A system for projecting an image with an increased apparent display resolution, the system comprising: a resampler module configured to receive a high-resolution signal and upsample the high-resolution signal; one or more projectors; and a deconvolution module configured to filter the upsampled high-resolution signal using a spatial domain deconvolution operation, the spatial domain deconvolution operation using a deconvolution spatial kernel to correct for optical blur caused by the one or more projectors, wherein the resampler module is configured to: downsample the filtered upsampled high-resolution signal to a first low-resolution signal; and perform an integer shift operation and downsample the filtered upsampled high-resolution signal to a second low-resolution signal; the one or more projectors are configured to: receive the first and second low-resolution signals (110a, 110b); and superimpose the first and second low-resolution signals (110a, 110b) to project the image with an increased apparent display resolution; characterized in that the deconvolution spatial kernel comprises a spatial approximation of a frequency domain Wiener deconvolution filter, wherein the deconvolution spatial kernel is generated by: estimating a point spread function of the one or more projectors; constructing a Wiener filter based on the point spread function; applying a band limit to the Wiener filter; and generating a spatial domain Wiener filter by applying an inverse Fourier transform of the band-limited Wiener filter and extracting a spatial kernel. a resampler module configured to receive a high-resolution signal and upsample the high-resolution signal; one or more projectors; and a deconvolution module configured to filter the upsampled high-resolution signal using a spatial domain deconvolution operation, the spatial domain deconvolution operation using a deconvolution spatial kernel to correct for optical blur caused by the one or more projectors, wherein the resampler module is configured to: downsample the filtered upsampled high-resolution signal to a first low-resolution signal; and perform an integer shift operation and downsample the filtered upsampled high-resolution signal to a second low-resolution signal; downsample the filtered upsampled high-resolution signal to a first low-resolution signal; and perform an integer shift operation and downsample the filtered upsampled high-resolution signal to a second low-resolution signal; the one or more projectors are configured to: receive the first and second low-resolution signals (110a, 110b); and superimpose the first and second low-resolution signals (110a, 110b) to project the image with an increased apparent display resolution; characterized in that the deconvolution spatial kernel comprises a spatial approximation of a frequency domain Wiener deconvolution filter, wherein receive the first and second low-resolution signals (110a, 110b); and superimpose the first and second low-resolution signals (110a, 110b) to project the image with an increased apparent display resolution; characterized in that the deconvolution spatial kernel comprises a spatial approximation of a frequency domain Wiener deconvolution filter, wherein the deconvolution spatial kernel is generated by: estimating a point spread function of the one or more projectors; constructing a Wiener filter based on the point spread function; applying a band limit to the Wiener filter; and generating a spatial domain Wiener filter by applying an inverse Fourier transform of the band-limited Wiener filter and extracting a spatial kernel. estimating a point spread function of the one or more projectors; constructing a Wiener filter based on the point spread function; applying a band limit to the Wiener filter; and generating a spatial domain Wiener filter by applying an inverse Fourier transform of the band-limited Wiener filter and extracting a spatial kernel.