7 research outputs found
Survival and Comparative study on Different Artificial Intelligence Techniques for Crop Yield Prediction
Agriculture is an essential, important sector in the wide-reaching context. Farming helps to satisfy the basic need of food for every living being. Agriculture is considered the broadest economic sector. The crop yield is a significant part of food security and improves the drastic manner by human population. The quality and quantity of the yield touch the high rate of production. Farmers require timely advice to predict crop productivity. The strategic analysis also helps to increase crop production to meet the growing food demand. The forecasting of crop yield is a process of forecasting crop yield by using historical data. Machine learning provides a revolution in the agricultural field by changing the income scenario and growing an optimum crop. Many researchers carried out their research to deal with forecasting crop yield. In this way, accurate prediction of crop yield was improved. But, failed to reduce the crop yield prediction time and the accuracy level was not enhanced by existing methods
Learned Dual-View Reflection Removal
Traditional reflection removal algorithms either use a single image as input,
which suffers from intrinsic ambiguities, or use multiple images from a moving
camera, which is inconvenient for users. We instead propose a learning-based
dereflection algorithm that uses stereo images as input. This is an effective
trade-off between the two extremes: the parallax between two views provides
cues to remove reflections, and two views are easy to capture due to the
adoption of stereo cameras in smartphones. Our model consists of a
learning-based reflection-invariant flow model for dual-view registration, and
a learned synthesis model for combining aligned image pairs. Because no dataset
for dual-view reflection removal exists, we render a synthetic dataset of
dual-views with and without reflections for use in training. Our evaluation on
an additional real-world dataset of stereo pairs shows that our algorithm
outperforms existing single-image and multi-image dereflection approaches.Comment: http://sniklaus.com/dualre
Deep Reflection Prior
Reflections are very common phenomena in our daily photography, which
distract people's attention from the scene behind the glass. The problem of
removing reflection artifacts is important but challenging due to its ill-posed
nature. Recent learning-based approaches have demonstrated a significant
improvement in removing reflections. However, these methods are limited as they
require a large number of synthetic reflection/clean image pairs for
supervision, at the risk of overfitting in the synthetic image domain. In this
paper, we propose a learning-based approach that captures the reflection
statistical prior for single image reflection removal. Our algorithm is driven
by optimizing the target with joint constraints enhanced between multiple input
images during the training stage, but is able to eliminate reflections only
from a single input for evaluation. Our framework allows to predict both
background and reflection via a one-branch deep neural network, which is
implemented by the controllable latent code that indicates either the
background or reflection output. We demonstrate superior performance over the
state-of-the-art methods on a large range of real-world images. We further
provide insightful analysis behind the learned latent code, which may inspire
more future work