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Fig 1.

Workflow of Imagene process.

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Fig 2.

Experimental strategy.

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Table 1.

Number of capsules used for each temperature and time point.

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Fig 3.

Amplifiable copy numbers of 1064 amplicon, 93 amplicon and genomic DNA.

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Table 2.

Genomic DNA recovery.

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Fig 4.

Degradation kinetics of DNA stored in DNAshells.

The lines are the fit to the data points by Microsoft Excel software.

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Fig 5.

Arrhenius plot for DNA degradation in DNAshells.

The degradation rate constants, k, were plotted as a function of the reverse of the absolute temperature T.

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Fig 6.

Half-lives of a 150 nucleotides long DNA fragment stored in various conditions.

The half-life of a DNA sample left unprotected from the atmosphere at room temperature (a) or in an Eppendorf closed tube (b) has been calculated from our previous work [7]. The one of a sample encapsulated in silica nanoparticles (g), deposited on FTA card paper (i) or included in Biomatrica DNAstable (h) has been estimated from [28] (Fig 2B). The half-life of DNA dried with calcium phosphate (e) and encapsulated in magnetic silica nanoparticles (f) have been estimated, respectively from [29] (Fig 3B) and [19] (Fig 5) assuming an exponential decay and an activation energy of 155 kJ/mol. The half-life for DNA stored in Gentegra (d) or trehalose (c) was taken from [29] (Fig 2B). In grey: Current commercialized procedures.

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