each with three waveforms. Loud injections of Gaussians and sine-gaussian at least once per week for studying coupling to auxiliary channels and impulse response of detector.

Short Gaussian injection - Impulse Response: DERR(t) and h(t) Zoom-in Zoom-in Gaussian(τ=0.3ms) Gaussian(τ=0.3ms)

Analyzing Injection Data Time windows of 64s, Tukey windowing to use the middle 48s Whitening filters Single whitening: Double whitening: Data, d(f) - either DERR(f) or strain, h(f), in frequency domain S(f) - Power spectral density of noise from Either DERR(t) or strain, h(t): S e (f) or S s (f). Two 50s long data before and after injection period.

Whitened Data or whitened impulse response Using DERR(t) Using h(t)

Optimal Linear Filter A standard method from classical signal processing. Templates for matched filter: k α (f) = h inj (f)/ R(f) k α (f) = h inj (f) for DERR(t) for h(t) Optimized for the measured stationary noise of detector - Double whitening. It is also a linear measure of the strength; Choose normalization so h α is unbiased estimate of true h rss of this waveform, k α. Response functions cancel, i.e., the equivalent expressions for either observable DERR(t) or strain h(t).

Filtered output from loud Gaussian Zoom-in Injected Strength: 10 10-21 s 1/2 Injected time offset: 0.5 s From DERR(t): Measured strength:10.382 10-21 s 1/2 rms(noise): 0.0383 10-21 s 1/2 Measured time offset: 0.5001s From h(t): Measured Strength: 9.945 10-21 s 1/2 rms(noise): 0.0365 10-21 s 1/2 Measured time offset: 0.5001s

Statistical study on burst injections Duration of used injections: Jan 20 2006 - Jan 21 2007 Total Burst injections: L1: 7656 H1: 8701 H2: 9670 Calibration: Injections - used actuation function from V1 DERR(t) - V3, 60s factors (H2: V2) h(t) - C02: V2, 1s factors

Gaussian σ=1ms: Strength Measurement L1 DERR(t) h(t) Δh/ h injected =4.2±5.7% Δh/ h injected =0.1±5.6%

Gaussian σ=1ms: Time Measurement L1 Δt = 0.06±0.06 ms Δt = 0.05±0.07 ms

Measuring Burst Injections: L1 20 Waveforms injected: 4 Gaussians 0.3 ms (1) 1.0 ms (2) 3.0 ms (3) 10ms(4) 12 sine-gaussians 50 Hz (5) 70 Hz (6) 100 Hz (7) 153 Hz (8) 235 Hz (9) 393 Hz (10) 554 Hz (11) 850 Hz (12) 914 Hz (13) 1304 Hz (14) 2000 Hz (15) 3068 Hz (16) Zwerger-Mueller (17) Cosmic string (18) Band-limit white noise (19) Ringdown (20)

L1: h Measurements on SG2000 DERR(t) Big error bar is due to low intensity injections.

Measuring Burst Injections: H1 20 Waveforms injected: 4 Gaussians 0.3 ms (1) 1.0 ms (2) 3.0 ms (3) 10ms(4) 12 sine-gaussians 50 Hz (5) 70 Hz (6) 100 Hz (7) 153 Hz (8) 235 Hz (9) 393 Hz (10) 554 Hz (11) 850 Hz (12) 914 Hz (13) 1304 Hz (14) 2000 Hz (15) 3068 Hz (16) Zwerger-Mueller (17) Cosmic string (18) Band-limit white noise (19) Ringdown (20)

H1: Measurements on SG235 DERR(t) h(t) Different calibration model was used in DERR(t) and h(t) - V3 and V2. Strain data shows different epochs, defined in V3 model.

Measuring Burst Injections: H2 Same calibration V2 20 Waveforms injected: 4 Gaussians 0.3 ms (1) 1.0 ms (2) 3.0 ms (3) 10ms(4) 12 sine-gaussians 50 Hz (5) 70 Hz (6) 100 Hz (7) 153 Hz (8) 235 Hz (9) 393 Hz (10) 554 Hz (11) 850 Hz (12) 914 Hz (13) 1304 Hz (14) 2000 Hz (15) 3068 Hz (16) Zwerger-Mueller (17) Cosmic string (18) Band-limit white noise (19) Ringdown (20)

Summary Burst hardware injections of one year are recovered by using linear filters - whitening and match. Most injections are recovered well from both DERR(t) and h(t). Comparison between DERR(t) and h(t): L1 - Overall good agreement with different biases. H1- Noticeable disagreement, probably due to different versions of calibrations (V2 and V3). H2 - Good agreement from using the same calibration (V2) On waveforms injected: Sine-Gaussian with 3068Hz and ringdown - Bigger bias in h measurement. Big error bars are due to injections with smaller strengths.

What s s next? New code to be installed in the online analysis. Add inspiral templates. Noise spectra comparison before and after filtering SNR/Detection probability