Sentence examples for both components can be from inspiring English sources

We show that both components can be asymptotically estimated as well as if the other component were known.

First, we show that the theoretical properties of both components can be combined in a sound manner, promising an effective clustering framework.

By separation of the flexural and geometric (membrane) components, the effect on both with respect to the degree of orthotropy is plotted and subsequently both components can be easily combined to produce the natural frequencies of the loaded disc.

Their unique properties, arising from the synergistic combination of both components, can be exploited as elements of electrochemical and energy storage devices, as supports for catalysis and as nanofillers for polymeric composites.

Both components can be separated by the Wiedemann-Franz law (κE = LσT), where the Lorenz number is assumed to be a constant (L = 2.0 × 10-8 V2 K-2) for the evaluation [12, 13].

In the case of stationary (Z_{t}) with known autocovariances, (gamma _{j},) (j=0,pm 1,ldotypicallyically from an ARMA model, estimates of both components can be obtained from an autocovariance decomposition begin{aligned} gamma _{j}=gamma _{j}^{S}+gamma _{j}^{N},j=0,pm 1,ldotextend{alignedigned} (7 when (gamma _{j}^{S}) and (gamma _{j}^{N}) have properties suitable for ( S_{t}) and (N_{t}).

Therefore both moving components can be characterized by a single mobility [1] or by a single diffusivity [2] parameter.

Both ECM components can be further analyzed by analytical methods, and their biological function can be tested on various cell types cultured in the presence of fibroblast-conditioned medium or on decellularized biomatrix.

The multilayer films containing both photoresponsive and electroactive components can be expected for applications in optics, photonic devices and others.

Both metal and organic components can be used to generate luminescence, and can further interact via antenna effect to increase the quantum yield, providing a versatile platform for chemical sensing based on luminescence emission.

SDR is a methodology for the development of applications, or waveforms in SDR parlance, in a consistent and modular fashion such that both software and hardware components can be readily reused from implementation to implementation.