| Publication |
Sentence |
Publish Date |
Extraction Date |
Species |
| Sebastien Bouret, Emmanuel Paradis, Sandrine Prat, Laurie Castro, Pauline Perez, Emmanuel Gilissen, Cecile Garci. Linking the evolution of two prefrontal brain regions to social and foraging challenges in primates. eLife. vol 12. 2024-10-29. PMID:39468920. |
using brain imaging data from 16 primate species, we measured the size of two prefrontal brain regions, the frontal pole (fp) and the dorso-lateral prefrontal cortex (dlpfc), respectively, involved in metacognition and working memory, and examined their relation to a combination of socio-ecological variables. |
2024-10-29 |
2024-10-31 |
Not clear |
| Hiroki Bizen, Daisuke Kimur. Classifying Learning Speed Using Brain Networks and Psychological States: Unraveling the Interdependence Between Learning Performance, Psychological States, and Brain Functions. Cureus. vol 16. issue 9. 2024-10-28. PMID:39463610. |
results random forest analysis identified the left orbitofrontal area, right premotor cortex, right frontal pole, left frontal pole, left dorsolateral prefrontal cortex, and depression and anxiety as key factors. |
2024-10-28 |
2024-10-30 |
human |
| Hiroki Bizen, Daisuke Kimur. Classifying Learning Speed Using Brain Networks and Psychological States: Unraveling the Interdependence Between Learning Performance, Psychological States, and Brain Functions. Cureus. vol 16. issue 9. 2024-10-28. PMID:39463610. |
covariance structure analysis revealed that depression and anxiety affected pl through the frontal pole and prefrontal cortex, suggesting a complex interplay between psychological state, brain function, and learning. |
2024-10-28 |
2024-10-30 |
human |
| Meixiang Yang, Qinling Xie, Wenjing Xiong, Fei Xu, Meina Zhang, Men We. The characteristics of WM in individuals with depressive tendencies: A functional near-infrared spectroscopy (fNIRS) study. Brain and cognition. vol 180. 2024-07-28. PMID:39068673. |
the results suggest that the reduced activation of the frontal pole and dorsal lateral prefrontal cortex in individuals with depressive tendencies leads to poorer wm performance compared to healthy control individuals. |
2024-07-28 |
2024-08-02 |
human |
| Faezeh Heidari, Mohammad Bagher Shiran, Haniyeh Kaheni, Asra Karami, Arash Zare-Sadegh. An fMRI-based investigation of the effects of odors on the functional connectivity network underlying the working memory. Experimental brain research. 2024-05-16. PMID:38753044. |
the results of seed-based analysis suggested a function connection between the inferior parietal region and the left frontal pole region upon olfactory stimulation with vanilla scent in contrast to null stimulation in this comparison, roi-based analysis revealed an inverse synchronous among the entorhinal cortex, orbitofrontal cortex, and dorsolateral prefrontal cortex (dlpfc). |
2024-05-16 |
2024-05-27 |
human |
| Edmund T Rolls, Gustavo Deco, Chu-Chung Huang, Jianfeng Fen. The connectivity of the human frontal pole cortex, and a theory of its involvement in exploit versus explore. Cerebral cortex (New York, N.Y. : 1991). 2023-11-22. PMID:37991264. |
the frontal pole regions have effective connectivity with dorsolateral prefrontal cortex regions, the dorsal prefrontal cortex, both implicated in working memory; and with the orbitofrontal and anterior cingulate cortex reward/non-reward system. |
2023-11-22 |
2023-11-29 |
human |
| Bob Bramson, Sjoerd Meijer, Annelies van Nuland, Ivan Toni, Karin Roelof. Anxious individuals shift emotion control from lateral frontal pole to dorsolateral prefrontal cortex. Nature communications. vol 14. issue 1. 2023-08-12. PMID:37573436. |
anxious individuals shift emotion control from lateral frontal pole to dorsolateral prefrontal cortex. |
2023-08-12 |
2023-08-16 |
human |
| Èlia Vila, Raquel Pinacho, Roger Prades, Teresa Tarragó, Elena Castro, Eva Munarriz-Cuezva, J Javier Meana, Ania Eugui-Anta, Mònica Roldan, América Vera-Montecinos, Belén Ramo. Inhibition of Prolyl Oligopeptidase Restores Prohibitin 2 Levels in Psychosis Models: Relationship to Cognitive Deficits in Schizophrenia. International journal of molecular sciences. vol 24. issue 7. 2023-04-13. PMID:37046989. |
to shed light on this, we measured the phb2 levels by immunoblot in a postmortem dorsolateral prefrontal cortex (dlpfc) of schizophrenia subjects, in the frontal pole of mice treated with the nmdar antagonists phencyclidine and dizocilpine, and in rat cortical astrocytes and neurons treated with dizocilpine. |
2023-04-13 |
2023-08-14 |
mouse |
| Megan Snelleksz, Susan L Rossell, Andrew Gibbons, Jess Nithianantharajah, Brian Dea. Evidence that the frontal pole has a significant role in the pathophysiology of schizophrenia. Psychiatry research. vol 317. 2022-09-29. PMID:36174274. |
recently published data suggested there are many more changes in gene expression in the frontal pole (brodmann's area (ba) 10) compared to the dorsolateral prefrontal cortex (ba 9) and the anterior cingulate cortex (ba 33) from patients with schizophrenia. |
2022-09-29 |
2023-08-14 |
Not clear |
| Kao Yamaoka, Nobuo Uotsu, Eiichi Hoshin. Relationship between psychosocial stress-induced prefrontal cortex activity and gut microbiota in healthy Participants-A functional near-infrared spectroscopy study. Neurobiology of stress. vol 20. 2022-08-30. PMID:36039149. |
the stressful condition was accompanied by high subjective stress, high heart rate, and higher prefrontal activation in the right pre-motor cortex/supplementary motor area, right dorsolateral prefrontal cortex, right frontal pole, and right inferior prefrontal gyrus. |
2022-08-30 |
2023-08-14 |
human |
| Edmund T Rolls, Gustavo Deco, Chu-Chung Huang, Jianfeng Fen. The human language effective connectome. NeuroImage. 2022-06-06. PMID:35659999. |
a (semantic) network (group 1) involving inferior cortical regions of the superior temporal sulcus cortex (sts) with the adjacent inferior temporal visual cortex te1a and temporal pole tg, and the connected parietal pgi region, has effective connectivity with inferior temporal visual cortex (te) regions; with parietal pfm which also has visual connectivity; with posterior cingulate cortex memory-related regions; with the frontal pole, orbitofrontal cortex, and medial prefrontal cortex; with the dorsolateral prefrontal cortex; and with 44 and 45 for output regions. |
2022-06-06 |
2023-08-14 |
human |
| Qiang Wang, Shiyu Wei, Hohjin Im, Manman Zhang, Pinchun Wang, Yuxuan Zhu, Yajie Wang, Xuejun Ba. Neuroanatomical and functional substrates of the greed personality trait. Brain structure & function. vol 226. issue 4. 2021-11-30. PMID:33683479. |
the mvpa results showed that gpt was associated with the gmvs in the right lateral frontal pole cortex, left ventromedial prefrontal cortex, right lateral occipital cortex, and right occipital pole. |
2021-11-30 |
2023-08-13 |
human |
| Kristina Dahlgren, Charles Ferris, Stephan Haman. Neural correlates of successful emotional episodic encoding and retrieval: An SDM meta-analysis of neuroimaging studies. Neuropsychologia. vol 143. 2021-06-24. PMID:32416099. |
for successful emotional episodic memory retrieval, sdm activations were observed in the medial temporal lobe (bilateral amygdala, left hippocampus, and left entorhinal cortex and perirhinal cortex), visual processing regions (bilateral occipital cortex and right middle temporal gyrus), prefrontal cortex (bilateral orbitofrontal cortex, bilateral inferior frontal gyrus, bilateral precentral gyrus, left middle frontal gyrus, right frontal pole) and other regions in the left hemisphere including the temporal pole, insula, putamen, angular gyrus, and parietal opercular cortex. |
2021-06-24 |
2023-08-13 |
Not clear |
| Branka Hrvoj-Mihic, Katerina Semendefer. Neurodevelopmental disorders of the prefrontal cortex in an evolutionary context. Progress in brain research. vol 250. 2020-06-23. PMID:31703898. |
we include a pilot analysis of distribution of neurons labeled with an antibody to non-phosphorylated neurofilament protein (smi-32) in the frontal pole of williams syndrome to further examine microstructural characteristics of the prefrontal cortex in williams syndrome and implications of the distribution of smi-32 immunoreactive neurons for connectivity between the frontal pole and other cortical areas in the disorder. |
2020-06-23 |
2023-08-13 |
human |
| Juan P Ramirez-Mahaluf, Joan Perramon, Begonya Otal, Pablo Villoslada, Albert Compt. Subgenual anterior cingulate cortex controls sadness-induced modulations of cognitive and emotional network hubs. Scientific reports. vol 8. issue 1. 2019-10-11. PMID:29867204. |
by applying graph analysis methods on functional connectivity between 20 regions of interest in 22 participants we identified two main brain network modules, one dorsal and one ventral, and their hub areas: the left dorsolateral prefrontal cortex (dlpfc) and the left medial frontal pole (mfp). |
2019-10-11 |
2023-08-13 |
human |
| P Watson, G van Wingen, S de Wi. Conflicted between Goal-Directed and Habitual Control, an fMRI Investigation. eNeuro. vol 5. issue 4. 2019-03-08. PMID:30310863. |
increased activation in the caudate, dorsolateral prefrontal cortex (dlpfc), and frontal pole during training was associated with better performance during the test phase, indicative of goal-directed action control. |
2019-03-08 |
2023-08-13 |
human |
| Toshiyuki Ohtani, Elisabetta Del Re, James J Levitt, Margaret Niznikiewicz, Jun Konishi, Takeshi Asami, Toshiro Kawashima, Tomohide Roppongi, Paul G Nestor, Martha E Shenton, Dean F Salisbury, Robert W McCarle. Progressive symptom-associated prefrontal volume loss occurs in first-episode schizophrenia but not in affective psychosis. Brain structure & function. vol 223. issue 6. 2019-02-28. PMID:29671056. |
the object of this study was to determine whether first-episode schizophrenia (fesz) and first-episode affective psychosis (feaff) patients show initial and progressive pfc gmv reduction in bilateral frontal pole, superior frontal gyrus (sfg), middle frontal gyrus (mfg), and inferior frontal gyrus (ifg) and examine their symptom associations. |
2019-02-28 |
2023-08-13 |
human |
| Saskia B J Koch, Rogier B Mars, Ivan Toni, Karin Roelof. Emotional control, reappraised. Neuroscience and biobehavioral reviews. vol 95. 2019-02-11. PMID:30412701. |
we propose that the neural implementation of this emotional control mechanism relies on the anterior prefrontal cortex (apfc/lateral frontal pole), given its known role in monitoring alternative options during cognitive decision-making tasks. |
2019-02-11 |
2023-08-13 |
Not clear |
| Ilona Papousek, Elisabeth M Weiss, Corinna M Perchtold, Hannelore Weber, Vera Loureiro de Assunção, Günter Schulter, Helmut K Lackner, Andreas Fin. The capacity for generating cognitive reappraisals is reflected in asymmetric activation of frontal brain regions. Brain imaging and behavior. vol 11. issue 2. 2018-02-20. PMID:26935554. |
during cognitive reappraisal efforts, individuals higher on the capacity for generating cognitive reappraisals showed more left-lateralized activity in lateral prefrontal cortex, specifically in ventrolateral prefrontal cortex extending toward the frontal pole. |
2018-02-20 |
2023-08-13 |
human |
| Akira Ishii, Masaaki Tanaka, Yasuyoshi Watanab. The neural mechanisms underlying the decision to rest in the presence of fatigue: a magnetoencephalography study. PloS one. vol 9. issue 10. 2015-06-23. PMID:25303465. |
these results demonstrated that the dorsolateral prefrontal cortex, frontal pole, and posterior cingulate cortex play a role in the decision to rest in the presence of fatigue. |
2015-06-23 |
2023-08-13 |
human |