47 Matching Annotations
  1. Feb 2025
    1. CLEC4M(rs753084254):c.C>T, noted as synonymous protein effect and VarSome classifies it as a VUS.

      CLEC4M(rs113080783):c.A>G, noted as missense protein effect and VarSome classifies it as a VUS.

      CLEC4M(rs62623420):c.A>G,noted as Splice acceptor protein effect and VarSome classifies it as a VUS.

      CLEC4M(rs868878):c.G>A, noted as synonymous protein effect and VarSome classifies it as Benign.

      CLEC4M(rs2277998):c.G>A, noted as missense protein effect and VarSome classifies it as Benign

    2. STX2(rs145834567):c.T>C, noted as missense protein effect and Varsome classifies it as a VUS.

      STX2(rs137928907):c.A>C, noted as missense protein effect and Varsome classifies it as a VUS.

      STX2(rs17564):c.G>C, noted as missense protein effect and Varsome classifies it as Benign.

    3. STXBP5(rs144099092):c.C>G, noted as missense protein effect and VarSome classifies it as a VUS.

      STXBP5(rs148830578):c.A>G, noted as missense protein effect and VarSome classifies it as a VUS.

      STXBP5(rs34324348):c.C>T, noted as synonymous protein effect and VarSome classifies it as a Likely Benign.

      STXBP5(rs34677388):c.A>G,noted as synonymous protein effect and VarSome classifies it as Likely Benign.

      STXBP5(rs9390459):c.G>A, noted as synonymous protein effect and VarSome classifies it as Benign.

      STXBP5(rs1039084):c.A>G, noted as missense protein effect and VarSome classifies it as Benign.

    4. Variants identified in Swedish VWD patients

      ABO(rs139670895):c.C>T, noted as synonymous protein effect and VarSome classifies it as a VUS.

      ABO(rs8176751):c.C>T, noted as sysnonymous protein effect and VarSome classifies as Benign

      ABO(rs56392308):c.-/GG, noted as frameshift in protein effect and VarSome classifies as Benign

      ABO(rs8176749):c.C>T, noted as synonymous in protein effect and VarSome classifies as Benign

      ABO(rs1474135537):c.G>A, noted as synonymous in protein effect and VarSome classifies as VUS

      ABO(rs8176748):c.C>T, noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs8176745):c.G?A, noted as synonymous in protein effect and VarSome classifies as Benign

      ABO(rs8176744):c.G>T, noted as synonymous in protein effect and VarSome classifies as Benign

      ABO(rs8176743):c.C>T, noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs8176742):c.C>T, noted as synonymous in protein effect and VarSome classifies as Benign

      ABO(rs8176741):c.G>A, noted as synonymous in protein effect and VarSome classifies as Benign

      ABO(rs8176740):c.C>T, noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs7853989):c.G>C noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs1053878):c.G>A noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs8176720):c.T>C, noted as synonymous in protein effect and VarSome classifies as Benign

      ABO(rs8176719):c.-/C, noted as frameshift in protein effect and VarSome classifies as Benign

      ABO(rs512770):c.G>A, noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs688976):c.C>A, noted as missense in protein effect and VarSome classifies as Benign

      ABO(rs8176696):c.C>T, noted as missense in protein effect and VarSome classifies as Likely Benign

    1. Disease: Von-willebrand Disorder Type 2B, Noncanonical

      Patient: 55 YO, Italian male

      Note: these heterozygous variants are in cis mutations

      Variant1: VWF NM_000552.5 c.2771G>A p.(R924Q), in exon 21, D'D3 domain affected

      Variant2: VWF NM_000552.5 c.6532G>T p.(A2178S), in exon 37, D4 domain affected

      Phenotypes: Mucosal and cutaneous bleeding, low VWF antigent and VWF activity, mild thrombocytopenia, increased ristocetin-induced platelet aggregation, deficiency in high-molecular-weight multimers. Epistaxis, repeated GI bleeding, easy bruising, ISTH BAT score of 7.

      Note: Proband initially diagnosed with VWD type 1 in 2010 but later re-diagnosed as VWD-Type 2.

      Family: No reported family history of bleeding, parents unable to be included in family work-up as they were deceased by time of study. Paternity test was performed for family, parental link established. Patient's daughter does not present the same mutation noted in proband but has heterozygous polymorphic variant inherited from mother which is: VWF NM_000552.5 c.3379C>T p.(P1127S), in exon 25. Daughter did not show menorrhagia or hemorrhagic disorder except for large hematoma on the thigh after trauma of moderate intensity.

      Molecular workup: Paternity test, Sanger-sequencing to validate genetic variants, multimer analysis with electrophoresis, platelet aggregation analysis with Ristocetin, electron micrographs to observe conformation differences.

      Prediction workup: Structural analysis with I-TASSER modeling program to identify perturbed structure. A2178S is predicted as tolerated in all in-silico systems used.

      Database Information: Effect of the R924Q mutation is noted in literature database but has contradicting reports of effects altering VWF levels. Some studies do report it as a polymorphic variant

      Variant is present in dbSNP database (rs33978901). MAF in European population 0.01< MAF< 0.02

      Effect of A2178S variant is present in dbSNP database (rs34230288), MAF = 0.02 in European population.

  2. Jan 2025
    1. Disease for patient 1: Von Willebrand Disease Type1, transmitter VWD-type 3

      Disease for patient 2: Von Willebrand Disease Type 3

      Patient1: 90 YO female (Afro-Caribbean)

      Patient2: 40 YO female (Afro-Caribbean)

      Notes multiple variants in the VWF gene but have focused on variants in the D4 domain. However cannot discount the impact of some other variants.

      Variant 1: VWF NM_000552.5: c.6647del p.(Cys2216Phefs*9), results in VWF protein missing D4 domain and C-terminal end of molecule

      Phenotype patient 1: Reduced VWF levels in VWF:Ag, VWF:ristocetin cofactor, FVIII:C, FVIII(VWF:FVIIIB). Bleeding score 0, required Helixate treatment before and after receiving surgery.

      Variant 2: VWF NM_000552.5: c.6432dup p.(Pro2145Thrfs*5)

      Three sequence variations in family study showed other variants highlighted p.(Cys1149Arg) and p.(Pro2145Thrfs*5) are not on the same allele.

      Does have other variants in VWF but they are stated by authors to not be detrimental. p.(Val510=) is noted to be potentially deleterious.

      Phenotype patient 2: severely reduced VWF levels, absence of multimers, bleeding score 32, epistaxis, bruising, oral cavity bleeding, prolonged bleeding from minor wounds, menorrhagia, hemarthrosis, ankle arthropathy.

      Suggests premature termination codons in these variants may lead to NMD but that this mechanism was found to be PTC position-dependent. Degradation was not 100% and need to perform cellular experiments.

  3. Apr 2022
    1. Dr Emma Hodcroft. (2021, May 2). 🗓️https://t.co/wVE7ubYBoy is updated🗓️, with some cool new additions: - B.1.617.1/2 are added as 20A/S:154K & 20A/S:478K 🎉—Beautiful new name table 📑🍾—Mutation list displayed in full as a ‘side-sausage’🌭 Let’s take a tour... 😁 1/7 [Tweet]. @firefoxx66. https://twitter.com/firefoxx66/status/1388921325411053569

  4. Feb 2022
    1. Afkhami, S., D’Agostino, M. R., Zhang, A., Stacey, H. D., Marzok, A., Kang, A., Singh, R., Bavananthasivam, J., Ye, G., Luo, X., Wang, F., Ang, J. C., Zganiacz, A., Sankar, U., Kazhdan, N., Koenig, J. F. E., Phelps, A., Gameiro, S. F., Tang, S., … Xing, Z. (2022). Respiratory mucosal delivery of next-generation COVID-19 vaccine provides robust protection against both ancestral and variant strains of SARS-CoV-2. Cell, S0092867422001453. https://doi.org/10.1016/j.cell.2022.02.005

  5. Jan 2022
  6. Nov 2021
  7. Sep 2021
    1. Kraemer, M. U. G., Hill, V., Ruis, C., Dellicour, S., Bajaj, S., McCrone, J. T., Baele, G., Parag, K. V., Battle, A. L., Gutierrez, B., Jackson, B., Colquhoun, R., O’Toole, Á., Klein, B., Vespignani, A., COVID-19 Genomics UK (COG-UK) Consortium‡, Volz, E., Faria, N. R., Aanensen, D. M., … Pybus, O. G. (2021). Spatiotemporal invasion dynamics of SARS-CoV-2 lineage B.1.1.7 emergence. Science, 373(6557), 889–895. https://doi.org/10.1126/science.abj0113

  8. Jul 2021
  9. Jun 2021
  10. May 2021
    1. .

      Since publication, the FDA has rescinded its authorisation of bamlanivimab (LY-CoV555), due to its lack of efficacy against circulating variants of concern, particularly B.1.351 (South African), as a result of E484K substitution A,B. Eli Lilly are now pursuing the use of their combination therapy of bamlanivimab with etesevimab (LY-CoV016).

      The antibody cocktail REGN-CoV2 showed sustained efficacy against tested variant strains and thus remains a viable treatment option. However, a mutational library scan by Starr et al. revealed that a single amino acid change (E406W) is all that is required for a future variant to escape this therapy C.

      Circulating variants highlight the limited efficacy of monoclonal antibodies to an evolving virus, particularly in those which are restricted to the RBD. A diverse panel of monoclonal antibodies, which bind subdominant epitopes may be a more sustainable approach.


      A – Wang, P et al. Antibody resistance of SARS-CoV-2 variants B.1.351 and B.1.1.7. 2021. Nature. https://doi.org/10.1038/s41586-021-03398-2

      B – Starr, T.N.et al. Complete map of SARS-CoV-2 RBD mutations that escape the monoclonal LY-CoV555 and its cocktail with LY-CoV016. 2021. Cell Reports Medicine. https://doi.org/10.1016/j.xcrm.2021.100255

      C – Starr, T.N.et al. Prospective mapping of viral mutations that escape antibodies used to treat COVID-19. 2021. Science. https://doi.org/10.1126/science.abf9302

  11. Apr 2021
    1. unexpected extra cluster of positive droplets with fluorescence intensity less than the cluster containing the target of interest can be caused by a sequence variant in the target of interest
  12. Mar 2021
    1. Wang, P., Nair, M. S., Liu, L., Iketani, S., Luo, Y., Guo, Y., Wang, M., Yu, J., Zhang, B., Kwong, P. D., Graham, B. S., Mascola, J. R., Chang, J. Y., Yin, M. T., Sobieszczyk, M., Kyratsous, C. A., Shapiro, L., Sheng, Z., Huang, Y., & Ho, D. D. (2021). Antibody Resistance of SARS-CoV-2 Variants B.1.351 and B.1.1.7. Nature, 1–9. https://doi.org/10.1038/s41586-021-03398-2

    1. It does this by creating links to specially crafted URLs using custom schemes (ie. "txmt", "subl", "mvim"). I prefer to use standard CLI vim in iTerm.

      I have similar problem: want to use regular vim in tilix terminal

    1. vim-athena doesn't depend on or use any version of GTK+. If you use sudo apt-get build-dep vim-athena, it probably will install GTK+ and GNOME related libraries, because the vim-athena binary package is built from the same source package as vim and other vim-providing packages. In any case, you shouldn't need to build from source, as the binaries provided by vim-athena are already built against Athena and not against GTK+ or other graphical toolkits.
    2. Fortunately, vim officially supports some GUI's other than GTK+ and Qt, and one such build is officially packaged for Ubuntu. Just install the Athena version of vim, which is provided by the vim-athena package.
    3. If you built vim against Qt rather than GTK+ and python-complete still isn't working, that suggests the problem isn't actually a consequence of trying to link to both GTK+2 and GTK+3.
    4. How can I build vim with a gui without gtk?

      I had this question too, but didn't know that was the question I had... :)

    1. How to install VIM with all options/features? - VIM
    2. If you want to compile youself you can pass the --with-features=huge to the configure script. Note, however, this does not enable the different language bindings because those are mostly optional and also the various GUIs need to enabled specifically, because you can have only one gui.

      This explains why the standard vim package on ubuntu doesn't have GUI support (I was going to say because it wouldn't know which GUI you needed, but I think it would based on the Ubuntu variant: GNOME, KDE, etc.) (maybe because it wouldn't know whether you wanted GUI support at all)

      I was going to say because it wouldn't know which GUI you needed, but I think it would based on the Ubuntu variant: GNOME, KDE, etc.

      found answer to that: https://hyp.is/NyJRxIgqEeuNmWuaScborw/askubuntu.com/questions/345593/how-to-build-vim-with-gui-option-from-sources

      so you have to install a different package with GUI support, like vim-gtk or vim-athena

    1. vim-athena

      Importantly, to me, you can do this:

      /usr/bin/vim.athena --servername local
      
    2. Including the vim package, there appear to be at least six "vim-variants" (not including available documentation, or plugin packages) as well as the main vim package in both the main and universe repositories.
    1. If you call ./configure --enable-gui=auto, the build process will automatically build against whichever GUI libraries are available. A cursory glance suggests that gtk2 will be prioritised over gnome2.
  13. Feb 2021
  14. Jan 2021
  15. Jul 2020