Dr. Gottlieb was a CIERA Postdoc from 2020 – 2023.
Ore is working on relativistic magnetohydrodynamic simulations and analytic models of jets propagation and radiation in the context of gamma-ray bursts in collapsing massive stars and in Neutron star mergers.
Last year, Northwestern University researchers uncovered new observational evidence that long gamma-ray bursts (GRBs) can result from the merger of a neutron star with another compact object (either another neutron star or black hole) — a finding that was previously believed to be impossible. Now, another Northwestern team offers a potential explanation for what generated
Ore Gottlieb/Danat Issa/Alexander Tchekhovskoy/CIERA/Northwestern
When massive stars collapse into black holes, they may create powerful outflows (or jets) of particles traveling close to the speed of light. New simulations model this process — from the time the star collapses into a black hole until the jet escapes. For the first time, the simulations show that the cocoon of stellar
Ore Gottlieb/Northwestern/CIERA
When astronomers use radio telescopes to gaze into the night sky, they typically see elliptical-shaped galaxies, with twin jets blasting from either side of their central supermassive black hole. But every once in a while — less than 10% of the time — astronomers might spot something special and rare: An X-shaped radio galaxy, with
Aretaios Lalakos
A still image taken from the 3D simulation of the natural development of an X-shaped jet. The gas (bright red) falls into the black hole, which launches a pair of relativistic jets (light blue). The jets propagate vertically and shock the ambient gas (dark red). The older cavities (dark blue) buoyantly rise at an angle
Aretaios Lalakos
This movie demonstrates the propagation of a relativistic jet following the Neutron star merger GW170817. Credit: Ore Gottlieb
