Nanoscale Localization Microscopy and Deterministic Lithography of Solid State Quantum Emitters

Dataset associated with the manuscript titled "Nanoscale Localization Microscopy and Deterministic Lithography of Solid State Quantum Emitters".The dataset is structured into sub-folders, where each folder corresponds to one figure in the manuscript. The data in each subplot is presented in individual "CSV" files. A short description of each dataset is found below.Fig2a.csv - Confocal laser-scanning microscopy image of the reflection of metallic markers. The data is a 2D array of photon intensity, where the first row incorporates the X axis, the first column the Y. The remaining dataset is the measured photon intensity at each pixel of the image. The units for both axis are in micro-meters.Fig2_b.csv - Confocal laser-scanning microscopy image of the fluorescence from quantum emitters. The data is a 2D array of photon intensity, where the first row incorporates the X axis, the first column the Y. The remaining dataset is the measured photon intensity at each pixel of the image. The units for both axis are in micro-meters.Fig2_b_overlay.csv - Positions of the quantum emitters in the image of Fig2_b.csv (green circles in the Figure).Fig2_c.csv - Bivariant histogram of the localized position of 300 repeats of the marker MK4 and emitter QE3, presented as a 2D array. The first row incorporates the Y axis, the first column the X. The remaining dataset is the binned frequency at each pixel of the image. The units for both axis are in micro-meters.Fig2_c_inset_MK4_TopRight.csv - Bivariant histogram of the localized position of 300 repeats of the marker MK4, presented as a 2D array. The first row incorporates the Y axis, the first column the X. The remaining dataset is the binned frequency at each pixel of the image. The units for both axis are in micro-meters.Fig2_c_inset_QE3_BottomLeft.csv - Bivariant histogram of the localized position of 300 repeats of the emitter QE3, presented as a 2D array. The first row incorporates the Y axis, the first column the X. The remaining dataset is the binned frequency at each pixel of the image. The units for both axis are in micro-meters.Fig2_d.csv - The X position delta, taken from the mean of the dataset, as a function of the sample number for 300 repeat samples.Fig2_e.csv - Binned X position delta of the the data presented in "Fig2_d.csv". The corresponding Gaussian fit line is additionally included.Fig2_f.csv - Binned Y position delta. The corresponding Gaussian fit line is additionally included.Fig2_g.csv - The relative X position delta, taken from the mean of the dataset, as a function of the sample number for 300 repeat samples.Fig2_h.csv - Binned relative X position delta of the the data presented in "Fig2_d.csv". The corresponding Gaussian fit line is additionally included.Fig2_i.csv - Binned relative Y position delta. The corresponding Gaussian fit line is additionally included.Fig3_a.csv - The position error in both X and Y from projecting the expected positions of quantum emitters as compared to a direct measurement. The X and Y positions are in micro-meters.Fig3_b.csv - Histograms of the position error in X. The histograms data is accompanied with the Gaussian fit line.Fig3_c.csv - Histograms of the position error in Y. The histograms data is accompanied with the Gaussian fit line.Fig4_a.csv - Confocal laser-scanning microscopy image of the fluorescence from quantum emitters, after deterministic lithography. The data is a 2D array of photon intensity, where the first row incorporates the X axis, the first column the Y. The remaining dataset is the measured photon intensity at each pixel of the image. The units for both axis are in micro-meters.Fig4_b.csv - Confocal laser-scanning microscopy image of the reflection of metallic markers, after deterministic lithography. The data is a 2D array of photon intensity, where the first row incorporates the X axis, the first column the Y. The remaining dataset is the measured photon intensity at each pixel of the image. The units for both axis are in micro-meters.Fig4_b_overlay.csv - Positions of the quantum emitters in the image of Fig4_b.csv (green circles in the Figure).Fig5a.csv - Confocal laser-scanning microscopy image of the fluorescence from quantum emitter QE3. The data is a 2D array of photon intensity, where the first row incorporates the X axis, the first column the Y. The remaining dataset is the measured photon intensity at each pixel of the image. The units for both axis are in micro-meters.Fig5_b.csv - Confocal laser-scanning microscopy image of the reflection around quantum emitter QE3. The data is a 2D array of photon intensity, where the first row incorporates the X axis, the first column the Y. The remaining dataset is the measured photon intensity at each pixel of the image. The units for both axis are in micro-meters.Fig5_c.csv - Optical pump power dependent intensity measurement of the quantum emitter QE3 before and after embedment in a micro-pillar.Fig5_d.csv - Optical pump power dependent intensity measurement of the quantum emitter QE12 before and after embedment in a micro-pillar.Fig5_e.csv - Second-order correlation measurement of the photon statistics of QE3.