Distribution of the. SHARES RESULTING FROM THE INCORPORATION - EXCHANGE RATIO
Distribution of the museum Registry Protocol specifications and the Software. As soon as possible after the date of this Agreement, MuseDoma, or its designee, will provided Registrar with:
Distribution of the noise in signals like that shown in Fig. 2.5, recorded when the tip is far away from the surface. The bin width of the distribution is 10 pN. The open circles are the experimental data and the solid curve is a Gaussian fit. The distribution has a width of 148 pN. The seemingly good agreement between the measured noise amplitude and the expected amplitude is fortuitous, the width of the experimental distribution being limited severely by the low-pass filter, which was set at a of 1 kHz low frequency, which is low with respect to the resonance frequency of the cantilever of
Distribution of the noise in friction loops when the pass-filter is at 10 kHz. The grey line is the Gaussian fit to the data, with a standard deviation of 291.5 pN. The loops were measured at a scan velocity of 30 nm/s. Using a pass filter with a bandwidth of 10 kHz in the detection electronics, we allow most of the thermal motion of the cantilever to be recorded and processed. This gives a much more realistic estimate of the noise level of the system. The Gaussian distribution of the noise when the pass-filter is at 10 kHz as shown in Fig. 2.7 gives a standard deviation of 291.5 pN. The fact that this number is not significantly different from the width measured with the tip out of contact implies that the possibility of relative motion of the sample with respect to the tip does not introduce additional noise in the instrument. Since the theoretically estimated thermal noise of 159 pN is roughly a factor 2 below the observed noise level, additional sources of noise must be present in the system. We can rule out significant heating of the Tribolever (and thus stronger thermal excitations) due to laser heating of the pyramid because of the low laser power and the high reflectivity of the pyramid surface. The fact that we observe a Gaussian distribution suggests that the source of extra noise is also not the coupling in of acoustic noise (sound) or building vibrations. We assume that the extra noise is due to variations in the laser power and to electronic noise generated by the photodiodes and the detection electronics. The fact that we did not observe any significant reduction of noise in the signal when the tip was made in contact with the surface indicates that the additional noise present is from the instrument. When the tip is in contact with the surface, the spring constant that would influence the noise is kT + kC = 23.3 N/m. The reduction in the noise due to this new spring constant by the tip touching the surface is only about 10%, which means that the majority of the noise in the signal when we use 10 kHz pass-filter is purely instrumental.
Distribution of the aero Registry Protocol specifications and the Software . As soon as commercially practicable after the date of this Agreement, Afilias will provide Registrar with:
Distribution of the actions in time (3 pilot rounds) Due to the COVID-19 pandemic, the implementation of the pilots will be postponed. For now in Finland, restrictions prevent the implementation since contacts between reception centre professionals and asylum seekers are cut to a minimum, most of the services are not provided and visiting reception centres is forbidden. Currently, it is likely that
Distribution of the actions in time (3 pilot rounds) Round 1 - online preparation (all activities developing online due to the pandemic situation, until September 2020): Focus on the individual competence development of social workers and service providers (their skills, knowledge, attitude etc.) Based on RAISD's results, researchers and ARU members create a preliminary "toolbox" of vulnerability profiles and the possible trajectories of these model cases towards an acceptable solution of the problem. Stakeholder involvement should be designed having in mind the effects of COVID-19 on them. Social workers and service providers undergo a needs/skills assessment and an online capacity building training. Based on their feedback, the toolbox is finalized. Round 2: (October 2020 - January 2021): Focus on testing the trajectories in real-life situations and on enhancing organizational capacities for incorporating the work outlined in Round 1 in the daily operation of the given organisations. It should include the revision of internal protocols and job descriptions and the establishing an external supporting structure (coaching, on-the-job training). Round 3: (February 2021 - July 2021): Focus on inter-institutional cooperation, information sharing, as well as on building a network of the organisations involved, through the ARU's work and case-by-case coordination. In the meantime, the content of the previous two rounds are being implemented and improved constantly until a final evaluation.
Distribution of the actions in time (3 pilot rounds) The plan is to have the first round for both pilots between June-August 2020. This would allow us to analyse the feedback during the end of the summer and then start new rounds in October-December 2020. The final round would then be implemented in early 2021.
