![xihaoli's tweet photo. A fascinating new study just published online today in @NatureMedicine reports an extraordinary case of an individual carrying the PSEN2 (p.Asn141Ile) mutation—a known driver of dominantly inherited Alzheimer’s disease (DIAD)—who remained cognitively healthy well into his mid-70s. This is nearly 18 years past the expected age of onset. The study combines longitudinal clinical assessments, neuroimaging, genetic analysis, and proteomics to uncover the mechanisms underlying his remarkable resistance to Alzheimer’s (https://t.co/MKBBWo4zcC) 🎉🧬🧠🔍
The PSEN2 p.Asn141Ile mutation causes excessive production of amyloid-beta, resulting in amyloid plaques—one of the hallmarks of Alzheimer’s disease. While this individual’s brain was filled with amyloid deposits, the expected cognitive decline and dementia never materialized. Tau pathology, another key feature of Alzheimer’s, was restricted to the occipital lobe, a brain region associated with visual processing but not typically involved in Alzheimer’s-related cognitive decline. This rare localized tau pattern may explain the individual’s cognitive preservation and highlights the potential of tau-targeted therapies.
Over the course of 10 years of follow-up, the individual’s Cognitive Dementia Rating (CDR) and Mini-Mental State Examination (MMSE) scores remained normal (CDR = 0; MMSE = 30) for the subsequent four (2014, 2016, 2018 and 2021) assessments performed over 10 years, including the most recent evaluation in 2021 at age 71.
Genetic analysis in this study utilized whole-genome sequencing (WGS) and whole-exome sequencing (WES) on family members, including the exceptional resilience mutation carrier, to identify rare and common coding variants associated with resilience to Alzheimer’s disease. Segregation analysis prioritized variants that were exclusive to the resilience carrier or specific subgroups within the family. Several unique variants were identified within the 17q21.31 MAPT-H1 haplotype region, along with potential protective variants in AD-associated genes such as TREM2 and MAPT.
Proteomic profiling in this study identified an abundance of heat shock proteins, suggesting a potential adaptive stress response. Remarkably, this individual had prolonged exposure to high temperatures while working as a mechanic on a naval ship, requiring frequent cooling with water to prevent overheating. The heat-shock response triggered by such extreme conditions may have contributed to his resistance to neurodegeneration. These results suggest that a combination of genetic factors, environmental exposures, and enriched biological pathways may contribute to the delayed onset of AD in this individual.
The imaging data tell a powerful story. PET scans showed elevated amyloid burden with a PiB cortical SUVR (Z-scored relative to non-carriers aged 50 years old and above) of ~3.6, far above the threshold for abnormal amyloid deposition. However, tau PET imaging revealed that tau pathology remained focal and asymmetric, concentrated in the occipital lobe, rather than spreading to key regions like the medial temporal lobe or parietal cortex, which are typically affected in Alzheimer’s disease. This restricted tau spread contrasts sharply with the usual progression seen in mutation carriers, where tau accumulation is tightly linked to cognitive decline.
MRI scans showed that hippocampal volume declined only modestly over the 10 years of follow-up, consistent with normal aging rather than Alzheimer’s atrophy. FDG PET scans showed localized hypometabolism in areas with focal tau deposition, yet metabolic activity remained normal in other key brain regions.
From a broader perspective, this study raises questions about the amyloid hypothesis—the long-standing theory that amyloid plaques are the primary driver of Alzheimer’s. The case suggests that limiting tau deposition and spread may be more critical in preventing cognitive decline, even in the presence of substantial amyloid burden. This finding could reshape the focus of Alzheimer’s research and clinical trials, emphasizing tau-targeted therapies.
The proteomic analysis further revealed significant differences in this individual’s plasma proteome and cerebrospinal fluid (CSF) compared to typical PSEN2 carriers. Notably, pathways related to protein folding, synaptic function, and oxidative stress were enriched, with multiple heat shock proteins showing elevated expression. These proteins may play a crucial role in maintaining cellular homeostasis and protecting against protein misfolding, a common feature of neurodegenerative diseases.
In summary, this study opens exciting new avenues for Alzheimer’s research by identifying potential protective genetic and proteomic factors. It underscores the importance of studying rare resilience cases to uncover new therapeutic strategies. Restricting tau spread may prove to be a transformative approach in delaying or preventing dementia. The insights gained from this individual offer hope for developing precision medicine strategies for Alzheimer’s disease.
Huge congratulations to the research team—Jorge J. Llibre-Guerra, M. Victoria Fernandez, Nelly Joseph-Mathurin, @shijbian, Kathleen Carter, @ccrugom, Erik C. B. Johnson, @RandallBateman3, and many others—along with the Dominantly Inherited Alzheimer Network (DIAN), the study participant and his family members, whose dedication continues to pave the way for life-changing discoveries.
[About this post: this post is based on a summary of Llibre-Guerra, J.J., Fernandez, M.V., Joseph-Mathurin, N. et al. Longitudinal analysis of a dominantly inherited Alzheimer disease mutation carrier protected from dementia. Nat Med (2025). https://t.co/ruuI6PUEK1]](https://pbs.twimg.com/media/GjevHTJWUAAPLAl.jpg)
![xihaoli's tweet photo. A fascinating new study just published online today in @NatureMedicine reports an extraordinary case of an individual carrying the PSEN2 (p.Asn141Ile) mutation—a known driver of dominantly inherited Alzheimer’s disease (DIAD)—who remained cognitively healthy well into his mid-70s. This is nearly 18 years past the expected age of onset. The study combines longitudinal clinical assessments, neuroimaging, genetic analysis, and proteomics to uncover the mechanisms underlying his remarkable resistance to Alzheimer’s (https://t.co/MKBBWo4zcC) 🎉🧬🧠🔍
The PSEN2 p.Asn141Ile mutation causes excessive production of amyloid-beta, resulting in amyloid plaques—one of the hallmarks of Alzheimer’s disease. While this individual’s brain was filled with amyloid deposits, the expected cognitive decline and dementia never materialized. Tau pathology, another key feature of Alzheimer’s, was restricted to the occipital lobe, a brain region associated with visual processing but not typically involved in Alzheimer’s-related cognitive decline. This rare localized tau pattern may explain the individual’s cognitive preservation and highlights the potential of tau-targeted therapies.
Over the course of 10 years of follow-up, the individual’s Cognitive Dementia Rating (CDR) and Mini-Mental State Examination (MMSE) scores remained normal (CDR = 0; MMSE = 30) for the subsequent four (2014, 2016, 2018 and 2021) assessments performed over 10 years, including the most recent evaluation in 2021 at age 71.
Genetic analysis in this study utilized whole-genome sequencing (WGS) and whole-exome sequencing (WES) on family members, including the exceptional resilience mutation carrier, to identify rare and common coding variants associated with resilience to Alzheimer’s disease. Segregation analysis prioritized variants that were exclusive to the resilience carrier or specific subgroups within the family. Several unique variants were identified within the 17q21.31 MAPT-H1 haplotype region, along with potential protective variants in AD-associated genes such as TREM2 and MAPT.
Proteomic profiling in this study identified an abundance of heat shock proteins, suggesting a potential adaptive stress response. Remarkably, this individual had prolonged exposure to high temperatures while working as a mechanic on a naval ship, requiring frequent cooling with water to prevent overheating. The heat-shock response triggered by such extreme conditions may have contributed to his resistance to neurodegeneration. These results suggest that a combination of genetic factors, environmental exposures, and enriched biological pathways may contribute to the delayed onset of AD in this individual.
The imaging data tell a powerful story. PET scans showed elevated amyloid burden with a PiB cortical SUVR (Z-scored relative to non-carriers aged 50 years old and above) of ~3.6, far above the threshold for abnormal amyloid deposition. However, tau PET imaging revealed that tau pathology remained focal and asymmetric, concentrated in the occipital lobe, rather than spreading to key regions like the medial temporal lobe or parietal cortex, which are typically affected in Alzheimer’s disease. This restricted tau spread contrasts sharply with the usual progression seen in mutation carriers, where tau accumulation is tightly linked to cognitive decline.
MRI scans showed that hippocampal volume declined only modestly over the 10 years of follow-up, consistent with normal aging rather than Alzheimer’s atrophy. FDG PET scans showed localized hypometabolism in areas with focal tau deposition, yet metabolic activity remained normal in other key brain regions.
From a broader perspective, this study raises questions about the amyloid hypothesis—the long-standing theory that amyloid plaques are the primary driver of Alzheimer’s. The case suggests that limiting tau deposition and spread may be more critical in preventing cognitive decline, even in the presence of substantial amyloid burden. This finding could reshape the focus of Alzheimer’s research and clinical trials, emphasizing tau-targeted therapies.
The proteomic analysis further revealed significant differences in this individual’s plasma proteome and cerebrospinal fluid (CSF) compared to typical PSEN2 carriers. Notably, pathways related to protein folding, synaptic function, and oxidative stress were enriched, with multiple heat shock proteins showing elevated expression. These proteins may play a crucial role in maintaining cellular homeostasis and protecting against protein misfolding, a common feature of neurodegenerative diseases.
In summary, this study opens exciting new avenues for Alzheimer’s research by identifying potential protective genetic and proteomic factors. It underscores the importance of studying rare resilience cases to uncover new therapeutic strategies. Restricting tau spread may prove to be a transformative approach in delaying or preventing dementia. The insights gained from this individual offer hope for developing precision medicine strategies for Alzheimer’s disease.
Huge congratulations to the research team—Jorge J. Llibre-Guerra, M. Victoria Fernandez, Nelly Joseph-Mathurin, @shijbian, Kathleen Carter, @ccrugom, Erik C. B. Johnson, @RandallBateman3, and many others—along with the Dominantly Inherited Alzheimer Network (DIAN), the study participant and his family members, whose dedication continues to pave the way for life-changing discoveries.
[About this post: this post is based on a summary of Llibre-Guerra, J.J., Fernandez, M.V., Joseph-Mathurin, N. et al. Longitudinal analysis of a dominantly inherited Alzheimer disease mutation carrier protected from dementia. Nat Med (2025). https://t.co/ruuI6PUEK1]](https://pbs.twimg.com/media/GjerDkYXkAA2hma.jpg)
Olivia
Online
Quadri Adewale
@technoryta
Postdoctoral researcher @harvardmed. PhD in neuroscience from @TheNeuro_MNI || #Poet #Mixedmartialartist
Montreal
Joined May 2011
329 Following
129 Followers
110 Posts
Only about two weeks left to give your life a new direction at the Merck Innovation Cup
https://t.co/yfFn8sne53
Are you ready to turn your brilliant ideas into reality? Join the Merck Innovation Cup and showcase your creativity and problem-solving skills!
#innovationcup
‼️PhD Position now available in my lab‼️
Do you like:
* Neurodegenerative disease?
* Neuroimaging and/or multi-omics?
* AI and data-driven life science?
Want to work with @RikOssenkoppele Alexandra Young and Laura Wisse?
Apply here: https://t.co/aQ3g5pZWJe
Please rt/share 🙏
A fascinating new study just published online today in @NatureMedicine reports an extraordinary case of an individual carrying the PSEN2 (p.Asn141Ile) mutation—a known driver of dominantly inherited Alzheimer’s disease (DIAD)—who remained cognitively healthy well into his mid-70s. This is nearly 18 years past the expected age of onset. The study combines longitudinal clinical assessments, neuroimaging, genetic analysis, and proteomics to uncover the mechanisms underlying his remarkable resistance to Alzheimer’s (https://t.co/MKBBWo4zcC) 🎉🧬🧠🔍
The PSEN2 p.Asn141Ile mutation causes excessive production of amyloid-beta, resulting in amyloid plaques—one of the hallmarks of Alzheimer’s disease. While this individual’s brain was filled with amyloid deposits, the expected cognitive decline and dementia never materialized. Tau pathology, another key feature of Alzheimer’s, was restricted to the occipital lobe, a brain region associated with visual processing but not typically involved in Alzheimer’s-related cognitive decline. This rare localized tau pattern may explain the individual’s cognitive preservation and highlights the potential of tau-targeted therapies.
Over the course of 10 years of follow-up, the individual’s Cognitive Dementia Rating (CDR) and Mini-Mental State Examination (MMSE) scores remained normal (CDR = 0; MMSE = 30) for the subsequent four (2014, 2016, 2018 and 2021) assessments performed over 10 years, including the most recent evaluation in 2021 at age 71.
Genetic analysis in this study utilized whole-genome sequencing (WGS) and whole-exome sequencing (WES) on family members, including the exceptional resilience mutation carrier, to identify rare and common coding variants associated with resilience to Alzheimer’s disease. Segregation analysis prioritized variants that were exclusive to the resilience carrier or specific subgroups within the family. Several unique variants were identified within the 17q21.31 MAPT-H1 haplotype region, along with potential protective variants in AD-associated genes such as TREM2 and MAPT.
Proteomic profiling in this study identified an abundance of heat shock proteins, suggesting a potential adaptive stress response. Remarkably, this individual had prolonged exposure to high temperatures while working as a mechanic on a naval ship, requiring frequent cooling with water to prevent overheating. The heat-shock response triggered by such extreme conditions may have contributed to his resistance to neurodegeneration. These results suggest that a combination of genetic factors, environmental exposures, and enriched biological pathways may contribute to the delayed onset of AD in this individual.
The imaging data tell a powerful story. PET scans showed elevated amyloid burden with a PiB cortical SUVR (Z-scored relative to non-carriers aged 50 years old and above) of ~3.6, far above the threshold for abnormal amyloid deposition. However, tau PET imaging revealed that tau pathology remained focal and asymmetric, concentrated in the occipital lobe, rather than spreading to key regions like the medial temporal lobe or parietal cortex, which are typically affected in Alzheimer’s disease. This restricted tau spread contrasts sharply with the usual progression seen in mutation carriers, where tau accumulation is tightly linked to cognitive decline.
MRI scans showed that hippocampal volume declined only modestly over the 10 years of follow-up, consistent with normal aging rather than Alzheimer’s atrophy. FDG PET scans showed localized hypometabolism in areas with focal tau deposition, yet metabolic activity remained normal in other key brain regions.
From a broader perspective, this study raises questions about the amyloid hypothesis—the long-standing theory that amyloid plaques are the primary driver of Alzheimer’s. The case suggests that limiting tau deposition and spread may be more critical in preventing cognitive decline, even in the presence of substantial amyloid burden. This finding could reshape the focus of Alzheimer’s research and clinical trials, emphasizing tau-targeted therapies.
The proteomic analysis further revealed significant differences in this individual’s plasma proteome and cerebrospinal fluid (CSF) compared to typical PSEN2 carriers. Notably, pathways related to protein folding, synaptic function, and oxidative stress were enriched, with multiple heat shock proteins showing elevated expression. These proteins may play a crucial role in maintaining cellular homeostasis and protecting against protein misfolding, a common feature of neurodegenerative diseases.
In summary, this study opens exciting new avenues for Alzheimer’s research by identifying potential protective genetic and proteomic factors. It underscores the importance of studying rare resilience cases to uncover new therapeutic strategies. Restricting tau spread may prove to be a transformative approach in delaying or preventing dementia. The insights gained from this individual offer hope for developing precision medicine strategies for Alzheimer’s disease.
Huge congratulations to the research team—Jorge J. Llibre-Guerra, M. Victoria Fernandez, Nelly Joseph-Mathurin, @shijbian, Kathleen Carter, @ccrugom, Erik C. B. Johnson, @RandallBateman3, and many others—along with the Dominantly Inherited Alzheimer Network (DIAN), the study participant and his family members, whose dedication continues to pave the way for life-changing discoveries.
[About this post: this post is based on a summary of Llibre-Guerra, J.J., Fernandez, M.V., Joseph-Mathurin, N. et al. Longitudinal analysis of a dominantly inherited Alzheimer disease mutation carrier protected from dementia. Nat Med (2025). https://t.co/ruuI6PUEK1]
![xihaoli's tweet photo. A fascinating new study just published online today in @NatureMedicine reports an extraordinary case of an individual carrying the PSEN2 (p.Asn141Ile) mutation—a known driver of dominantly inherited Alzheimer’s disease (DIAD)—who remained cognitively healthy well into his mid-70s. This is nearly 18 years past the expected age of onset. The study combines longitudinal clinical assessments, neuroimaging, genetic analysis, and proteomics to uncover the mechanisms underlying his remarkable resistance to Alzheimer’s (https://t.co/MKBBWo4zcC) 🎉🧬🧠🔍
The PSEN2 p.Asn141Ile mutation causes excessive production of amyloid-beta, resulting in amyloid plaques—one of the hallmarks of Alzheimer’s disease. While this individual’s brain was filled with amyloid deposits, the expected cognitive decline and dementia never materialized. Tau pathology, another key feature of Alzheimer’s, was restricted to the occipital lobe, a brain region associated with visual processing but not typically involved in Alzheimer’s-related cognitive decline. This rare localized tau pattern may explain the individual’s cognitive preservation and highlights the potential of tau-targeted therapies.
Over the course of 10 years of follow-up, the individual’s Cognitive Dementia Rating (CDR) and Mini-Mental State Examination (MMSE) scores remained normal (CDR = 0; MMSE = 30) for the subsequent four (2014, 2016, 2018 and 2021) assessments performed over 10 years, including the most recent evaluation in 2021 at age 71.
Genetic analysis in this study utilized whole-genome sequencing (WGS) and whole-exome sequencing (WES) on family members, including the exceptional resilience mutation carrier, to identify rare and common coding variants associated with resilience to Alzheimer’s disease. Segregation analysis prioritized variants that were exclusive to the resilience carrier or specific subgroups within the family. Several unique variants were identified within the 17q21.31 MAPT-H1 haplotype region, along with potential protective variants in AD-associated genes such as TREM2 and MAPT.
Proteomic profiling in this study identified an abundance of heat shock proteins, suggesting a potential adaptive stress response. Remarkably, this individual had prolonged exposure to high temperatures while working as a mechanic on a naval ship, requiring frequent cooling with water to prevent overheating. The heat-shock response triggered by such extreme conditions may have contributed to his resistance to neurodegeneration. These results suggest that a combination of genetic factors, environmental exposures, and enriched biological pathways may contribute to the delayed onset of AD in this individual.
The imaging data tell a powerful story. PET scans showed elevated amyloid burden with a PiB cortical SUVR (Z-scored relative to non-carriers aged 50 years old and above) of ~3.6, far above the threshold for abnormal amyloid deposition. However, tau PET imaging revealed that tau pathology remained focal and asymmetric, concentrated in the occipital lobe, rather than spreading to key regions like the medial temporal lobe or parietal cortex, which are typically affected in Alzheimer’s disease. This restricted tau spread contrasts sharply with the usual progression seen in mutation carriers, where tau accumulation is tightly linked to cognitive decline.
MRI scans showed that hippocampal volume declined only modestly over the 10 years of follow-up, consistent with normal aging rather than Alzheimer’s atrophy. FDG PET scans showed localized hypometabolism in areas with focal tau deposition, yet metabolic activity remained normal in other key brain regions.
From a broader perspective, this study raises questions about the amyloid hypothesis—the long-standing theory that amyloid plaques are the primary driver of Alzheimer’s. The case suggests that limiting tau deposition and spread may be more critical in preventing cognitive decline, even in the presence of substantial amyloid burden. This finding could reshape the focus of Alzheimer’s research and clinical trials, emphasizing tau-targeted therapies.
The proteomic analysis further revealed significant differences in this individual’s plasma proteome and cerebrospinal fluid (CSF) compared to typical PSEN2 carriers. Notably, pathways related to protein folding, synaptic function, and oxidative stress were enriched, with multiple heat shock proteins showing elevated expression. These proteins may play a crucial role in maintaining cellular homeostasis and protecting against protein misfolding, a common feature of neurodegenerative diseases.
In summary, this study opens exciting new avenues for Alzheimer’s research by identifying potential protective genetic and proteomic factors. It underscores the importance of studying rare resilience cases to uncover new therapeutic strategies. Restricting tau spread may prove to be a transformative approach in delaying or preventing dementia. The insights gained from this individual offer hope for developing precision medicine strategies for Alzheimer’s disease.
Huge congratulations to the research team—Jorge J. Llibre-Guerra, M. Victoria Fernandez, Nelly Joseph-Mathurin, @shijbian, Kathleen Carter, @ccrugom, Erik C. B. Johnson, @RandallBateman3, and many others—along with the Dominantly Inherited Alzheimer Network (DIAN), the study participant and his family members, whose dedication continues to pave the way for life-changing discoveries.
[About this post: this post is based on a summary of Llibre-Guerra, J.J., Fernandez, M.V., Joseph-Mathurin, N. et al. Longitudinal analysis of a dominantly inherited Alzheimer disease mutation carrier protected from dementia. Nat Med (2025). https://t.co/ruuI6PUEK1]](https://pbs.twimg.com/media/Gje0W1BWoAAhPbo.jpg)
@lemwisse and I are involved in a super cool project to advance our ability to measure spatially-resolved omics data from human tissue. We are looking for a postdoc to help push this project forward. Details below!
RT appreciated!!
https://t.co/IGoJznmLLw
Who to follow
Iturria-Medina
@MedinYasser
Canada Research Chair in Multimodal (molecular, imaging, clinical) data integration in Neurodegeneration, leading Neuroinformatics for Personalized Medicine lab
Tharick Pascoal
@TharickAPascoal
MD Ph.D., Behavioral Neurologist at @UPMC, Associate Professor at @PittPsychiatry and @PittNeurology | @LabPascoal
Marina T Dauar
@Marina_Dauar
Neurologist, PhD student at McGill University 🇨🇦 Interested in Dementia. Research in genetics of Alzheimer’s disease
BREAKING NEWS
The 2024 #NobelPrize in Physiology or Medicine has been awarded to Victor Ambros and Gary Ruvkun for the discovery of microRNA and its role in post-transcriptional gene regulation.
A nice news piece from @alzforum covering our latest paper.
🙏🏼 @marcaurelbusche for pitching in!
Synaptic Skirmish: Aβ and Tau Pathologies Battle Over Brain Rhythms https://t.co/NssVeMVlio
Our extensive Review of multi-scale and multi-factorial computational models in the search for neurodegenerative disease mechanisms and precise treatments, out in @Transl_Psych👉 https://t.co/0S1zTIuacJ.
Last PhD article from @ahmedfaraz0khan
Never before a study compared white matter hyperintensities in so many dementias and so many patients (N=4549). Here we assessed correlations with atrophy, Alzheimer biomarkers and cognitive performance. Of course, we put the focus on dementia with Lewy bodies 👇👇👇
Thrilled to share @fabian_theis lab paper on transformers in single cell omics out in @naturemethods ! Check it out to learn about the latest models, how they are trained, applied, and their limitations. https://t.co/Qo8Run5Luz (🧵1/7)
Learning from single-cell RNA-seq of 1.3 million brain cells from 16 individuals with #Alzheimers disease and 32 controls. Potential protective of Reelin and choline intake/supplementation
https://t.co/wrqdkQRV82
@manoliskellis @MathysHansruedi @carles_boix @DrLiHueiTsai and colleagues @MIT_Picower @MIT_CSAIL @Nature
An impressive and up-to-date overview of deep learning
https://t.co/HcQbZAWOqc
1/ 10 courses to get you started with bioinformatics 🧵
Correlation is not causation. In our new perspective, we connect systems biology, causal reasoning, and machine learning to inform future approaches in systems biology and molecular medicine in the wake of current deep learning advances: https://t.co/8OSgbmR93M 🧵👇
Powerful, beautiful #poetry reminding us why we honor and support our loved ones as they face frailty of mind and body.
#Alzheimers #dementia
Check out @IPNMcGill MSc. student Veronika Pak's Neuroblog on "Distinctive whole-brain cell types predict tissue damage patterns in thirteen neurodegenerative conditions"!
@mcgillu @TheNeuro_MNI @RIMUHC1 #Montreal #neuroscience
https://t.co/rCLdKcpffT
📣Article out! Novel personalized whole-brain neural-mass models, adding spatial amyloid & tau, to assess synergistic impact on functional activity in Alzheimer’s. From fMRI, AB/Tau PET, to realistic excitabilities and impact on blood markers & cognition👉https://t.co/KubfckNs0O
Single Cell Genomics Day starts tomorrow at 10AM ET!
Come for the awesome keynotes (@JD_Buenrostro , Xiaowei Zhuang, @IdoAmitLab) and to learn about our favorite new methods and trends for the field in the last year. All talks streamed on Youtube and https://t.co/KJpeGwWLIr
The Commons Cell Atlas is an open data project. All the raw data (FASTQs) are available, including the notebooks for pre-processing them and assembling a whole atlas. Want a variant of our Human CCA? Just clone the repo. 17/
Last Seen Users on Sotwe
ชอบรุ่นแม่สาวใหญ่50+😍
Seen from Thailand
The videos 18+ 
Seen from Italy
HIJAB BADDIE ON X
Seen from Indonesia
Carara
Seen from Indonesia
一苇渡江
Seen from Japan
แม่ลูกนครศรีฯ
Seen from Thailand
IVA JILBAB
Seen from Indonesia
Gattouz0 | جديد الوحش التونسي
partygetsmewetter
Seen from United States
Horny
Seen from United States
Trends for you
Most Popular Users
Elon Musk
@elonmusk
240.2M followers
Barack Obama
@barackobama
119.3M followers
Donald J. Trump
@realdonaldtrump
111.6M followers
Cristiano Ronaldo
@cristiano
109.1M followers
Narendra Modi
@narendramodi
107M followers
Rihanna
@rihanna
97.3M followers
NASA
@nasa
92.1M followers
Justin Bieber
@justinbieber
90.6M followers
KATY PERRY
@katyperry
86.9M followers
Taylor Swift
@taylorswift13
80.7M followers
Lady Gaga
@ladygaga
72.3M followers
Kim Kardashian
@kimkardashian
69.4M followers
Virat Kohli
@imvkohli
68.7M followers
YouTube
@youtube
68.6M followers
Bill Gates
@billgates
63.5M followers
The Ellen Show
@theellenshow
62.5M followers
CNN
@cnn
61.9M followers
Neymar Jr
@neymarjr
61.2M followers
X
@x
60.9M followers
Selena Gomez
@selenagomez
60M followers