Nicholas A. Crossland

This study uses deep learning to analyze spatial immune patterns in tuberculosis-infected mice, identifying distinct granuloma features associated with asymptomatic, acute, and chronic disease states.

This study shows that miR-223 improves cognitive function and reduces amyloid beta plaques in an Alzheimer's mouse model by enhancing microglial clearance.

The paper defines sub-phenotypes of pneumonia using histopathological features from human lung samples and validates them in mouse models.

This study identifies aberrant macrophage activation and maladaptive lung repair as key factors promoting tuberculosis progression in the lung using a novel mouse model.

This study identifies immune signatures associated with SARS-CoV-2 infection resolution in human lung tissues using a humanized mouse model.

The paper develops a mouse model that exhibits severe SARS-CoV-2 infection and post-acute systemic diseases, revealing molecular mechanisms of PASC.

This paper describes a mouse model of post-primary pulmonary tuberculosis that simulates hematogenous spread to the lungs and allows study of lung-specific TB mechanisms.

This paper introduces a protocol for 3D multiplexed immunohistochemistry using Opal-TSA conjugated fluorescent dyes to enhance imaging of pulmonary TB lesions in mouse tissues.

This study shows that pre-existing H1N1 immunity protects ferrets from severe disease caused by bovine H5N1 influenza virus.

The paper investigates the effects of liver-specific Mettl14 deletion, finding it causes nuclear heterotypia and disrupts RNA export machinery.

This study identifies Myc dysregulation in macrophages as a driver of TB susceptibility by linking lipid peroxidation and IFN-I pathway hyperactivity.