atcc product code Search Results


99
ATCC jurkat cell line
Jurkat Cell Line, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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94
ATCC rat beta cells rin m5f
Rat Beta Cells Rin M5f, supplied by ATCC, used in various techniques. Bioz Stars score: 94/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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g 401  (ATCC)
95
ATCC g 401
G 401, supplied by ATCC, used in various techniques. Bioz Stars score: 95/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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95
ATCC sendai cantell strain
Sendai Cantell Strain, supplied by ATCC, used in various techniques. Bioz Stars score: 95/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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99
TaKaRa lenti x 293t
( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in <t>293T</t> cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .
Lenti X 293t, supplied by TaKaRa, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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99
ATCC dulbecco s modified eagle s medium
( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in <t>293T</t> cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .
Dulbecco S Modified Eagle S Medium, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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97
ATCC data crystal structure q001 qa 1b protein database pdb id
( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in <t>293T</t> cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .
Data Crystal Structure Q001 Qa 1b Protein Database Pdb Id, supplied by ATCC, used in various techniques. Bioz Stars score: 97/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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99
ATCC product code atcc crl
( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in <t>293T</t> cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .
Product Code Atcc Crl, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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99
ATCC deae treated bhk 21 c 13 cells
( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in <t>293T</t> cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .
Deae Treated Bhk 21 C 13 Cells, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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93
ATCC bacteroides proteins bvu 4064
Structures of the N-terminally truncated Bacteroides proteins BVU_4064 and BF1687 (PDB codes <t>3kog</t> and 3g3l, respectively). The N-terminal domain (in slate blue color) and the C-terminal domain (in orange color) of the 3kog structure show significant similarities with the corresponding domains of 3g3l structure (N and C terminal domains shown in pale cyan and wheat colors respectively). In contrast, the region connecting the domains (in green) is clearly different in the two structures: a short linker in 3kog, an extended 4-helix insertion and one extra strand that is added to the C-terminal domain in 3g3l. A histidine-rich region present at the C-terminus in both of our proteins is found ordered only in the 3kog structure (see box with text in the Figure).
Bacteroides Proteins Bvu 4064, supplied by ATCC, used in various techniques. Bioz Stars score: 93/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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99
ATCC atcc product code
Structures of the N-terminally truncated Bacteroides proteins BVU_4064 and BF1687 (PDB codes <t>3kog</t> and 3g3l, respectively). The N-terminal domain (in slate blue color) and the C-terminal domain (in orange color) of the 3kog structure show significant similarities with the corresponding domains of 3g3l structure (N and C terminal domains shown in pale cyan and wheat colors respectively). In contrast, the region connecting the domains (in green) is clearly different in the two structures: a short linker in 3kog, an extended 4-helix insertion and one extra strand that is added to the C-terminal domain in 3g3l. A histidine-rich region present at the C-terminus in both of our proteins is found ordered only in the 3kog structure (see box with text in the Figure).
Atcc Product Code, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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90
ATCC mrsa 34380 6k 50
Structures of the N-terminally truncated Bacteroides proteins BVU_4064 and BF1687 (PDB codes <t>3kog</t> and 3g3l, respectively). The N-terminal domain (in slate blue color) and the C-terminal domain (in orange color) of the 3kog structure show significant similarities with the corresponding domains of 3g3l structure (N and C terminal domains shown in pale cyan and wheat colors respectively). In contrast, the region connecting the domains (in green) is clearly different in the two structures: a short linker in 3kog, an extended 4-helix insertion and one extra strand that is added to the C-terminal domain in 3g3l. A histidine-rich region present at the C-terminus in both of our proteins is found ordered only in the 3kog structure (see box with text in the Figure).
Mrsa 34380 6k 50, supplied by ATCC, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Image Search Results


( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in 293T cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .

Journal: eLife

Article Title: Cryo-electron tomography of Birbeck granules reveals the molecular mechanism of langerin lattice formation

doi: 10.7554/eLife.79990

Figure Lengend Snippet: ( A ) Domain organization of langerin. Human langerin is a 328-amino acids protein composed of an N-terminal cytoplasmic tail, a transmembrane domain (TM), a coiled-coil neck, and a C-terminal carbohydrate-recognition domain (CRD). We fused a SNAP-tag at the N-terminus of langerin and inserted an HRV3C protease cleavage site between the tag and the langerin sequences. For streptavidin-mediated precipitation of Birbeck granules, the SNAP-tag was biotinylated (star). ( B ) Model of langerin oligomerization within Birbeck granules. Langerin trimers bind to each other face-to-face via the CRDs, bringing the two layers of the plasma membrane closer together. ( C ) Birbeck granules formed in 293T cells overexpressing langerin. Addition of yeast mannan induced the formation of Birbeck granules a few micrometers long. Inset shows a magnified view of Birbeck granules. ( D ) SDS-PAGE of isolated Birbeck granules. Purified langerin (arrowhead) was released from streptavidin-agarose by HRV3C digestion. M: molecular weight marker; and BG: isolated Birbeck granules. ( E ) Cryo-electron microscopy of isolated Birbeck granules. Black square indicates the position of the close-up view shown in F. ( F ) Wavy lamellar structure of the Birbeck granule. Black dots were gold nanoparticles used as fiducial markers. ( G ) Class averages of the projection images of Birbeck granules. The image dimension is 34 nm 2 . Although 2D classification did not converge well due to the continuity of the structure, some classes showed a porous structure with a honeycomb-like lattice. Figure 1—source data 1. Original gel image of . Figure 1—source data 2. Annotated gel image of .

Article Snippet: We purchased Lenti-X 293T (product code: 632180) and HEK293 cell lines (CRL-1573) from TakaraBio, Tokyo, Japan and ATCC, respectively.

Techniques: SDS Page, Isolation, Purification, Molecular Weight, Marker, Electron Microscopy

( A ) Fluorescence microscopy image of 293T cells expressing langerin. IRES-driven GFP expression was detected. The transformation efficiency was approximately 40%. ( B ) Negative-stain electron microscopy image of an isolated Birbeck granule stained with 2% uranium acetate. ( C ) Cryo-electron microscopy image of a twisted Birbeck granule. ( D ) Coiled-coil prediction profile of langerin.

Journal: eLife

Article Title: Cryo-electron tomography of Birbeck granules reveals the molecular mechanism of langerin lattice formation

doi: 10.7554/eLife.79990

Figure Lengend Snippet: ( A ) Fluorescence microscopy image of 293T cells expressing langerin. IRES-driven GFP expression was detected. The transformation efficiency was approximately 40%. ( B ) Negative-stain electron microscopy image of an isolated Birbeck granule stained with 2% uranium acetate. ( C ) Cryo-electron microscopy image of a twisted Birbeck granule. ( D ) Coiled-coil prediction profile of langerin.

Article Snippet: We purchased Lenti-X 293T (product code: 632180) and HEK293 cell lines (CRL-1573) from TakaraBio, Tokyo, Japan and ATCC, respectively.

Techniques: Fluorescence, Microscopy, Expressing, Transformation Assay, Staining, Electron Microscopy, Isolation

( A ) Ultra-thin electron microscopy of Birbeck granules with and without yeast mannan in langerin-overexpressing 293T cells. Residues at 260–263 (Met-Glu-Gly-Asp, MEGD) were mutated to Met-Arg-Gly-Asp (MRGD), Met-Arg-Gly-Lys (MRGK), or Ala-Arg-Gly-Lys (ARGK). The Mannan (+) WT image has a lower magnification than the others in order to show the entire Birbeck granules. ( B–D ) Quantification of Birbeck granule formation. Horizontal lines indicate the median values. Single asterisks and the double asterisk indicate statistically significant differences with p<0.01 and p=0.0101, respectively. NS indicates no statistically significant differences. p values were calculated using Bonferroni-corrected Student’s t -tests. ( B ) Lengths of individual Birbeck granules were measured. N=337 (WT mannan-), 386 (WT mannan+), 348 (MRGD), 233 (MRGK), and 70 (ARGK). p=1.4 × 10 –68 (WT mannan (-)), 2.6×10 –46 (MRGD), 6.6×10 –62 (MRGK), and 1.1×10 –35 (ARGK). ( C ) Sum of the length of Birbeck granules per 100 µm 2 cell area. Cross-sections of cells with nuclei of >5 µm in diameter were selected and the total lengths of the Birbeck granules were measured within the cells. N=20 for all the samples. p=2.9 × 10 –7 (WT mannan (-)), 5.0×10 –8 (MRGD), 1.5×10 –10 (MRGK), and 1.0×10 –11 (ARGK). ( D ) Number of the Birbeck granules per 100 µm 2 cell area. N=20 for all the samples. p=0.85 (WT mannan (-)), 1.2 (MRGD), 0.005 (MRGK), and 2.2×10 –13 (ARGK).

Journal: eLife

Article Title: Cryo-electron tomography of Birbeck granules reveals the molecular mechanism of langerin lattice formation

doi: 10.7554/eLife.79990

Figure Lengend Snippet: ( A ) Ultra-thin electron microscopy of Birbeck granules with and without yeast mannan in langerin-overexpressing 293T cells. Residues at 260–263 (Met-Glu-Gly-Asp, MEGD) were mutated to Met-Arg-Gly-Asp (MRGD), Met-Arg-Gly-Lys (MRGK), or Ala-Arg-Gly-Lys (ARGK). The Mannan (+) WT image has a lower magnification than the others in order to show the entire Birbeck granules. ( B–D ) Quantification of Birbeck granule formation. Horizontal lines indicate the median values. Single asterisks and the double asterisk indicate statistically significant differences with p<0.01 and p=0.0101, respectively. NS indicates no statistically significant differences. p values were calculated using Bonferroni-corrected Student’s t -tests. ( B ) Lengths of individual Birbeck granules were measured. N=337 (WT mannan-), 386 (WT mannan+), 348 (MRGD), 233 (MRGK), and 70 (ARGK). p=1.4 × 10 –68 (WT mannan (-)), 2.6×10 –46 (MRGD), 6.6×10 –62 (MRGK), and 1.1×10 –35 (ARGK). ( C ) Sum of the length of Birbeck granules per 100 µm 2 cell area. Cross-sections of cells with nuclei of >5 µm in diameter were selected and the total lengths of the Birbeck granules were measured within the cells. N=20 for all the samples. p=2.9 × 10 –7 (WT mannan (-)), 5.0×10 –8 (MRGD), 1.5×10 –10 (MRGK), and 1.0×10 –11 (ARGK). ( D ) Number of the Birbeck granules per 100 µm 2 cell area. N=20 for all the samples. p=0.85 (WT mannan (-)), 1.2 (MRGD), 0.005 (MRGK), and 2.2×10 –13 (ARGK).

Article Snippet: We purchased Lenti-X 293T (product code: 632180) and HEK293 cell lines (CRL-1573) from TakaraBio, Tokyo, Japan and ATCC, respectively.

Techniques: Electron Microscopy

HIV-1 pseudoviruses were added to langerin-expressing 293T cells. Yeast mannan (10 µg/ml) was added to block the lectin-dependent binding of pseudoviruses. A langerin mutant lacking calcium binding ability (lectin (-)) was used as the negative control. ( A ) Immunoblots of pseudoviruses attached to the cell surface. Unbound and attached viruses were collected from the supernatant of the culture medium and TBS-EDTA buffer, respectively. Samples of unbound viruses were diluted 50-fold to adjust the band intensities. The expression levels of SNAP-tagged langerin show that the numbers of transfected cells were approximately the same in each experiment. Pr55 gag and p24 indicate unprocessed and fully-processed capsid proteins, respectively. ( B ) Immunoblots of internalized pseudoviruses. Birbeck granules were isolated by precipitation using streptavidin-agarose, and intracellular viruses and langerin were detected by their respective antibodies. Tubulins in the whole-cell lysates were detected for loading controls. ( C ) Quantification of internalized viruses using p24 ELISA. Horizontal lines indicate the mean. NS and Asterisk indicate no significant difference and statistically significant differences (p=0.07 (MRGD); 9.4×10 –5 (MRGK); 9.9×10 –9 (ARGK); and 5.5×10 –9 (lectin(-))) calculated using Bonferroni-corrected Student’s t -tests (N=4), respectively. Figure 5—source data 1. Original blot image of (right, anti-p24). Figure 5—source data 2. Annotated blot image of (right, anti-p24). Figure 5—source data 3. Original blot image of (right, anti-langerin). Figure 5—source data 4. Annotated blot image of (right, anti-langerin). Figure 5—source data 5. Original blot image of (left, anti-p24) and (anti-p24). Figure 5—source data 6. Annotated blot image of (left, anti-p24) and (anti-p24). Figure 5—source data 7. Original blot image of (anti-langerin). Figure 5—source data 8. Original blot image of (anti-tubulin). Figure 5—source data 9. Annotated blot images of (anti-langerin and anti-tubulin).

Journal: eLife

Article Title: Cryo-electron tomography of Birbeck granules reveals the molecular mechanism of langerin lattice formation

doi: 10.7554/eLife.79990

Figure Lengend Snippet: HIV-1 pseudoviruses were added to langerin-expressing 293T cells. Yeast mannan (10 µg/ml) was added to block the lectin-dependent binding of pseudoviruses. A langerin mutant lacking calcium binding ability (lectin (-)) was used as the negative control. ( A ) Immunoblots of pseudoviruses attached to the cell surface. Unbound and attached viruses were collected from the supernatant of the culture medium and TBS-EDTA buffer, respectively. Samples of unbound viruses were diluted 50-fold to adjust the band intensities. The expression levels of SNAP-tagged langerin show that the numbers of transfected cells were approximately the same in each experiment. Pr55 gag and p24 indicate unprocessed and fully-processed capsid proteins, respectively. ( B ) Immunoblots of internalized pseudoviruses. Birbeck granules were isolated by precipitation using streptavidin-agarose, and intracellular viruses and langerin were detected by their respective antibodies. Tubulins in the whole-cell lysates were detected for loading controls. ( C ) Quantification of internalized viruses using p24 ELISA. Horizontal lines indicate the mean. NS and Asterisk indicate no significant difference and statistically significant differences (p=0.07 (MRGD); 9.4×10 –5 (MRGK); 9.9×10 –9 (ARGK); and 5.5×10 –9 (lectin(-))) calculated using Bonferroni-corrected Student’s t -tests (N=4), respectively. Figure 5—source data 1. Original blot image of (right, anti-p24). Figure 5—source data 2. Annotated blot image of (right, anti-p24). Figure 5—source data 3. Original blot image of (right, anti-langerin). Figure 5—source data 4. Annotated blot image of (right, anti-langerin). Figure 5—source data 5. Original blot image of (left, anti-p24) and (anti-p24). Figure 5—source data 6. Annotated blot image of (left, anti-p24) and (anti-p24). Figure 5—source data 7. Original blot image of (anti-langerin). Figure 5—source data 8. Original blot image of (anti-tubulin). Figure 5—source data 9. Annotated blot images of (anti-langerin and anti-tubulin).

Article Snippet: We purchased Lenti-X 293T (product code: 632180) and HEK293 cell lines (CRL-1573) from TakaraBio, Tokyo, Japan and ATCC, respectively.

Techniques: Expressing, Blocking Assay, Binding Assay, Mutagenesis, Negative Control, Western Blot, Transfection, Isolation, Enzyme-linked Immunosorbent Assay

Structures of the N-terminally truncated Bacteroides proteins BVU_4064 and BF1687 (PDB codes 3kog and 3g3l, respectively). The N-terminal domain (in slate blue color) and the C-terminal domain (in orange color) of the 3kog structure show significant similarities with the corresponding domains of 3g3l structure (N and C terminal domains shown in pale cyan and wheat colors respectively). In contrast, the region connecting the domains (in green) is clearly different in the two structures: a short linker in 3kog, an extended 4-helix insertion and one extra strand that is added to the C-terminal domain in 3g3l. A histidine-rich region present at the C-terminus in both of our proteins is found ordered only in the 3kog structure (see box with text in the Figure).

Journal: BMC Bioinformatics

Article Title: Structure and sequence analyses of Bacteroides proteins BVU_4064 and BF1687 reveal presence of two novel predominantly-beta domains, predicted to be involved in lipid and cell surface interactions

doi: 10.1186/s12859-014-0434-7

Figure Lengend Snippet: Structures of the N-terminally truncated Bacteroides proteins BVU_4064 and BF1687 (PDB codes 3kog and 3g3l, respectively). The N-terminal domain (in slate blue color) and the C-terminal domain (in orange color) of the 3kog structure show significant similarities with the corresponding domains of 3g3l structure (N and C terminal domains shown in pale cyan and wheat colors respectively). In contrast, the region connecting the domains (in green) is clearly different in the two structures: a short linker in 3kog, an extended 4-helix insertion and one extra strand that is added to the C-terminal domain in 3g3l. A histidine-rich region present at the C-terminus in both of our proteins is found ordered only in the 3kog structure (see box with text in the Figure).

Article Snippet: The crystal structures of the N-terminally truncated Bacteroides proteins BVU_4064 ( Bacteroides vulgatus strain ATCC 8482, JCSG target ID: 393242, GenBank accession: YP_001301288.1, PDB code: 3kog) and BF1687 ( Bacteroides fragilis strain NCTC 9343, JCSG target ID: 393243, Gene Bank accession: YP_211325.1, PDB code: 3g3l) have been determined to 1.85 Å and 2.2 Å resolution, using MAD and SAD phasing methods respectively as described in the section.

Techniques:

Superposition of 3kog and 3g3l structures. (A) Corresponding domains (colored in slate blue and pale cyan for N-terminal domains; orange and wheat for C-terminal domains; linker region in green) in the two structures superimpose fairly well with an overall RMSD of 3.7 Å for the 166 equivalent positions in the rigid-body alignment . (B) Stereo view of N and C terminal domains shown separately with linker regions removed to highlight the structural similarity.

Journal: BMC Bioinformatics

Article Title: Structure and sequence analyses of Bacteroides proteins BVU_4064 and BF1687 reveal presence of two novel predominantly-beta domains, predicted to be involved in lipid and cell surface interactions

doi: 10.1186/s12859-014-0434-7

Figure Lengend Snippet: Superposition of 3kog and 3g3l structures. (A) Corresponding domains (colored in slate blue and pale cyan for N-terminal domains; orange and wheat for C-terminal domains; linker region in green) in the two structures superimpose fairly well with an overall RMSD of 3.7 Å for the 166 equivalent positions in the rigid-body alignment . (B) Stereo view of N and C terminal domains shown separately with linker regions removed to highlight the structural similarity.

Article Snippet: The crystal structures of the N-terminally truncated Bacteroides proteins BVU_4064 ( Bacteroides vulgatus strain ATCC 8482, JCSG target ID: 393242, GenBank accession: YP_001301288.1, PDB code: 3kog) and BF1687 ( Bacteroides fragilis strain NCTC 9343, JCSG target ID: 393243, Gene Bank accession: YP_211325.1, PDB code: 3g3l) have been determined to 1.85 Å and 2.2 Å resolution, using MAD and SAD phasing methods respectively as described in the section.

Techniques:

Structural similarities of the N-terminal domains. (A-F) Pre-albumin-like fold of the N-terminal domains in 3kog and 3g3l structures that is also present as a cell adhesion modules in several proteins belonging to the Transthyretin superfamily. (G) Alignment between the lipoprotein signal sequences present at the N-terminus of BVU_4064 and BF1687. The arrow points to the conserved CYS residue in the consensus sequence for the protein family PF12985.

Journal: BMC Bioinformatics

Article Title: Structure and sequence analyses of Bacteroides proteins BVU_4064 and BF1687 reveal presence of two novel predominantly-beta domains, predicted to be involved in lipid and cell surface interactions

doi: 10.1186/s12859-014-0434-7

Figure Lengend Snippet: Structural similarities of the N-terminal domains. (A-F) Pre-albumin-like fold of the N-terminal domains in 3kog and 3g3l structures that is also present as a cell adhesion modules in several proteins belonging to the Transthyretin superfamily. (G) Alignment between the lipoprotein signal sequences present at the N-terminus of BVU_4064 and BF1687. The arrow points to the conserved CYS residue in the consensus sequence for the protein family PF12985.

Article Snippet: The crystal structures of the N-terminally truncated Bacteroides proteins BVU_4064 ( Bacteroides vulgatus strain ATCC 8482, JCSG target ID: 393242, GenBank accession: YP_001301288.1, PDB code: 3kog) and BF1687 ( Bacteroides fragilis strain NCTC 9343, JCSG target ID: 393243, Gene Bank accession: YP_211325.1, PDB code: 3g3l) have been determined to 1.85 Å and 2.2 Å resolution, using MAD and SAD phasing methods respectively as described in the section.

Techniques: Residue, Sequencing

Structural similarities of the C-terminal domain of 3kog and 3g3l with bacterial pore-forming toxins. The region shown in red is implicated in membrane insertion in the pore-forming toxins [epsilon toxin (PDB code: 1uyj) and aerolysin (PDB code: 1z52)] and in the hemolytic lectin (PDB code 1w3g). In both 3kog and 3g3l this region corresponds to a helical insertion.

Journal: BMC Bioinformatics

Article Title: Structure and sequence analyses of Bacteroides proteins BVU_4064 and BF1687 reveal presence of two novel predominantly-beta domains, predicted to be involved in lipid and cell surface interactions

doi: 10.1186/s12859-014-0434-7

Figure Lengend Snippet: Structural similarities of the C-terminal domain of 3kog and 3g3l with bacterial pore-forming toxins. The region shown in red is implicated in membrane insertion in the pore-forming toxins [epsilon toxin (PDB code: 1uyj) and aerolysin (PDB code: 1z52)] and in the hemolytic lectin (PDB code 1w3g). In both 3kog and 3g3l this region corresponds to a helical insertion.

Article Snippet: The crystal structures of the N-terminally truncated Bacteroides proteins BVU_4064 ( Bacteroides vulgatus strain ATCC 8482, JCSG target ID: 393242, GenBank accession: YP_001301288.1, PDB code: 3kog) and BF1687 ( Bacteroides fragilis strain NCTC 9343, JCSG target ID: 393243, Gene Bank accession: YP_211325.1, PDB code: 3g3l) have been determined to 1.85 Å and 2.2 Å resolution, using MAD and SAD phasing methods respectively as described in the section.

Techniques: Membrane