Time-resolved reflectance spectroscopy (TRS), allows for the complete optical characterization (in terms of the absorption and scattering coefficients) of diffusive media such as fruit, in the spectral range 600¿1100 nm, probing a volume to a depth of about 2 cm. The hypothesis was made that the absorption coefficient at 670 nm (¿a), near the chlorophyll peak, could be an index of fruit maturity at harvest. The aim of this research was to model nectarine softening for fruit of different maturity at harvest, as assessed by ¿a. Nectarine fruit of two sizes (A and B) were picked in 2002, 2003 (cv `Spring Bright¿) and 2004 (cv `Ambra¿), measured by TRS at harvest on two opposite sides and ranked by decreasing ¿a averaged per fruit (increasing m...
The optimal harvest date of nectarines can no longer be based on the colour since newer cultivars ha...
Absorption and scattering of laser light pulse passing through the fruit determine among others, the...
Nectarine fruit after cold storage soften normally, but become dry instead of juicy and can develop ...
Time-resolved reflectance spectroscopy (TRS), allows for the complete optical characterization (in t...
At harvest, fruit shows variation in maturity stage. With Time-resolved Reflectance Spectroscopy (TR...
With Time-resolved Reflectance Spectroscopy (TRS) the maturity of nectarines at harvest can be asses...
The maturity of nectarines at harvest can be assessed by measuring the absorption coefficient at 670...
The absorption coefficient µa measured at 670 nm in fruit pulp at harvest by time-resolved reflectan...
One of the non-destructive techniques which have been developed to estimate fruit quality is time-re...
The absorption coefficient of the fruit flesh at 670 nm (mu(a)), measured at harvest by time-resolve...
Nectarine fruit after cool storage soften normally, but become sometimes dry instead of juicy. An ex...
The ripening of fruits like nectarines and peaches is characterised by the decrease in chlorophyll c...
The optimal harvest date of nectarines can no longer be based on the colour since newer cultivars ha...
Absorption and scattering of laser light pulse passing through the fruit determine among others, the...
Nectarine fruit after cold storage soften normally, but become dry instead of juicy and can develop ...
Time-resolved reflectance spectroscopy (TRS), allows for the complete optical characterization (in t...
At harvest, fruit shows variation in maturity stage. With Time-resolved Reflectance Spectroscopy (TR...
With Time-resolved Reflectance Spectroscopy (TRS) the maturity of nectarines at harvest can be asses...
The maturity of nectarines at harvest can be assessed by measuring the absorption coefficient at 670...
The absorption coefficient µa measured at 670 nm in fruit pulp at harvest by time-resolved reflectan...
One of the non-destructive techniques which have been developed to estimate fruit quality is time-re...
The absorption coefficient of the fruit flesh at 670 nm (mu(a)), measured at harvest by time-resolve...
Nectarine fruit after cool storage soften normally, but become sometimes dry instead of juicy. An ex...
The ripening of fruits like nectarines and peaches is characterised by the decrease in chlorophyll c...
The optimal harvest date of nectarines can no longer be based on the colour since newer cultivars ha...
Absorption and scattering of laser light pulse passing through the fruit determine among others, the...
Nectarine fruit after cold storage soften normally, but become dry instead of juicy and can develop ...