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3. Description and Cross-Sectional Analyses of 25,880 Adults and Children in the UK National Registry of Rare Kidney Diseases Cohort

Author

Abat, Sharirose, Adalat, Shazia, Agbonmwandolor, Joy, Ahmad, Zubaidah, Alejmi, Abdulfattah, Almasarwah, Rashid, Annear, Nicholas, Asgari, Ellie, Ayers, Amanda, Baharani, Jyoti, Balasubramaniam, Gowrie, Kpodo, Felix Jo-Bamba, Bansal, Tarun, Barratt, Alison, Barratt, Jonathan, Bates, Megan, Bayne, Natalie, Bendle, Janet, Benyon, Sarah, Bergmann, Carsten, Bhandari, Sunil, Bingham, Coralie, Boddana, Preetham, Bond, Sally, Braddon, Fiona, Bramham, Kate, Branson, Angela, Brearey, Stephen, Brocklebank, Vicky, Budwal, Sharanjit, Byrne, Conor, Cairns, Hugh, Camilleri, Brian, Campbell, Gary, Capell, Alys, Carmody, Margaret, Carson, Marion, Cathcart, Tracy, Catley, Christine, Cesar, Karine, Chan, Melanie, Chea, Houda, Chess, James, Cheung, Chee Kay, Chick, Katy-Jane, Chitalia, Nihil, Christian, Martin, Chrysochou, Tina, Clark, Katherine, Clayton, Christopher, Clissold, Rhian, Cockerill, Helen, Coelho, Joshua, Colby, Elizabeth, Colclough, Viv, Conway, Eileen, Cook, H. Terence, Cook, Wendy, Cooper, Theresa, Coward, Richard J., Crosbie, Sarah, Cserep, Gabor, Date, Anjali, Davidson, Katherine, Davies, Amanda, Dhaun, Neeraj, Dhaygude, Ajay, Diskin, Lynn, Dixit, Abhijit, Doctolero, Eunice Ann, Dorey, Suzannah, Downard, Lewis, Drayson, Mark, Dreyer, Gavin, Dutt, Tina, Etuk, Kufreabasi, Evans, Dawn, Finch, Jenny, Flinter, Frances, Fotheringham, James, Francis, Lucy, Gale, Daniel P., Gallagher, Hugh, Game, David, Garcia, Eva Lozano, Gavrila, Madita, Gear, Susie, Geddes, Colin, Gilchrist, Mark, Gittus, Matt, Goggolidou, Paraskevi, Goldsmith, Christopher, Gooden, Patricia, Goodlife, Andrea, Goodwin, Priyanka, Grammatikopoulos, Tassos, Gray, Barry, Griffith, Megan, Gumus, Steph, Gupta, Sanjana, Hamilton, Patrick, Harper, Lorraine, Harris, Tess, Haskell, Louise, Hayward, Samantha, Hegde, Shivaram, Hendry, Bruce, Hewins, Sue, Hewitson, Nicola, Hillman, Kate, Hiremath, Mrityunjay, Howson, Alexandra, Htet, Zay, Huish, Sharon, Hull, Richard, Humphries, Alister, Hunt, David P.J., Hunter, Karl, Hunter, Samantha, Ijeomah-Orji, Marilyn, Inston, Nick, Jayne, David, Jenfa, Gbemisola, Jenkins, Alison, Johnson, Sally, Jones, Caroline A., Jones, Colin, Jones, Amanda, Jones, Rachel, Kamesh, Lavanya, Kanigicherla, Durga, Frankl, Fiona Karet, Karim, Mahzuz, Kaur, Amrit, Kavanagh, David, Kearley, Kelly, Kerecuk, Larissa, Khwaja, Arif, King, Garry, King, Grant, Kislowska, Ewa, Klata, Edyta, Kokocinska, Maria, Lambie, Mark, Lawless, Laura, Ledson, Thomas, Lennon, Rachel, Levine, Adam P., Maggie Lai, Ling Wai, Lipkin, Graham, Lovitt, Graham, Lyons, Paul, Mabillard, Holly, Mackintosh, Katherine, Mahdi, Khalid, Maher, Eamonn, Marchbank, Kevin J., Mark, Patrick B., Masoud, Sherry, Masunda, Bridgett, Mavani, Zainab, Mayfair, Jake, McAdoo, Stephen, Mckinnell, Joanna, Melhem, Nabil, Meyrick, Simon, Moochhala, Shabbir, Morgan, Putnam, Morgan, Ann, Muhammad, Fawad, Murray, Shona, Novobritskaya, Kristina, Ong, Albert CM., Oni, Louise, Osmaston, Kate, Padmanabhan, Neal, Parkes, Sharon, Patrick, Jean, Pattison, James, Paul, Riny, Percival, Rachel, Perkins, Stephen J., Persu, Alexandre, Petchey, William G., Pickering, Matthew C., Pinney, Jennifer, Pitcher, David, Plumb, Lucy, Plummer, Zoe, Popoola, Joyce, Post, Frank, Power, Albert, Pratt, Guy, Pusey, Charles, Rabara, Ria, Rabuya, May, Raju, Tina, Javier, Chadd, Roberts, Ian SD., Roufosse, Candice, Rumjon, Adam, Salama, Alan, Saleem, Moin, Sandford, R.N., Sandu, Kanwaljit S., Sarween, Nadia, Sayer, John A., Sebire, Neil, Selvaskandan, Haresh, Shah, Sapna, Sharma, Asheesh, Sharples, Edward J., Sheerin, Neil, Shetty, Harish, Shroff, Rukshana, Simms, Roslyn, Sinha, Manish, Sinha, Smeeta, Smith, Kerry, Smith, Lara, Srivastava, Shalabh, Steenkamp, Retha, Stott, Ian, Stroud, Katerina, Swift, Pauline, Szklarzewicz, Justyna, Tam, Fred, Tan, Kay, Taylor, Robert, Tischkowitz, Marc, Thomas, Kay, Tse, Yincent, Turnbull, Alison, Turner, A. Neil, Tyerman, Kay, Usher, Miranda, Venkat-Raman, Gopalakrishnan, Walker, Alycon, Walsh, Stephen B., Waters, Aoife, Watt, Angela, Webster, Phil, Wechalekar, Ashutosh, Welsh, Gavin Iain, West, Nicol, Wheeler, David, Wiles, Kate, Willcocks, Lisa, Williams, Angharad, Williams, Emma, Williams, Karen, Wilson, Deborah H., Wilson, Patricia D., Winyard, Paul, Wong, Edwin, Wong, Katie, Wood, Grahame, Woodward, Emma, Woodward, Len, Woolf, Adrian, Wright, David, Downward, Lewis, Griffin, Sian, Hall, Matt, Karet Frankl, Fiona, Maher, Eamonn R., Pinney, Jenny, Tam, Frederick W.K., Wilson, Patricia, Sy, Karla Therese L., Huang, Kui, Ye, Jamie, Nitsch, Dorothea, and Bockenhauer, Detlef

Published
2024
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5. Effects of rare kidney diseases on kidney failure: a longitudinal analysis of the UK National Registry of Rare Kidney Diseases (RaDaR) cohort

Author

Abat, Sharirose, Adalat, Shazia, Agbonmwandolor, Joy, Ahmad, Zubaidah, Alejmi, Abdulfattah, Almasarwah, Rashid, Annear, Nicholas, Asgari, Ellie, Ayers, Amanda, Baharani, Jyoti, Balasubramaniam, Gowrie, Kpodo, Felix, Bansal, Tarun, Barratt, Alison, Barratt, Jonathan, Bates, Megan, Bayne, Natalie, Bendle, Janet, Benyon, Sarah, Bergmann, Carsten, Bhandari, Sunil, Bingham, Coralie, Boddana, Preetham, Bond, Sally, Braddon, Fiona, Bramham, Kate, Branson, Angela, Brearey, Stephen, Brocklebank, Vicky, Budwal, Sharanjit, Byrne, Conor, Cairns, Hugh, Camilleri, Brian, Campbell, Gary, Capell, Alys, Carmody, Margaret, Carson, Marion, Cathcart, Tracy, Catley, Christine, Cesar, Karine, Chan, Melanie, Chea, Houda, Chess, James, Cheung, Chee Kay, Chick, Katy-Jane, Chitalia, Nihil, Christian, Martin, Chrysochou, Tina, Clark, Katherine, Clayton, Christopher, Clissold, Rhian, Cockerill, Helen, Coelho, Joshua, Colby, Elizabeth, Colclough, Viv, Conway, Eileen, Cook, H Terence, Cook, Wendy, Cooper, Theresa, Coward, Richard J, Crosbie, Sarah, Cserep, Gabor, Date, Anjali, Davidson, Katherine, Davies, Amanda, Dhaun, Neeraj, Dhaygude, Ajay, Diskin, Lynn, Dixit, Abhijit, Doctolero, Eunice, Dorey, Suzannah, Downard, Lewis, Drayson, Mark, Dreyer, Gavin, Dutt, Tina, Etuk, Kufreabasi, Evans, Dawn, Finch, Jenny, Flinter, Frances, Fotheringham, James, Francis, Lucy, Gale, Daniel P, Gallagher, Hugh, Game, David, Garcia, Eva, Gavrila, Madita, Gear, Susie, Geddes, Colin, Gilchrist, Mark, Gittus, Matt, Goggolidou, Paraskevi, Goldsmith, Christopher, Gooden, Patricia, Goodlife, Andrea, Goodwin, Priyanka, Grammatikopoulos, Tassos, Gray, Barry, Griffith, Megan, Gumus, Steph, Gupta, Sanjana, Hamilton, Patrick, Harper, Lorraine, Harris, Tess, Haskell, Louise, Hayward, Samantha, Hegde, Shivaram, Hendry, Bruce, Hewins, Sue, Hewitson, Nicola, Hillman, Kate, Hiremath, Mrityunjay, Howson, Alexandra, Htet, Zay, Huish, Sharon, Hull, Richard, Humphries, Alister, Hunt, David P J, Hunter, Karl, Hunter, Samantha, Ijeomah-Orji, Marilyn, Inston, Nick, Jayne, David, Jenfa, Gbemisola, Jenkins, Alison, Johnson, Sally, Jones, Caroline A, Jones, Colin, Jones, Amanda, Jones, Rachel, Kamesh, Lavanya, Kanigicherla, Durga, Karet Frankl, Fiona, Karim, Mahzuz, Kaur, Amrit, Kavanagh, David, Kearley, Kelly, Kerecuk, Larissa, Khwaja, Arif, King, Garry, King, Grant, Kislowska, Ewa, Klata, Edyta, Kokocinska, Maria, Lambie, Mark, Lawless, Laura, Ledson, Thomas, Lennon, Rachel, Levine, Adam P, Lai, Ling Wai Maggie, Lipkin, Graham, Lovitt, Graham, Lyons, Paul, Mabillard, Holly, Mackintosh, Katherine, Mahdi, Khalid, Maher, Eamonn, Marchbank, Kevin J, Mark, Patrick B, Masoud, Sherry, Masunda, Bridgett, Mavani, Zainab, Mayfair, Jake, McAdoo, Stephen, Mckinnell, Joanna, Melhem, Nabil, Meyrick, Simon, Moochhala, Shabbir, Morgan, Putnam, Morgan, Ann, Muhammad, Fawad, Murray, Shona, Novobritskaya, Kristina, Ong, Albert CM, Oni, Louise, Osmaston, Kate, Padmanabhan, Neal, Parkes, Sharon, Patrick, Jean, Pattison, James, Paul, Riny, Percival, Rachel, Perkins, Stephen J, Persu, Alexandre, Petchey, William G, Pickering, Matthew C, Pinney, Jennifer, Pitcher, David, Plumb, Lucy, Plummer, Zoe, Popoola, Joyce, Post, Frank, Power, Albert, Pratt, Guy, Pusey, Charles, Rabara, Ria, Rabuya, May, Raju, Tina, Javier, Chadd, Roberts, Ian S D, Roufosse, Candice, Rumjon, Adam, Salama, Alan, Saleem, Moin, Sandford, Richard, Sandu, Kanwaljit S, Sarween, Nadia, Sayer, John A, Sebire, Neil, Selvaskandan, Haresh, Sharma, Asheesh, Sharples, Edward J, Sheerin, Neil, Shetty, Harish, Shroff, Rukshana, Simms, Roslyn, Sinha, Manish, Sinha, Smeeta, Smith, Kerry, Smith, Lara, Srivastava, Shalabh, Steenkamp, Retha, Stott, Ian, Stroud, Katerina, Swift, Pauline, Szklarzewicz, Justyna, Tam, Fred, Tan, Kay, Taylor, Robert, Tischkowitz, Marc, Thomas, Kay, Tse, Yincent, Turnbull, Alison, Turner, A Neil, Tyerman, Kay, Usher, Miranda, Venkat-Raman, Gopalakrishnan, Walker, Alycon, Walsh, Stephen B, Waters, Aoife, Watt, Angela, Webster, Phil, Wechalekar, Ashutosh, Welsh, Gavin I, West, Nicol, Wheeler, David, Wiles, Kate, Willcocks, Lisa, Williams, Angharad, Williams, Emma, Williams, Karen, Wilson, Deborah H, Wilson, Patricia D, Winyard, Paul, Wong, Edwin, Wong, Katie, Wood, Grahame, Woodward, Emma, Woodward, Len, Woolf, Adrian, Wright, David, Downward, Lewis, Chrysochou, Constantina, Griffin, Sian, Hall, Matt, Maher, Eamonn R, Pinney, Jenny, Tam, Frederick W K, Turner, Andrew Neil, Wilson, Patricia, Taylor, Christopher Mark, Nitsch, Dorothea, and Bockenhauer, Detlef

Published
2024
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7. The dynamic nuclear periphery as a facilitator of gamete health and rejuvenation

Author

King, Grant A and Ünal, Elçin

Subjects
Biochemistry and Cell Biology, Biological Sciences, 1.1 Normal biological development and functioning, Underpinning research, Generic health relevance, Cell Nucleus, Germ Cells, Meiosis, Rejuvenation, Saccharomycetales, Nuclear envelope, Aging, Nuclear pore complex, Cell division, Budding yeast, Genetics, Microbiology
Abstract

The nuclear periphery is a hotspot for the accumulation of age-induced damage in eukaryotic cells. The types of damage that occur at the periphery and their phenotypic consequences have begun to be characterized; however, the mechanisms by which cells repair or eliminate nuclear damage remain poorly understood. Using budding yeast meiosis as a natural system to study cellular rejuvenation, we recently discovered a novel nuclear quality control event, in which age-induced damage is sequestered away from dividing chromosomes to a discarded nuclear compartment that we term the GUNC (for "Gametogenesis Uninherited Nuclear Compartment"). Interestingly, extensive nuclear remodeling occurs even in young cells, including a surprising modularity of the nuclear pore complex, suggesting a general contribution to gamete fitness. In this review, we discuss these findings in the context of recent evidence that the nuclear periphery is a highly dynamic region critical for cellular health.

Published
2020

8. Meiotic cellular rejuvenation is coupled to nuclear remodeling in budding yeast.

Author

King, Grant A, Goodman, Jay S, Schick, Jennifer G, Chetlapalli, Keerthana, Jorgens, Danielle M, McDonald, Kent L, and Ünal, Elçin

Subjects
Saccharomycetales, Macromolecular Substances, Biological Factors, Microscopy, Fluorescence, Meiosis, Time-Lapse Imaging, S. cerevisiae, aging, cell biology, meiosis, nuclear pore complex, nucleolus, protein aggregation, quality control, Prevention, 1.1 Normal biological development and functioning, Generic Health Relevance, Biochemistry and Cell Biology
Abstract

Production of healthy gametes in meiosis relies on the quality control and proper distribution of both nuclear and cytoplasmic contents. Meiotic differentiation naturally eliminates age-induced cellular damage by an unknown mechanism. Using time-lapse fluorescence microscopy in budding yeast, we found that nuclear senescence factors - including protein aggregates, extrachromosomal ribosomal DNA circles, and abnormal nucleolar material - are sequestered away from chromosomes during meiosis II and subsequently eliminated. A similar sequestration and elimination process occurs for the core subunits of the nuclear pore complex in both young and aged cells. Nuclear envelope remodeling drives the formation of a membranous compartment containing the sequestered material. Importantly, de novo generation of plasma membrane is required for the sequestration event, preventing the inheritance of long-lived nucleoporins and senescence factors into the newly formed gametes. Our study uncovers a new mechanism of nuclear quality control and provides insight into its function in meiotic cellular rejuvenation.

Published
2019

9. Not just binary: embracing the complexity of nuclear division dynamics.

Author

Walsh, Madison E., King, Grant A., and Ünal, Elçin

Subjects
*NUCLEAR pore complex, *NUCLEAR transport (Cytology), *CELL division, *EUKARYOTIC cells, *MEIOSIS, *NUCLEOCYTOPLASMIC interactions
Abstract

Cell division presents a challenge for eukaryotic cells: how can chromosomes effectively segregate within the confines of a membranous nuclear compartment? Different organisms have evolved diverse solutions by modulating the degree of nuclear compartmentalization, ranging from complete nuclear envelope breakdown to complete maintenance of nuclear compartmentalization via nuclear envelope expansion. Many intermediate forms exist between these extremes, suggesting that nuclear dynamics during cell division are surprisingly plastic. In this review, we highlight the evolutionary diversity of nuclear divisions, focusing on two defining characteristics: (1) chromosome compartmentalization and (2) nucleocytoplasmic transport. Further, we highlight recent evidence that nuclear behavior during division can vary within different cellular contexts in the same organism. The variation observed within and between organisms underscores the dynamic evolution of nuclear divisions tailored to specific contexts and cellular requirements. In-depth investigation of diverse nuclear divisions will enhance our understanding of the nucleus, both in physiological and pathological states. [ABSTRACT FROM AUTHOR]

Published
2024
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10. Predicted glycosyltransferases promote development and prevent spurious cell clumping in the choanoflagellate S. rosetta.

Author

Wetzel, Laura A, Levin, Tera C, Hulett, Ryan E, Chan, Daniel, King, Grant A, Aldayafleh, Reef, Booth, David S, Sigg, Monika Abedin, and King, Nicole

Subjects
Extracellular Matrix, Glycosyltransferases, Receptors, Cell Surface, Protozoan Proteins, Extracellular Matrix Proteins, Cell Adhesion, Amino Acid Sequence, Sequence Homology, Amino Acid, Glycosylation, Phenotype, Mutation, Choanoflagellata, S. rosetta, evolutionary biology, genetic screen, genetics, genomics, glycosyltransferase, multicellularity, Receptors, Cell Surface, Sequence Homology, Amino Acid, Genetics, Biochemistry and Cell Biology
Abstract

In a previous study we established forward genetics in the choanoflagellate Salpingoeca rosetta and found that a C-type lectin gene is required for rosette development (Levin et al., 2014). Here we report on critical improvements to genetic screens in S. rosetta while also investigating the genetic basis for rosette defect mutants in which single cells fail to develop into orderly rosettes and instead aggregate promiscuously into amorphous clumps of cells. Two of the mutants, Jumble and Couscous, mapped to lesions in genes encoding two different predicted glycosyltransferases and displayed aberrant glycosylation patterns in the basal extracellular matrix (ECM). In animals, glycosyltransferases sculpt the polysaccharide-rich ECM, regulate integrin and cadherin activity, and, when disrupted, contribute to tumorigenesis. The finding that predicted glycosyltransferases promote proper rosette development and prevent cell aggregation in S. rosetta suggests a pre-metazoan role for glycosyltransferases in regulating development and preventing abnormal tumor-like multicellularity.

Published
2018

11. Pivotal roles of PCNA loading and unloading in heterochromatin function

Author

Janke, Ryan, King, Grant A, Kupiec, Martin, and Rine, Jasper

Subjects
Biological Sciences, Physical Sciences, Genetics, Underpinning research, 1.1 Normal biological development and functioning, Carrier Proteins, DNA Replication, Gene Deletion, Gene Expression Regulation, Fungal, Gene Silencing, Genome, Fungal, Heterochromatin, Histones, Open Reading Frames, Plasmids, Proliferating Cell Nuclear Antigen, Ribonucleases, S Phase, Saccharomyces cerevisiae, Saccharomyces cerevisiae Proteins, Transcription, Genetic, PCNA, nucleosome assembly, heterochromatin, CAF-1, Elg1
Abstract

In Saccharomyces cerevisiae, heterochromatin structures required for transcriptional silencing of the HML and HMR loci are duplicated in coordination with passing DNA replication forks. Despite major reorganization of chromatin structure, the heterochromatic, transcriptionally silent states of HML and HMR are successfully maintained throughout S-phase. Mutations of specific components of the replisome diminish the capacity to maintain silencing of HML and HMR through replication. Similarly, mutations in histone chaperones involved in replication-coupled nucleosome assembly reduce gene silencing. Bridging these observations, we determined that the proliferating cell nuclear antigen (PCNA) unloading activity of Elg1 was important for coordinating DNA replication forks with the process of replication-coupled nucleosome assembly to maintain silencing of HML and HMR through S-phase. Collectively, these data identified a mechanism by which chromatin reassembly is coordinated with DNA replication to maintain silencing through S-phase.

Published
2018

13. Description and cross-sectional analyses of 25,880 adults and children in the UK National Registry of Rare Kidney Diseases cohort

Author

Wong, Katie, primary, Pitcher, David, additional, Braddon, Fiona, additional, Downward, Lewis, additional, Steenkamp, Retha, additional, Masoud, Sherry, additional, Annear, Nicholas, additional, Barratt, Jonathan, additional, Bingham, Coralie, additional, Coward, Richard J., additional, Chrysochou, Tina, additional, Game, David, additional, Griffin, Sian, additional, Hall, Matt, additional, Johnson, Sally, additional, Kanigicherla, Durga, additional, Karet Frankl, Fiona, additional, Kavanagh, David, additional, Kerecuk, Larissa, additional, Maher, Eamonn R., additional, Moochhala, Shabbir, additional, Pinney, Jenny, additional, Sayer, John A., additional, Simms, Roslyn, additional, Sinha, Smeeta, additional, Srivastava, Shalabh, additional, Tam, Frederick W.K., additional, Thomas, Kay, additional, Turner, A. Neil, additional, Walsh, Stephen B., additional, Waters, Aoife, additional, Wilson, Patricia, additional, Wong, Edwin, additional, Abat, Sharirose, additional, Adalat, Shazia, additional, Agbonmwandolor, Joy, additional, Ahmad, Zubaidah, additional, Alejmi, Abdulfattah, additional, Almasarwah, Rashid, additional, Asgari, Ellie, additional, Ayers, Amanda, additional, Baharani, Jyoti, additional, Balasubramaniam, Gowrie, additional, Jo-Bamba Kpodo, Felix, additional, Bansal, Tarun, additional, Barratt, Alison, additional, Bates, Megan, additional, Bayne, Natalie, additional, Bendle, Janet, additional, Benyon, Sarah, additional, Bergmann, Carsten, additional, Bhandari, Sunil, additional, Boddana, Preetham, additional, Bond, Sally, additional, Bramham, Kate, additional, Branson, Angela, additional, Brearey, Stephen, additional, Brocklebank, Vicky, additional, Budwal, Sharanjit, additional, Byrne, Conor, additional, Cairns, Hugh, additional, Camilleri, Brian, additional, Campbell, Gary, additional, Capell, Alys, additional, Carmody, Margaret, additional, Carson, Marion, additional, Cathcart, Tracy, additional, Catley, Christine, additional, Cesar, Karine, additional, Chan, Melanie, additional, Chea, Houda, additional, Chess, James, additional, Cheung, Chee Kay, additional, Chick, Katy-Jane, additional, Chitalia, Nihil, additional, Christian, Martin, additional, Clark, Katherine, additional, Clayton, Christopher, additional, Clissold, Rhian, additional, Cockerill, Helen, additional, Coelho, Joshua, additional, Colby, Elizabeth, additional, Colclough, Viv, additional, Conway, Eileen, additional, Cook, H. Terence, additional, Cook, Wendy, additional, Cooper, Theresa, additional, Crosbie, Sarah, additional, Cserep, Gabor, additional, Date, Anjali, additional, Davidson, Katherine, additional, Davies, Amanda, additional, Dhaun, Neeraj, additional, Dhaygude, Ajay, additional, Diskin, Lynn, additional, Dixit, Abhijit, additional, Doctolero, Eunice Ann, additional, Dorey, Suzannah, additional, Downard, Lewis, additional, Drayson, Mark, additional, Dreyer, Gavin, additional, Dutt, Tina, additional, Etuk, Kufreabasi, additional, Evans, Dawn, additional, Finch, Jenny, additional, Flinter, Frances, additional, Fotheringham, James, additional, Francis, Lucy, additional, Gale, Daniel P., additional, Gallagher, Hugh, additional, Garcia, Eva Lozano, additional, Gavrila, Madita, additional, Gear, Susie, additional, Geddes, Colin, additional, Gilchrist, Mark, additional, Gittus, Matt, additional, Goggolidou, Paraskevi, additional, Goldsmith, Christopher, additional, Gooden, Patricia, additional, Goodlife, Andrea, additional, Goodwin, Priyanka, additional, Grammatikopoulos, Tassos, additional, Gray, Barry, additional, Griffith, Megan, additional, Gumus, Steph, additional, Gupta, Sanjana, additional, Hamilton, Patrick, additional, Harper, Lorraine, additional, Harris, Tess, additional, Haskell, Louise, additional, Hayward, Samantha, additional, Hegde, Shivaram, additional, Hendry, Bruce, additional, Hewins, Sue, additional, Hewitson, Nicola, additional, Hillman, Kate, additional, Hiremath, Mrityunjay, additional, Howson, Alexandra, additional, Htet, Zay, additional, Huish, Sharon, additional, Hull, Richard, additional, Humphries, Alister, additional, Hunt, David P.J., additional, Hunter, Karl, additional, Hunter, Samantha, additional, Ijeomah-Orji, Marilyn, additional, Inston, Nick, additional, Jayne, David, additional, Jenfa, Gbemisola, additional, Jenkins, Alison, additional, Jones, Caroline A., additional, Jones, Colin, additional, Jones, Amanda, additional, Jones, Rachel, additional, Kamesh, Lavanya, additional, Frankl, Fiona Karet, additional, Karim, Mahzuz, additional, Kaur, Amrit, additional, Kearley, Kelly, additional, Khwaja, Arif, additional, King, Garry, additional, King, Grant, additional, Kislowska, Ewa, additional, Klata, Edyta, additional, Kokocinska, Maria, additional, Lambie, Mark, additional, Lawless, Laura, additional, Ledson, Thomas, additional, Lennon, Rachel, additional, Levine, Adam P., additional, Maggie Lai, Ling Wai, additional, Lipkin, Graham, additional, Lovitt, Graham, additional, Lyons, Paul, additional, Mabillard, Holly, additional, Mackintosh, Katherine, additional, Mahdi, Khalid, additional, Maher, Eamonn, additional, Marchbank, Kevin J., additional, Mark, Patrick B., additional, Masunda, Bridgett, additional, Mavani, Zainab, additional, Mayfair, Jake, additional, McAdoo, Stephen, additional, Mckinnell, Joanna, additional, Melhem, Nabil, additional, Meyrick, Simon, additional, Morgan, Putnam, additional, Morgan, Ann, additional, Muhammad, Fawad, additional, Murray, Shona, additional, Novobritskaya, Kristina, additional, Ong, Albert CM., additional, Oni, Louise, additional, Osmaston, Kate, additional, Padmanabhan, Neal, additional, Parkes, Sharon, additional, Patrick, Jean, additional, Pattison, James, additional, Paul, Riny, additional, Percival, Rachel, additional, Perkins, Stephen J., additional, Persu, Alexandre, additional, Petchey, William G., additional, Pickering, Matthew C., additional, Pinney, Jennifer, additional, Plumb, Lucy, additional, Plummer, Zoe, additional, Popoola, Joyce, additional, Post, Frank, additional, Power, Albert, additional, Pratt, Guy, additional, Pusey, Charles, additional, Rabara, Ria, additional, Rabuya, May, additional, Raju, Tina, additional, Javier, Chadd, additional, Roberts, Ian SD., additional, Roufosse, Candice, additional, Rumjon, Adam, additional, Salama, Alan, additional, Saleem, Moin, additional, Sandford, R.N., additional, Sandu, Kanwaljit S., additional, Sarween, Nadia, additional, Sebire, Neil, additional, Selvaskandan, Haresh, additional, Shah, Sapna, additional, Sharma, Asheesh, additional, Sharples, Edward J., additional, Sheerin, Neil, additional, Shetty, Harish, additional, Shroff, Rukshana, additional, Sinha, Manish, additional, Smith, Kerry, additional, Smith, Lara, additional, Stott, Ian, additional, Stroud, Katerina, additional, Swift, Pauline, additional, Szklarzewicz, Justyna, additional, Tam, Fred, additional, Tan, Kay, additional, Taylor, Robert, additional, Tischkowitz, Marc, additional, Tse, Yincent, additional, Turnbull, Alison, additional, Turner, A Neil, additional, Tyerman, Kay, additional, Usher, Miranda, additional, Venkat-Raman, Gopalakrishnan, additional, Walker, Alycon, additional, Watt, Angela, additional, Webster, Phil, additional, Wechalekar, Ashutosh, additional, Welsh, Gavin Iain, additional, West, Nicol, additional, Wheeler, David, additional, Wiles, Kate, additional, Willcocks, Lisa, additional, Williams, Angharad, additional, Williams, Emma, additional, Williams, Karen, additional, Wilson, Deborah H., additional, Wilson, Patricia D., additional, Winyard, Paul, additional, Wong, Katie, additional, Wood, Grahame, additional, Woodward, Emma, additional, Woodward, Len, additional, Woolf, Adrian, additional, Wright, David, additional, Sy, Karla Therese L., additional, Huang, Kui, additional, Ye, Jamie, additional, Nitsch, Dorothea, additional, and Bockenhauer, Detlef, additional

Published
2024
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15. Effects of rare kidney diseases on kidney failure: a longitudinal analysis of the UK National Registry of Rare Kidney Diseases (RaDaR) cohort

Author

Wong, Katie, primary, Pitcher, David, additional, Braddon, Fiona, additional, Downward, Lewis, additional, Steenkamp, Retha, additional, Annear, Nicholas, additional, Barratt, Jonathan, additional, Bingham, Coralie, additional, Chrysochou, Constantina, additional, Coward, Richard J, additional, Game, David, additional, Griffin, Sian, additional, Hall, Matt, additional, Johnson, Sally, additional, Kanigicherla, Durga, additional, Karet Frankl, Fiona, additional, Kavanagh, David, additional, Kerecuk, Larissa, additional, Maher, Eamonn R, additional, Moochhala, Shabbir, additional, Pinney, Jenny, additional, Sayer, John A, additional, Simms, Roslyn, additional, Sinha, Smeeta, additional, Srivastava, Shalabh, additional, Tam, Frederick W K, additional, Turner, Andrew Neil, additional, Walsh, Stephen B, additional, Waters, Aoife, additional, Wilson, Patricia, additional, Wong, Edwin, additional, Taylor, Christopher Mark, additional, Nitsch, Dorothea, additional, Saleem, Moin, additional, Bockenhauer, Detlef, additional, Bramham, Kate, additional, Gale, Daniel P, additional, Abat, Sharirose, additional, Adalat, Shazia, additional, Agbonmwandolor, Joy, additional, Ahmad, Zubaidah, additional, Alejmi, Abdulfattah, additional, Almasarwah, Rashid, additional, Asgari, Ellie, additional, Ayers, Amanda, additional, Baharani, Jyoti, additional, Balasubramaniam, Gowrie, additional, Kpodo, Felix, additional, Bansal, Tarun, additional, Barratt, Alison, additional, Bates, Megan, additional, Bayne, Natalie, additional, Bendle, Janet, additional, Benyon, Sarah, additional, Bergmann, Carsten, additional, Bhandari, Sunil, additional, Boddana, Preetham, additional, Bond, Sally, additional, Branson, Angela, additional, Brearey, Stephen, additional, Brocklebank, Vicky, additional, Budwal, Sharanjit, additional, Byrne, Conor, additional, Cairns, Hugh, additional, Camilleri, Brian, additional, Campbell, Gary, additional, Capell, Alys, additional, Carmody, Margaret, additional, Carson, Marion, additional, Cathcart, Tracy, additional, Catley, Christine, additional, Cesar, Karine, additional, Chan, Melanie, additional, Chea, Houda, additional, Chess, James, additional, Cheung, Chee Kay, additional, Chick, Katy-Jane, additional, Chitalia, Nihil, additional, Christian, Martin, additional, Chrysochou, Tina, additional, Clark, Katherine, additional, Clayton, Christopher, additional, Clissold, Rhian, additional, Cockerill, Helen, additional, Coelho, Joshua, additional, Colby, Elizabeth, additional, Colclough, Viv, additional, Conway, Eileen, additional, Cook, H Terence, additional, Cook, Wendy, additional, Cooper, Theresa, additional, Crosbie, Sarah, additional, Cserep, Gabor, additional, Date, Anjali, additional, Davidson, Katherine, additional, Davies, Amanda, additional, Dhaun, Neeraj, additional, Dhaygude, Ajay, additional, Diskin, Lynn, additional, Dixit, Abhijit, additional, Doctolero, Eunice, additional, Dorey, Suzannah, additional, Downard, Lewis, additional, Drayson, Mark, additional, Dreyer, Gavin, additional, Dutt, Tina, additional, Etuk, Kufreabasi, additional, Evans, Dawn, additional, Finch, Jenny, additional, Flinter, Frances, additional, Fotheringham, James, additional, Francis, Lucy, additional, Gallagher, Hugh, additional, Garcia, Eva, additional, Gavrila, Madita, additional, Gear, Susie, additional, Geddes, Colin, additional, Gilchrist, Mark, additional, Gittus, Matt, additional, Goggolidou, Paraskevi, additional, Goldsmith, Christopher, additional, Gooden, Patricia, additional, Goodlife, Andrea, additional, Goodwin, Priyanka, additional, Grammatikopoulos, Tassos, additional, Gray, Barry, additional, Griffith, Megan, additional, Gumus, Steph, additional, Gupta, Sanjana, additional, Hamilton, Patrick, additional, Harper, Lorraine, additional, Harris, Tess, additional, Haskell, Louise, additional, Hayward, Samantha, additional, Hegde, Shivaram, additional, Hendry, Bruce, additional, Hewins, Sue, additional, Hewitson, Nicola, additional, Hillman, Kate, additional, Hiremath, Mrityunjay, additional, Howson, Alexandra, additional, Htet, Zay, additional, Huish, Sharon, additional, Hull, Richard, additional, Humphries, Alister, additional, Hunt, David P J, additional, Hunter, Karl, additional, Hunter, Samantha, additional, Ijeomah-Orji, Marilyn, additional, Inston, Nick, additional, Jayne, David, additional, Jenfa, Gbemisola, additional, Jenkins, Alison, additional, Jones, Caroline A, additional, Jones, Colin, additional, Jones, Amanda, additional, Jones, Rachel, additional, Kamesh, Lavanya, additional, Karim, Mahzuz, additional, Kaur, Amrit, additional, Kearley, Kelly, additional, Khwaja, Arif, additional, King, Garry, additional, King, Grant, additional, Kislowska, Ewa, additional, Klata, Edyta, additional, Kokocinska, Maria, additional, Lambie, Mark, additional, Lawless, Laura, additional, Ledson, Thomas, additional, Lennon, Rachel, additional, Levine, Adam P, additional, Lai, Ling Wai Maggie, additional, Lipkin, Graham, additional, Lovitt, Graham, additional, Lyons, Paul, additional, Mabillard, Holly, additional, Mackintosh, Katherine, additional, Mahdi, Khalid, additional, Maher, Eamonn, additional, Marchbank, Kevin J, additional, Mark, Patrick B, additional, Masoud, Sherry, additional, Masunda, Bridgett, additional, Mavani, Zainab, additional, Mayfair, Jake, additional, McAdoo, Stephen, additional, Mckinnell, Joanna, additional, Melhem, Nabil, additional, Meyrick, Simon, additional, Morgan, Putnam, additional, Morgan, Ann, additional, Muhammad, Fawad, additional, Murray, Shona, additional, Novobritskaya, Kristina, additional, Ong, Albert CM, additional, Oni, Louise, additional, Osmaston, Kate, additional, Padmanabhan, Neal, additional, Parkes, Sharon, additional, Patrick, Jean, additional, Pattison, James, additional, Paul, Riny, additional, Percival, Rachel, additional, Perkins, Stephen J, additional, Persu, Alexandre, additional, Petchey, William G, additional, Pickering, Matthew C, additional, Pinney, Jennifer, additional, Plumb, Lucy, additional, Plummer, Zoe, additional, Popoola, Joyce, additional, Post, Frank, additional, Power, Albert, additional, Pratt, Guy, additional, Pusey, Charles, additional, Rabara, Ria, additional, Rabuya, May, additional, Raju, Tina, additional, Javier, Chadd, additional, Roberts, Ian S D, additional, Roufosse, Candice, additional, Rumjon, Adam, additional, Salama, Alan, additional, Sandford, Richard, additional, Sandu, Kanwaljit S, additional, Sarween, Nadia, additional, Sebire, Neil, additional, Selvaskandan, Haresh, additional, Sharma, Asheesh, additional, Sharples, Edward J, additional, Sheerin, Neil, additional, Shetty, Harish, additional, Shroff, Rukshana, additional, Sinha, Manish, additional, Smith, Kerry, additional, Smith, Lara, additional, Stott, Ian, additional, Stroud, Katerina, additional, Swift, Pauline, additional, Szklarzewicz, Justyna, additional, Tam, Fred, additional, Tan, Kay, additional, Taylor, Robert, additional, Tischkowitz, Marc, additional, Thomas, Kay, additional, Tse, Yincent, additional, Turnbull, Alison, additional, Turner, A Neil, additional, Tyerman, Kay, additional, Usher, Miranda, additional, Venkat-Raman, Gopalakrishnan, additional, Walker, Alycon, additional, Watt, Angela, additional, Webster, Phil, additional, Wechalekar, Ashutosh, additional, Welsh, Gavin I, additional, West, Nicol, additional, Wheeler, David, additional, Wiles, Kate, additional, Willcocks, Lisa, additional, Williams, Angharad, additional, Williams, Emma, additional, Williams, Karen, additional, Wilson, Deborah H, additional, Wilson, Patricia D, additional, Winyard, Paul, additional, Wong, Katie, additional, Wood, Grahame, additional, Woodward, Emma, additional, Woodward, Len, additional, Woolf, Adrian, additional, and Wright, David, additional

Published
2024
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16. Characterizing nuclear remodeling during budding yeast meiosis

Author

King, Grant Austin

Subjects
Cellular biology, Genetics, Aging, Aging, Budding yeast, Cell division, Meiosis, Nuclear envelope, Nuclear pore complex
Abstract

The nucleus, the defining organelle of the eukaryotic cell, must be remodeled during every cell division in order to accommodate the division of genetic material. While this remodeling has been extensively studied during mitosis, it remains poorly understood how the nucleus is remodeled during meiosis. In this study, we provide a comprehensive analysis of nuclear behavior during meiosis in the model organism budding yeast. First, we find that the nuclear envelope undergoes a five-way division, forming a nuclear-envelope bound compartment that is excluded from gametes. This compartment, termed the Gametogenesis Uninherited Nuclear Compartment or GUNC, contains nuclear pore complexes (NPCs) in all cells and age-induced damage in old cells. The material sequestered to the GUNC is subsequently eliminated by release of vacuolar proteases, establishing this remodeling event as a novel nuclear quality control mechanism that contributes to meiotic cellular rejuvenation. Second, we find that the NPC undergoes two mechanistically-distinct meiotic remodeling events: partial nuclear basket detachment during meiosis I and full nuclear basket detachment during meiosis II. Meiosis I detachment, which involves Nup60 and its binding partner Nup2, is driven by Polo kinase-dependent phosphorylation of Nup60 at its binding interface with the NPC core. Notably, this remodeling event also occurs in the distantly related Schizosaccharomyces pombe, suggesting basket detachment involves conserved nuclear basket organizational principles and fulfills an important function. Finally, we find that the nuclear permeability barrier is transiently disrupted during meiosis II, driving intermixing of the cytoplasm and nucleoplasm. Since the nuclear envelope stays intact throughout meiosis, regulation of nuclear transport machinery is likely involved in this event. Several meiotic regulators disrupt barrier loss or return, although their precise mechanistic contributions remain unclear. In all, this work establishes the nuclear periphery as a highly dynamic and regulated entity during budding yeast meiosis. Studying the budding yeast meiotic nucleus will continue to improve our understanding of nuclear organization and its contributions to cellular health for years to come.

Published
2022

21. Meiotic nuclear pore complex remodeling provides key insights into nuclear basket organization

Author

King, Grant A., primary, Wettstein, Rahel, additional, Varberg, Joseph M., additional, Chetlapalli, Keerthana, additional, Walsh, Madison E., additional, Gillet, Ludovic C.J., additional, Hernández-Armenta, Claudia, additional, Beltrao, Pedro, additional, Aebersold, Ruedi, additional, Jaspersen, Sue L., additional, Matos, Joao, additional, and Ünal, Elçin, additional

Published
2022
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22. Meiotic Nuclear Pore Complex Remodeling Provides Key Insights into Nuclear Basket Organization

Author

King, Grant A, primary, Wettstein, Rahel, additional, Varberg, Joseph M, additional, Chetlapalli, Keerthana, additional, Walsh, Madison E, additional, Gillet, Ludovic, additional, Hernandez-Armenta, Claudia, additional, Beltrao, Pedro, additional, Aebersold, Ruedi, additional, Jaspersen, Sue L, additional, Matos, Joao, additional, and Unal, Elcin, additional

Published
2022
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25. Meiotic nuclear pore complex remodeling provides key insights into nuclear basket organization.

Author

King, Grant A., Wettstein, Rahel, Varberg, Joseph M., Chetlapalli, Keerthana, Walsh, Madison E., Gillet, Ludovic C. J., Hernández-Armenta, Claudia, Beltrao, Pedro, Aebersold, Ruedi, Jaspersen, Sue L., Matos, Joao, and Ünal, Elçin

Abstract

Nuclear pore complexes (NPCs) are large proteinaceous assemblies that mediate nuclear compartmentalization. NPCs undergo large-scale structural rearrangements during mitosis in metazoans and some fungi. However, our understanding of NPC remodeling beyond mitosis remains limited. Using time-lapse fluorescence microscopy, we discovered that NPCs undergo two mechanistically separable remodeling events during budding yeast meiosis in which parts or all of the nuclear basket transiently dissociate from the NPC core during meiosis I and II, respectively. Meiosis I detachment, observed for Nup60 and Nup2, is driven by Polo kinase-mediated phosphorylation of Nup60 at its interface with the Y-complex. Subsequent reattachment of Nup60-Nup2 to the NPC core is facilitated by a lipid-binding amphipathic helix in Nup60. Preventing Nup60- Nup2 reattachment causes misorganization of the entire nuclear basket in gametes. Strikingly, meiotic nuclear basket remodeling also occurs in the distantly related fission yeast, Schizosaccharomyces pombe. Our study reveals a conserved and developmentally programmed aspect of NPC plasticity, providing key mechanistic insights into the nuclear basket organization. [ABSTRACT FROM AUTHOR]

Published
2023
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26. Evaluation of a self-cleaning portable dust collector for reducing worker exposures to silica at hydraulic-fracturing sites.

Author

King, Grant, Miller, Arthur, Schneider, Carl, Feagan, Greg, and Gain, Darby

Subjects
*DUST, *FRAC sand, *HYDRAULIC fracturing, *GAS well drilling, *AUTOMATIC control systems, *DUST control
Abstract

National Institute for Occupational Safety and Health (NIOSH) researchers continue to study worker exposure to respirable crystalline silica (RCS) and develop interventions to reduce these exposures. Occupational overexposures to RCS continue to cause illness and deaths in many industries and RCS has been identified as a serious exposure risk associated with hydraulic- fracturing operations during oil and gas extraction. In 2016 the Occupational Safety and Health Administration (OSHA) reduced the permissible exposure limit (PEL) to 0.05 milligrams of silica per cubic meter of air, averaged over an 8-hour day. This mandate requires hydraulic-fracturing operations to implement dust controls and safer work methods to protect workers from silica exposures above this PEL by June 23, 2021. At hydraulic-fracturing sites utilizing sand movers, pneumatic transfer of fracking sand is the primary source of aerosolized RCS. Currently, there are limited commercially available engineering controls for the collection of dust emitted from thief hatches on sand movers. The goal of this research is to develop a robust, cost-effective, weather resistant, portable, self-cleaning dust collection system that can be retrofitted onto sand mover thief hatches. A prototype was designed, built, and tested, and it was determined that the system could handle flows in the range of 600 to 1300 cfm with loading/cleaning cycle times of 40 and 5 minutes respectively and demonstrated operating efficiencies of 97–99%. Further development of this NIOSH prototype is being done in collaboration with an industry partner with the goal of developing a commercially viable, cost-effective solution to reduce RCS at hydraulic-fracturing sites around the world. Implications: This research has verified that airborne dust created by pneumatic transfer of fracking sand can be effectively collected using a passive cartridge filter system, and that the filters can be cleaned using blasts of air. Mounting these units to the thief hatches of sand movers will significantly reduce dust emissions from sand movers on hydraulic fracturing sites. Thus, this system offers the Oil and Gas Industry a method to reduce worker exposure to RCS on hydraulic fracturing sites that utilize sand movers. The success of this prototype has led researchers to devise a modified version for collecting dust at conveyor transfer points. [ABSTRACT FROM AUTHOR]

Published
2023
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29. Pleading Stage Discovery: Charting a Roadmap for Jurisdictional Discovery.

Author

KING, GRANT D. and ROSSETTI JR., STEPHEN L.

Subjects
JURISDICTION, ACTIONS & defenses (Law), COURTS, PLAINTIFFS
Abstract

The article focuses on the laws governing jurisdictional discovery in the U.S. Federal Rules of Civil Procedure. It mentions a plaintiff must establish a prima facie case of personal jurisdiction to even begin to request jurisdictional discovery, in addition, courts have determined that defendants can also request jurisdictional discovery based on multiple grounds.

Published
2022

38. Impact analysis of expanding narrow-spectrum antibiotic use for children with ear, sinus and throat infections

Author

Barbosa, Carolina, Breck, Andrew, King, Grant, Bass, Sarah, Kook, Yoojin, Honeycutt, Amanda, and Esposito, Dominick

Abstract

Aim:Estimate the impacts treating acute respiratory tract infections (ARTIs) in children aged 6 months through 12 years with narrow-spectrum antibiotics. Materials & methods:Decision-tree model to estimate children’s health, healthcare utilization and costs, and caregiver’s time and costs for using narrow-spectrum antibiotics in eligible children with an ARTI, compared with current use of narrow- and broad-spectrum antibiotics. Results:Reduced adverse drug reactions by 35,750 (14%) cases) and 4750 (12%) fewer emergency department visits, 300 (12%) fewer hospitalizations, and 50,500 (10%) avoided outpatient visits. Annual healthcare costs fell by US$120 million (22%). Total societal costs declined by US$131 million (20%). Conclusion:National implementation of narrow-spectrum antibiotics to treat ARTIs in children improves patient outcomes and reduces caregiver burden and annual healthcare costs.

Published
2021
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39. An economic evaluation of reducing colorectal cancer surveillance intensity

Author

Allaire, Benjamin, Skinner, Robbie, King, Grant, Honeycutt, Amanda, and Esposito, Dominick

Abstract

Aim:Analyze the impact of national implementation of ‘low intensity’ post-treatment colorectal cancer surveillance compared with current practices. Materials & methods:Create a population-level Markov model to estimate impacts of expansion of low versus high intensity surveillance post-treatment on healthcare utilization, costs and caregiver time loss. Results:Shifting to low intensity colorectal cancer surveillance would reduce patient burden by 301,830 h per patient annually over 5 years. Cost reductions over 5 years were US$43.5 million for Medicare and US$4.2 million for Medicaid. Total societal cost savings equaled US$104.2 million. Conclusion:National implementation of low intensity post-treatment colorectal cancer surveillance has the potential to significantly reduce burden and costs on patients and their caregivers with no added risks to health.

Published
2021
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47. Research in Teacher Education: Volume 4, No.1, April 2014

Author

Garby-Czerniawski, Gerry, Morris, David, Ayres, Daniel, Theodotou, Evgenia, Lewis, Elicia, Torbrand, Pepita, Etherington, Margaret, Wray, David, Miyata, Cathy, Trushell, John, Gordon, Shearon, Trimmer-Platman, T., and King, Grant

Subjects
ComputingMilieux_COMPUTERSANDEDUCATION
Abstract

The Research in Teacher Education publication is published twice a year by the School of Education and Communities, University of East London, Water Lane, London E15 4LZ. The periodical offers a forum for informed debate and discussion on all aspects of teacher education. The publication showcases work from the teacher education teams at the School of Education and Communities and the wider teacher education community in the UK. The definition of ‘research’, in its broadest sense includes any gathering of data, information and ‘facts’ designed to advance knowledge. While nurturing and publicising the creative talent within teacher education the periodical seeks to stimulate, provoke and extend discussion and debate with other professionals associated with this field. In addition to contributions from the team of teacher educators at the School, each edition of Research in Teacher Education will publish research findings, book reviews and/or opinion pieces from guest writers associated with the School of Education and Communities.

Published
2014
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