A. Ebrahimi

Intercellular collectivity is governed by enzyme secretion strategies in marine polysaccharide degrading bacteria

The paper studies how enzyme secretion strategies in marine bacteria affect their aggregative behaviors and intercellular interactions during polysaccharide degradation.

Bacterial growth in multicellular aggregates leads to the emergence of complex lifecycles

This study shows that bacterial multicellular aggregates develop complex lifecycles through phenotypic differentiation driven by spatial gradients of nutrients, enhancing resilience under carbon limitation.

Particle foraging strategies promote microbial diversity in marine environments

The paper models how varying detachment rates from particles allow microbial populations to coexist in marine environments by balancing growth and mortality risks.

Automatic Landmark Detection of Human Back Surface from Depth Images via Deep Learning

This paper develops a deep learning model to detect anatomical landmarks on the human back from depth images, achieving high accuracy and efficiency compared to existing methods.

Depth Dataset Using Microsoft Kinect-v2

The paper describes a dataset of depth images from the back surfaces of 105 individuals to study spinal deformities and landmark detection using Microsoft Kinect-v2.

Dynamic Laser Speckle Imaging meets Machine Learning to enable Rapid Antibacterial Susceptibility Testing (DyRAST)

DyRAST uses dynamic laser speckle imaging and machine learning to rapidly predict antibiotic minimum inhibitory concentrations in E. coli within 60 minutes.

Cooperation and spatial self-organization determine ecosystem function for polysaccharide-degrading bacteria

This study shows how bacterial cooperation and spatial self-organization affect polysaccharide degradation rates and efficiency in aquatic environments.

Multicellular behavior enables cooperation in microbial cell aggregates

The paper shows that bacterial behavior enables cooperation in cell aggregates by overcoming resource gradients through structural adaptations.