Reference terms from Wikipedia, the free encyclopedia
 

Consilience

In science and history, consilience (also convergence of evidence or concordance of evidence) is the principle that evidence from independent, unrelated sources can "converge" on strong conclusions. That is, when multiple sources of evidence are in agreement, the conclusion can be very strong even when none of the individual sources of evidence is significantly so on its own. Most established scientific knowledge is supported by a convergence of evidence: if not, the evidence is comparatively weak, and there will not likely be a strong scientific consensus.

The principle is based on the unity of knowledge; measuring the same result by several different methods should lead to the same answer. For example, it should not matter whether one measures the distance between the Giza pyramid complex by laser rangefinding, by satellite imaging, or with a meter stick – in all three cases, the answer should be approximately the same. For the same reason, different dating methods in geochronology should concur, a result in chemistry should not contradict a result in geology, etc.

The word consilience was originally coined as the phrase "consilience of inductions" by William Whewell (consilience refers to a "jumping together" of knowledge). The word comes from Latin com- "together" and -siliens "jumping" (as in resilience).

 
Note:   The above text is excerpted from the Wikipedia article Consilience, which has been released under the GNU Free Documentation License.
 

Check out these latest Nanowerk News:

 

Researchers develop a new predictive model for designing 2D perovskites

By separating dielectric-screening effects from structural distortion, the study offers practical design rules for tuning excitons in 2D perovskites.

Orbitronics breakthrough points to low-power memory

Researchers directly used orbital currents in a magnetic device, producing much stronger signals for future low-energy memory and processors.

Microscopy at the space-time limit

Ultrafast scanning tunneling microscopy reaches the quantum mechanical space-time limit for the first time.

Programmable molecular machines are getting closer

Researchers created a highly stable electrically controlled DNA origami switch that regulates molecular functions and keeps working through hundreds of thousands of cycles.

Nanozyme tags reveal where nanoparticles go in cells

A new nanozyme labeling method maps nanoparticle interactions in living cells, showing how targeting alters trafficking and could guide better nanomedicines.

Light-written magnetic memory moves closer

Researchers used laser pulses to write and read antiferromagnetic data, opening a path to faster, lower-energy memory linked to optical networks.

Laser-controlled molecules reveal hidden reaction dynamics

Synchronized infrared lasers steer molecules between structures, exposing clear spectral fingerprints and new ways to study chemical reactions.

MOF thin films reveal a denser, less porous structure than expected

Advanced diffraction and modeling show a widely studied MOF thin film is densely packed, reshaping expectations for sensors, microelectronics and magnetic storage.

Atomic-scale insights clarify hidden defect signals in carbon materials

New analysis links long-ambiguous carbon defect peaks to specific atomic structures, helping improve material design for energy and electronics.

Room-temperature photon source brings quantum security closer to deployment

A compact plug-and-play device produces single photons without cryogenic cooling, easing integration with quantum-secure communication networks.