Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 characterizations16 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Finesse | cavity finesse | 202000 | — | |||
| Drift Rate | cavity drift rate | 30mHz/s | — | — | ||
| Fractional Frequency Instability | σy | 2e-16 | — | |||
| Acceleration Sensitivity | along optical axis | 1e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | horizontal and perpendicular to optical axis | 4e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | vertical | 3e-12(ms⁻²)^-1 | — | |||
| Thermal Noise Limit Fractional Instability | thermal noise limit at 1 s | 7e-17 | — | — | ||
| Fractional Frequency Instability | reference second ultra-stable laser system at 1 s | 4e-17 | — | |||
| Temperature | zero-crossing temperature | 299.3K | — | |||
| Thermalization Time Constant | tau1 | 47.2h | — | — | ||
| Thermalization Time Constant | tau2 | 0.9h | — | — | ||
| Frequency Splitting | polarization mode splitting | 345kHz | — | — | ||
| Optical Power Response | photo-birefringence response sign | different sign for fast and slow axes | — | |||
| Transfer Function | optical length response to intra-cavity power modulation | power modulation transfer function magnitude | — | |||
| Vibration Threshold Frequency | passive platform instability exceeds thermal noise floor | 1Hz | — | — | ||
| Vibration Threshold Frequency | active platform vibration-induced frequency noise exceeds thermal noise limit | 8Hz | — | — |
Related documents with shared materials, methods, properties, or citations.
Ultrastable lasers: investigations of crystalline mirrors and closed cycle cooling at 124 K
Direct writing of room temperature polariton condensate lattice by top-down approach
METHOD FOR TRANSFERRING GRAPHENE USING A HOT PRESS
GRAPHENE-CONTACTED NANOTUBE PHOTODETECTOR
Laser stabilized to a room temperature cavity with AlGaAs coatings reaching 4.2 × 10−17 fractional frequency instability
Near-field radiative heat transfer between a nanoparticle and a graphene grating
Identifying Contact Barrier Types in Few-Layer MoS2 Devices Using Correlative IV, LBIC, and Bias-Dependent KPFM
Frequency stability of cryogenic silicon cavities with semiconductor crystalline coatings
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 characterizations16 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Finesse | cavity finesse | 202000 | — | |||
| Drift Rate | cavity drift rate | 30mHz/s | — | — | ||
| Fractional Frequency Instability | σy | 2e-16 | — | |||
| Acceleration Sensitivity | along optical axis | 1e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | horizontal and perpendicular to optical axis | 4e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | vertical | 3e-12(ms⁻²)^-1 | — | |||
| Thermal Noise Limit Fractional Instability | thermal noise limit at 1 s | 7e-17 | — | — | ||
| Fractional Frequency Instability | reference second ultra-stable laser system at 1 s | 4e-17 | — | |||
| Temperature | zero-crossing temperature | 299.3K | — | |||
| Thermalization Time Constant | tau1 | 47.2h | — | — | ||
| Thermalization Time Constant | tau2 | 0.9h | — | — | ||
| Frequency Splitting | polarization mode splitting | 345kHz | — | — | ||
| Optical Power Response | photo-birefringence response sign | different sign for fast and slow axes | — | |||
| Transfer Function | optical length response to intra-cavity power modulation | power modulation transfer function magnitude | — | |||
| Vibration Threshold Frequency | passive platform instability exceeds thermal noise floor | 1Hz | — | — | ||
| Vibration Threshold Frequency | active platform vibration-induced frequency noise exceeds thermal noise limit | 8Hz | — | — |
Related documents with shared materials, methods, properties, or citations.
Ultrastable lasers: investigations of crystalline mirrors and closed cycle cooling at 124 K
Direct writing of room temperature polariton condensate lattice by top-down approach
METHOD FOR TRANSFERRING GRAPHENE USING A HOT PRESS
GRAPHENE-CONTACTED NANOTUBE PHOTODETECTOR
Laser stabilized to a room temperature cavity with AlGaAs coatings reaching 4.2 × 10−17 fractional frequency instability
Near-field radiative heat transfer between a nanoparticle and a graphene grating
Identifying Contact Barrier Types in Few-Layer MoS2 Devices Using Correlative IV, LBIC, and Bias-Dependent KPFM
Frequency stability of cryogenic silicon cavities with semiconductor crystalline coatings
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 characterizations16 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Finesse | cavity finesse | 202000 | — | |||
| Drift Rate | cavity drift rate | 30mHz/s | — | — | ||
| Fractional Frequency Instability | σy | 2e-16 | — | |||
| Acceleration Sensitivity | along optical axis | 1e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | horizontal and perpendicular to optical axis | 4e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | vertical | 3e-12(ms⁻²)^-1 | — | |||
| Thermal Noise Limit Fractional Instability | thermal noise limit at 1 s | 7e-17 | — | — | ||
| Fractional Frequency Instability | reference second ultra-stable laser system at 1 s | 4e-17 | — | |||
| Temperature | zero-crossing temperature | 299.3K | — | |||
| Thermalization Time Constant | tau1 | 47.2h | — | — | ||
| Thermalization Time Constant | tau2 | 0.9h | — | — | ||
| Frequency Splitting | polarization mode splitting | 345kHz | — | — | ||
| Optical Power Response | photo-birefringence response sign | different sign for fast and slow axes | — | |||
| Transfer Function | optical length response to intra-cavity power modulation | power modulation transfer function magnitude | — | |||
| Vibration Threshold Frequency | passive platform instability exceeds thermal noise floor | 1Hz | — | — | ||
| Vibration Threshold Frequency | active platform vibration-induced frequency noise exceeds thermal noise limit | 8Hz | — | — |
Related documents with shared materials, methods, properties, or citations.
Ultrastable lasers: investigations of crystalline mirrors and closed cycle cooling at 124 K
Direct writing of room temperature polariton condensate lattice by top-down approach
METHOD FOR TRANSFERRING GRAPHENE USING A HOT PRESS
GRAPHENE-CONTACTED NANOTUBE PHOTODETECTOR
Laser stabilized to a room temperature cavity with AlGaAs coatings reaching 4.2 × 10−17 fractional frequency instability
Near-field radiative heat transfer between a nanoparticle and a graphene grating
Identifying Contact Barrier Types in Few-Layer MoS2 Devices Using Correlative IV, LBIC, and Bias-Dependent KPFM
Frequency stability of cryogenic silicon cavities with semiconductor crystalline coatings
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 characterizations16 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Finesse | cavity finesse | 202000 | — | |||
| Drift Rate | cavity drift rate | 30mHz/s | — | — | ||
| Fractional Frequency Instability | σy | 2e-16 | — | |||
| Acceleration Sensitivity | along optical axis | 1e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | horizontal and perpendicular to optical axis | 4e-12(ms⁻²)^-1 | — | |||
| Acceleration Sensitivity | vertical | 3e-12(ms⁻²)^-1 | — | |||
| Thermal Noise Limit Fractional Instability | thermal noise limit at 1 s | 7e-17 | — | — | ||
| Fractional Frequency Instability | reference second ultra-stable laser system at 1 s | 4e-17 | — | |||
| Temperature | zero-crossing temperature | 299.3K | — | |||
| Thermalization Time Constant | tau1 | 47.2h | — | — | ||
| Thermalization Time Constant | tau2 | 0.9h | — | — | ||
| Frequency Splitting | polarization mode splitting | 345kHz | — | — | ||
| Optical Power Response | photo-birefringence response sign | different sign for fast and slow axes | — | |||
| Transfer Function | optical length response to intra-cavity power modulation | power modulation transfer function magnitude | — | |||
| Vibration Threshold Frequency | passive platform instability exceeds thermal noise floor | 1Hz | — | — | ||
| Vibration Threshold Frequency | active platform vibration-induced frequency noise exceeds thermal noise limit | 8Hz | — | — |
Related documents with shared materials, methods, properties, or citations.
Ultrastable lasers: investigations of crystalline mirrors and closed cycle cooling at 124 K
Direct writing of room temperature polariton condensate lattice by top-down approach
METHOD FOR TRANSFERRING GRAPHENE USING A HOT PRESS
GRAPHENE-CONTACTED NANOTUBE PHOTODETECTOR
Laser stabilized to a room temperature cavity with AlGaAs coatings reaching 4.2 × 10−17 fractional frequency instability
Near-field radiative heat transfer between a nanoparticle and a graphene grating
Identifying Contact Barrier Types in Few-Layer MoS2 Devices Using Correlative IV, LBIC, and Bias-Dependent KPFM
Frequency stability of cryogenic silicon cavities with semiconductor crystalline coatings
