Reference terms from Wikipedia, the free encyclopedia
 

FUTON bias

FUTON bias (acronym for "full text on the Net") is a type of publication bias whereby scholars tend to cite academic journals with open access—that is, journals that make their full text available on the Internet without charge (not behind a paywall)—in preference to toll-access publications.

Scholars in some fields can more easily discover and access articles whose full text is available online, which increases authors' likelihood of reading and citing these articles, an issue that was first raised and has been mainly studied in connection with medical research.

In the context of evidence-based medicine, articles in expensive journals that do not provide open access (OA) may be "priced out of evidence", giving a greater weight to FUTON publications. FUTON bias may increase the impact factor of open-access journals relative to journals without open access.

One study concluded that authors in medical fields "concentrate on research published in journals that are available as full text on the internet, and ignore relevant studies that are not available in full text, thus introducing an element of bias into their search result". Authors of another study conclude that "the OA advantage is a quality advantage, rather than a quality bias", that authors make a "self-selection toward using and citing the more citable articles—once OA self-archiving has made them accessible", and that open access "itself will not make an unusable (hence uncitable) paper more used and cited".

A similar phenomenon, termed the "no abstract available bias", is a scholar's tendency to cite journal articles that have an abstract available online more readily than articles that do not—this affects articles' citation count similarly to FUTON bias.

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

Check out these latest Nanowerk News:

 

Organic molecule pushes LED emission closer to monochromatic light

A boron-rich ladder molecule narrows spontaneous emission, improving color purity while exposing stability challenges inside OLED devices.

Alkali-doped zinc oxide enables rare-earth-free mechanoluminescence

Lithium or sodium substitution turns abundant zinc oxide into a stress-activated near-infrared emitter for self-powered optical sensing.

Cryogenic silicon carbide transistor mimics neuron-like switching

A silicon carbide transistor uses negative differential resistance at millikelvin temperatures to enable low-power local control near quantum processors.

Ballistic electron transport observed in single-crystalline copper thin films

Defect-free copper pathways let electrons travel with less scattering, pointing to ways of reducing resistance in future nanoscale wiring.

Researchers discover piezoelectric effect in diamond membranes

Diamond, long deemed non-piezoelectric, now shows stable voltage generation in ultrathin flexible membranes, unlocking self-powered medical sensors.

On the trail of the missing hydrogen atoms

AI method reconstructs missing hydrogen atom positions in crystal databases, enabling faster, more accurate materials simulations for storage, batteries and other uses.

New method visualizes band structures in finite and curved nanomaterials

A new computational method extracts electronic band structures from finite, imperfect, and curved nanomaterials, linking nano-ARPES measurements with theory.

Light-induced drag reveals new way to control nanoscale motion

Researchers show light can add drag to fluorescent carbon nanotubes in water, revealing quantum friction that may help control nanoscale transport.

Novel nanowire device offers rapid, noninvasive cancer detection

The device selectively captured cancer biomarkers from the blood serum of ovarian cancer patients.

Newly synthesized fullerene material remains metallic even under low temperatures

Robust metallicity in a fullerene-based material challenges conventional electron-behavior theories and may inform future quantum technologies.