pbp gene a197c overexpression plasmid (Addgene inc)
93
Structured Review
Addgene inc
pbp gene a197c overexpression plasmid
Pbp Gene A197c Overexpression Plasmid, supplied by Addgene inc, used in various techniques. Bioz Stars score: 93/100, based on 12 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/pbp+gene+a197c+overexpression+plasmid/pET22b_PstS_1+(Plasmid+%2378198)/pm33316118-52-1-9
Average 93 stars, based on 12 article reviews
Pbp Gene A197c Overexpression Plasmid, supplied by Addgene inc, used in various techniques. Bioz Stars score: 93/100, based on 12 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/pbp+gene+a197c+overexpression+plasmid/pET22b_PstS_1+(Plasmid+%2378198)/pm33316118-52-1-9
Average 93 stars, based on 12 article reviews
pbp gene a197c overexpression plasmid - by Bioz Stars,
2026-09
93/100 stars
Images
Related Articles
Over Expression:Article Title: Immobilized phosphate-binding protein can effectively discriminate against arsenate during phosphate adsorption and recovery. Article Snippet: • Abstract There is a strong impetus to establish a circular phosphorus economy by securing internally renewable phosphate (Pi) resources for use as agricultural fertilizers.. Reversible Pi adsorption technologies such as ion exchange can remove and recover Pi from water/ wastewater for reuse.. However, existing reversible adsorbents cannot effectively discriminate against arsenate (As(V)) due to the similarity between As(V) and Pi chemical structure. Plasmid Preparation:Article Title: Immobilized phosphate-binding protein can effectively discriminate against arsenate during phosphate adsorption and recovery. Article Snippet: • Abstract There is a strong impetus to establish a circular phosphorus economy by securing internally renewable phosphate (Pi) resources for use as agricultural fertilizers.. Reversible Pi adsorption technologies such as ion exchange can remove and recover Pi from water/ wastewater for reuse.. However, existing reversible adsorbents cannot effectively discriminate against arsenate (As(V)) due to the similarity between As(V) and Pi chemical structure. Transformation Assay:Article Title: Immobilized phosphate-binding protein can effectively discriminate against arsenate during phosphate adsorption and recovery. Article Snippet: • Abstract There is a strong impetus to establish a circular phosphorus economy by securing internally renewable phosphate (Pi) resources for use as agricultural fertilizers.. Reversible Pi adsorption technologies such as ion exchange can remove and recover Pi from water/ wastewater for reuse.. However, existing reversible adsorbents cannot effectively discriminate against arsenate (As(V)) due to the similarity between As(V) and Pi chemical structure. Cell Culture:Article Title: Immobilized phosphate-binding protein can effectively discriminate against arsenate during phosphate adsorption and recovery. Article Snippet: • Abstract There is a strong impetus to establish a circular phosphorus economy by securing internally renewable phosphate (Pi) resources for use as agricultural fertilizers.. Reversible Pi adsorption technologies such as ion exchange can remove and recover Pi from water/ wastewater for reuse.. However, existing reversible adsorbents cannot effectively discriminate against arsenate (As(V)) due to the similarity between As(V) and Pi chemical structure. Expressing:Article Title: Immobilized phosphate-binding protein can effectively discriminate against arsenate during phosphate adsorption and recovery. Article Snippet: • Abstract There is a strong impetus to establish a circular phosphorus economy by securing internally renewable phosphate (Pi) resources for use as agricultural fertilizers.. Reversible Pi adsorption technologies such as ion exchange can remove and recover Pi from water/ wastewater for reuse.. However, existing reversible adsorbents cannot effectively discriminate against arsenate (As(V)) due to the similarity between As(V) and Pi chemical structure. Purification:Article Title: Immobilized phosphate-binding protein can effectively discriminate against arsenate during phosphate adsorption and recovery. Article Snippet: • Abstract There is a strong impetus to establish a circular phosphorus economy by securing internally renewable phosphate (Pi) resources for use as agricultural fertilizers.. Reversible Pi adsorption technologies such as ion exchange can remove and recover Pi from water/ wastewater for reuse.. However, existing reversible adsorbents cannot effectively discriminate against arsenate (As(V)) due to the similarity between As(V) and Pi chemical structure. |