Elizabeth Gibney

Elizabeth Gibney is a science journalist who specializes in physics and space. She is known for her clear and concise reporting style, and her ability to explain complex scientific concepts in an accessible way. Her work is highly regarded for its accuracy and lack of bias.

Biography:  https://www.nature.com/articles/d41586-018-07402-0

99%

The overall score is a weighted number that takes into account conflict of interest, bias, deception and other practices that undermines the credibility of the source. It is calculated as:
Analysis.OverallConflictOfInterestScore * 0.3F + Analysis.OverallBiasScore * 0.3F + Analysis.DeceptivenessScore * 0.3F + Analysis.ReadabilityScore * 0.1F

A score that takes into consideration the content for flow, interruptions with ads, and overt search engine optimization techniques that makes the content hard to understand

The Daily's Verdict

This author is known for its high journalistic standards. The author strives to maintain neutrality and transparency in its reporting, and avoids conflicts of interest. The author has a reputation for accuracy and rarely gets contradicted on major discrepancies in its reporting.

Bias

100%

Examples:

No current examples available.

Conflicts of Interest

100%

Examples:

No current examples available.

Contradictions

100%

Examples:

No current examples available.

Deceptions

100%

Examples:

No current examples available.

Recent Articles

Seismic Data from Mars Challenges Previous Assumptions About Its Core

Broke On: Friday, 27 October 2023 Seismic data from NASA's InSight lander suggests Mars' core is larger and less dense than previously thought. The core is believed to be composed of a mixture of iron, nickel, and lighter elements such as sulfur, oxygen, and hydrogen. Mars' core is not completely solid but is instead partially molten. The core is surrounded by a liquid outer core, similar to Earth's.

Scientists Develop High-Resolution Single-Photon Superconducting Camera

Broke On: Wednesday, 25 October 2023 Scientists have developed a superconducting camera that can capture images at the single-photon level with a resolution of 400,000 pixels. The camera's high resolution and sensitivity make it ideal for a variety of applications, including quantum communication, remote sensing, and biomedical imaging.