Andiva Raharsya Muhammad

Doktorand vid Institutionen för geovetenskaper; Luft-, vatten- och landskapslära; Hydrologi

E-post:: muhammad.andiva@geo.uu.se
Besöksadress:: Geocentrum, Villavägen 16
752 36 Uppsala
Postadress:: Villavägen 16
752 36 UPPSALA

Ladda ned kontaktuppgifter för Andiva Raharsya Muhammad vid Institutionen för geovetenskaper; Luft-, vatten- och landskapslära; Hydrologi

Publikationer

Senaste publikationer

The Impact of Acid Strength and Mineral Composition on Spontaneous Imbibition with Reactive Fluids

Andiva Pratama, Muhammad; Khan, Hasan Javed

Ingår i Transport in Porous Media, 2025
- DOI för The Impact of Acid Strength and Mineral Composition on Spontaneous Imbibition with Reactive Fluids
- Ladda ner fulltext (pdf) av The Impact of Acid Strength and Mineral Composition on Spontaneous Imbibition with Reactive Fluids
Modelling coupled hydro-mechanical processes around a large-diameter experiment borehole in faulted Opalinus Clay shale: 3D model development and preliminary results

Andiva, Muhammad Raharsya; Lei, Qinghua; Ziegler, Martin

2024
- Ladda ner fulltext (pdf) av Modelling coupled hydro-mechanical processes around a large-diameter experiment borehole in faulted Opalinus Clay shale: 3D model development and preliminary results

Alla publikationer

Artiklar i tidskrift

The Impact of Acid Strength and Mineral Composition on Spontaneous Imbibition with Reactive Fluids

Andiva Pratama, Muhammad; Khan, Hasan Javed

Ingår i Transport in Porous Media, 2025
- DOI för The Impact of Acid Strength and Mineral Composition on Spontaneous Imbibition with Reactive Fluids
- Ladda ner fulltext (pdf) av The Impact of Acid Strength and Mineral Composition on Spontaneous Imbibition with Reactive Fluids

Konferensbidrag

Modelling coupled hydro-mechanical processes around a large-diameter experiment borehole in faulted Opalinus Clay shale: 3D model development and preliminary results

Andiva, Muhammad Raharsya; Lei, Qinghua; Ziegler, Martin

2024
- Ladda ner fulltext (pdf) av Modelling coupled hydro-mechanical processes around a large-diameter experiment borehole in faulted Opalinus Clay shale: 3D model development and preliminary results