0000000001261136

AUTHOR

W Stiller

showing 3 related works from this author

Morphomolecular motifs of pulmonary neoangiogenesis in interstitial lung diseases

2019

The pathogenetic role of angiogenesis in interstitial lung diseases (ILDs) is controversial. This study represents the first investigation of the spatial complexity and molecular motifs of microvascular architecture in important subsets of human ILD. The aim of our study was to identify specific variants of neoangiogenesis in three common pulmonary injury patterns in human ILD.We performed comprehensive and compartment-specific analysis of 24 human lung explants with usual intersitial pneumonia (UIP), nonspecific interstitial pneumonia (NSIP) and alveolar fibroelastosis (AFE) using histopathology, microvascular corrosion casting, micro-comupted tomography based volumetry and gene expression…

0301 basic medicinePulmonary and Respiratory Medicinemedicine.medical_specialtyPathologyAngiogenesisVascular remodelling in the embryoNeovascularization03 medical and health sciences0302 clinical medicineVascularitymedicineHumansIdiopathic Interstitial PneumoniasLungIdiopathic interstitial pneumoniaLungNeovascularization Pathologicbusiness.industryrespiratory systemmedicine.diseaserespiratory tract diseases3. Good healthPneumonia030104 developmental biologymedicine.anatomical_structure030220 oncology & carcinogenesisHistopathologymedicine.symptomLung Diseases InterstitialTomography X-Ray ComputedbusinessEuropean Respiratory Journal
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Angiogenesis Patterns in Interstitial Lung Disease

2020

Pathologymedicine.medical_specialtybusiness.industryAngiogenesisInterstitial lung diseaseMedicinebusinessmedicine.diseaseB64. MECHANISTIC ADVANCES IN LUNG FIBROSIS
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Performance of the ATLAS detector using first collision data

2010

More than half a million minimum-bias events of LHC collision data were collected by the ATLAS experiment in December 2009 at centre-of-mass energies of 0.9 TeV and 2.36 TeV. This paper reports on studies of the initial performance of the ATLAS detector from these data. Comparisons between data and Monte Carlo predictions are shown for distributions of several track- and calorimeter-based quantities. The good performance of the ATLAS detector in these first data gives confidence for successful running at higher energies.

Nuclear and High Energy PhysicsParticle physicsAtlas detectorPhysics::Instrumentation and DetectorsMonte Carlo methodFOS: Physical sciencesddc:500.253001 natural sciences7. Clean energySettore FIS/04 - Fisica Nucleare e SubnucleareHigh Energy Physics - ExperimentNuclear physicsHigh Energy Physics - Experiment (hep-ex)LHC ; ATLAS ; Minimum-bias ; 900 GeV ; 2.36 TeV ; PerformanceAtlas (anatomy)0103 physical sciencesmedicine[PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex]ddc:530High Energy PhysicsDetectors and Experimental Techniques010306 general physicsCiencias ExactasDetectors de radiacióPhysicsHadron-Hadron ScatteringLarge Hadron Collider010308 nuclear & particles physicsATLAS DetectorSettore FIS/01 - Fisica SperimentaleATLAS experimentFísicaATLASCollisionmedicine.anatomical_structureExperimental High Energy PhysicsComputingMethodologies_DOCUMENTANDTEXTPROCESSINGHigh Energy Physics::ExperimentLHCParticle Physics - Experiment
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