thesis-4-1
Research-area geological map and Pit N drillhole control
The map locates the research area and boreholes that constrain the geological interpretation.
EVIDENCE
All 404 records in one page.
Browse the complete project archive below. Rock and outcrop photographs are presented as the original field images; maps, logs, documents and software records use short descriptions of what is shown and how it was used.
404records
8source groups
77rock photographs
127software records
SOURCE 01
Thesis — Pit N
Rock photographs from this research are collected in the Rock Outcrop section below.
thesis-4-2
Stratigraphic framework of the research area
The figure summarizes the vertical order and correlation of the principal lithologic and coal intervals.
thesis-4-3
Geomorphological setting of Pit N
The figure records the terrain setting surrounding the coal-bearing succession.
thesis-4-16
Core photographs — Seam D
The core panel records the vertical lithologic succession through Seam D.
thesis-4-17
Core photographs — Seam C
The core panel records the vertical lithologic succession through Seam C.
thesis-4-18
Core photographs — C–D interburden
The core panel records the vertical lithologic succession through C–D interburden.
thesis-4-19
Core photographs — Seam B2
The core panel records the vertical lithologic succession through Seam B2.
thesis-4-20
Core photographs — B2–C interburden
The core panel records the vertical lithologic succession through B2–C interburden.
thesis-4-21
Core photographs — Seam B1
The core panel records the vertical lithologic succession through Seam B1.
thesis-4-22
Core photographs — B1–B2 interburden
The core panel records the vertical lithologic succession through B1–B2 interburden.
thesis-4-23
Core photographs — Seam A2
The core panel records the vertical lithologic succession through Seam A2.
thesis-4-24
Core photographs — A2–B1 interburden
The core panel records the vertical lithologic succession through A2–B1 interburden.
thesis-4-25
Core photographs — roof of Seam A1
The core panel records the vertical lithologic succession through roof of Seam A1.
thesis-4-26
Core photographs — Seam A1
The core panel records the vertical lithologic succession through Seam A1.
thesis-4-27
Core photographs — A1–A2 interburden
The core panel records the vertical lithologic succession through A1–A2 interburden.
thesis-4-28
Electrofacies — Seam D
Gamma-ray, lithology and correlated markers are displayed for Seam D.
thesis-4-29
Electrofacies — Seam C
Gamma-ray, lithology and correlated markers are displayed for Seam C.
thesis-4-30
Electrofacies — C–D interburden
Gamma-ray, lithology and correlated markers are displayed for C–D interburden.
thesis-4-31
Electrofacies — Seam B2
Gamma-ray, lithology and correlated markers are displayed for Seam B2.
thesis-4-32
Electrofacies — B2–C interburden
Gamma-ray, lithology and correlated markers are displayed for B2–C interburden.
thesis-4-33
Electrofacies — Seam B1
Gamma-ray, lithology and correlated markers are displayed for Seam B1.
thesis-4-34
Electrofacies — B1–B2 interburden
Gamma-ray, lithology and correlated markers are displayed for B1–B2 interburden.
thesis-4-35
Electrofacies — Seam A2
Gamma-ray, lithology and correlated markers are displayed for Seam A2.
thesis-4-36
Electrofacies — A2–B1 interburden
Gamma-ray, lithology and correlated markers are displayed for A2–B1 interburden.
thesis-4-37
Electrofacies — roof of Seam A1
Gamma-ray, lithology and correlated markers are displayed for roof of Seam A1.
thesis-4-38
Electrofacies — Seam A1
Gamma-ray, lithology and correlated markers are displayed for Seam A1.
thesis-4-39
Electrofacies — A1–A2 interburden
Gamma-ray, lithology and correlated markers are displayed for A1–A2 interburden.
thesis-4-40
Facies-sequence and systems-tract correlation across five wells
The multiwell panel integrates facies, markers and interpreted stratigraphic packages across five wells.
thesis-4-41
Pit N topography and three-dimensional topographic model
Topographic data are displayed as the surface control for the three-dimensional model.
thesis-4-42
Structure contour and distribution — Seam A1
The structure-contour map and surface represent the interpreted elevation of Seam A1.
thesis-4-43
Structure contour and distribution — Seam A2
The structure-contour map and surface represent the interpreted elevation of Seam A2.
thesis-4-44
Structure contour and distribution — Seam B1
The structure-contour map and surface represent the interpreted elevation of Seam B1.
thesis-4-45
Structure contour and distribution — Seam B2
The structure-contour map and surface represent the interpreted elevation of Seam B2.
thesis-4-46
Structure contour and distribution — Seam C
The structure-contour map and surface represent the interpreted elevation of Seam C.
thesis-4-47
Structure contour and distribution — Seam D
The structure-contour map and surface represent the interpreted elevation of Seam D.
thesis-4-48
Three-dimensional model of all principal coal seams
The model stacks the principal coal-seam surfaces within the topographic framework.
thesis-4-49
Section through the three-dimensional seam model
The section cuts through the three-dimensional seam surfaces to show their vertical and lateral relationships.
thesis-4-50
Strike-oriented section through the three-dimensional seam model
The section cuts through the three-dimensional seam surfaces to show their vertical and lateral relationships.
thesis-4-51
Dip-oriented section through the three-dimensional seam model
The section cuts through the three-dimensional seam surfaces to show their vertical and lateral relationships.
SOURCE 02
Internship Report — PTBA
Rock photographs from the internship archive are collected in the Rock Outcrop section below.
internship-4-1
Borehole-location map
Borehole-location map.
internship-4-2
Geomorphological observation
The figure records the terrain setting surrounding the coal-bearing succession.
internship-4-1b
Calorific-value relationships — Seam A1
Coal-quality plots compare calorific value with the measured quality parameters for Seam A1.
internship-4-2b
Calorific-value relationships — Seam A2
Coal-quality plots compare calorific value with the measured quality parameters for Seam A2.
internship-4-3b
Calorific-value relationships — Seam B1
Coal-quality plots compare calorific value with the measured quality parameters for Seam B1.
internship-4-4b
Calorific-value relationships — Seam B2
Coal-quality plots compare calorific value with the measured quality parameters for Seam B2.
internship-4-5b
Calorific-value relationships — Seam C
Coal-quality plots compare calorific value with the measured quality parameters for Seam C.
internship-4-6b
Calorific-value relationships — Seam D
Coal-quality plots compare calorific value with the measured quality parameters for Seam D.
internship-4-u22
Seam D core record
The core panel records the vertical lithologic succession through Seam D.
internship-4-u23
Seam C and parting core record
The core panel records the vertical lithologic succession through Seam C and parting.
internship-4-u24
C–D interburden core record
The core panel records the vertical lithologic succession through C–D interburden.
internship-4-u25
Seam B2 core record
The core panel records the vertical lithologic succession through Seam B2.
internship-4-u26
B2–C interburden core record
The core panel records the vertical lithologic succession through B2–C interburden.
internship-4-u27
Seam B1 core record
The core panel records the vertical lithologic succession through Seam B1.
internship-4-u28
B1–B2 parting and interburden
B1–B2 parting and interburden.
internship-4-u29
Seam A2, Seam A1 and A1–A2 interburden
Seam A2, Seam A1 and A1–A2 interburden.
internship-4-u30
A2 interburden and marker interval
A2 interburden and marker interval.
internship-4-u31
Parting within Seam A2
Parting within Seam A2.
internship-4-u32
Roof of Seam A1
Roof of Seam A1.
internship-4-u33
A1–A2 interburden
A1–A2 interburden.
internship-4-u34
Electrofacies — Seam D
Gamma-ray, lithology and correlated markers are displayed for Seam D.
internship-4-u35
Electrofacies — Seam C
Gamma-ray, lithology and correlated markers are displayed for Seam C.
internship-4-u36
Electrofacies — C–D interburden
Gamma-ray, lithology and correlated markers are displayed for C–D interburden.
internship-4-u37
Electrofacies — Seam B2
Gamma-ray, lithology and correlated markers are displayed for Seam B2.
internship-4-u38
Electrofacies — B2–C interburden
Gamma-ray, lithology and correlated markers are displayed for B2–C interburden.
internship-4-u39
Electrofacies — Seam B1
Gamma-ray, lithology and correlated markers are displayed for Seam B1.
internship-4-u40
Electrofacies — B1–B2 interburden
Gamma-ray, lithology and correlated markers are displayed for B1–B2 interburden.
internship-4-u41
Electrofacies — Seam A2
Gamma-ray, lithology and correlated markers are displayed for Seam A2.
internship-4-u42
Electrofacies — A2–B1 interburden
Gamma-ray, lithology and correlated markers are displayed for A2–B1 interburden.
internship-4-u43
Electrofacies — roof of Seam A1
Gamma-ray, lithology and correlated markers are displayed for roof of Seam A1.
internship-4-u44
Electrofacies — Seam A1
Gamma-ray, lithology and correlated markers are displayed for Seam A1.
internship-4-u45
Electrofacies — A1–A2 interburden
Gamma-ray, lithology and correlated markers are displayed for A1–A2 interburden.
SOURCE 03
Geological Mapping — Karangkancana
All field photographs from Karangkancana are collected in the Rock Outcrop section below.
mapping-4-1
Geomorphology base map
Elevation distribution used to define relief, watershed position and the topographic context of mapped units.
mapping-4-2
Slope-gradient map
Slope classes support terrain segmentation and field-access or mass-movement interpretation.
mapping-4-3
Documented landslide localities
Photographs record slope failures at several villages and connect geomorphic mapping with field evidence.
mapping-4-4
River segmentation
Channel reaches are separated for morphologic comparison.
mapping-4-5
Drainage-pattern map
Drainage geometry is used to assess terrain and possible lithologic or structural control.
mapping-4-6
Ridge interpreted as lava-controlled landform
Landscape photograph supports the mapped volcanic geomorphology.
mapping-4-7
Karst hill
Conical to steep-sided carbonate landform supports the karst geomorphology unit.
mapping-4-8
Valley interpreted in a synclinal setting
Landscape photograph provides geomorphic context for the mapped fold.
mapping-4-9
Ridge interpreted in an anticlinal setting
Landscape photograph is used to illustrate the ridge associated with the mapped anticline.
mapping-4-10
Floodplain landform
Flat low-relief alluvial surface records active fluvial deposition.
mapping-4-12
LP22 sandstone thin section
Petrographic image supports mineralogy and texture of the Halang sandstone sample.
mapping-4-13
Parallel-laminated sandstone beds used as turbidite evidence
Two close views show thin parallel lamination and grain-size contrast.
mapping-4-14
Planktonic foraminiferal plate from calcareous sandstone
Taxonomic plate provides material for relative-age interpretation.
mapping-4-15
Planktonic range chart for LP59
Range overlap is intended to constrain the age of the Halang sandstone sample.
mapping-4-16
Benthic foraminiferal plate from LP59
Benthic assemblage is used for palaeobathymetric interpretation.
mapping-4-17
Palaeobathymetric range chart for LP59
Ecological ranges are combined to infer depositional depth.
mapping-4-19
LP4 clay-rich thin section
Petrography is used to support the fine-grained Halang unit.
mapping-4-20
Planktonic foraminiferal plate from claystone
Assemblage supports relative-age analysis of the Halang fine-grained unit.
mapping-4-21
Planktonic range chart for LP21
Range overlap is intended to date the claystone sample.
mapping-4-22
Benthic foraminiferal plate from LP21
Assemblage supports environmental interpretation.
mapping-4-23
Depositional-depth interpretation for LP21
Range chart attempts to place the sample within upper bathyal conditions.
mapping-4-25
Conceptual submarine-fan model
The model provides a framework for comparing observed facies with fan elements.
mapping-4-27
LP82 limestone thin section
Thin section documents carbonate grains, matrix and cement.
mapping-4-28
Planktonic foraminiferal plate from LP51 limestone
Assemblage is used to date the Lebakwangi carbonate.
mapping-4-28b
Planktonic range chart for LP51
Range overlap is used to infer Late Miocene–Early Pliocene age.
mapping-4-29
Benthic foraminiferal plate from LP51 limestone
Benthic taxa are used for palaeobathymetry.
mapping-4-30
Palaeobathymetric chart for LP51 limestone
Chart combines benthic depth ranges.
mapping-4-32
Andesitic clast thin section from LP80 breccia
Petrography characterizes a volcanic clast within the coarse unit.
mapping-4-33
Lithostratigraphic framework
Figure summarizes the mapped units and their interpreted relationship.
mapping-4-35
Sukarapi fault stereographic analysis
Stereonet combines fault plane, slip indicator and inferred stress orientation.
mapping-4-36
Anticline stereographic analysis
Orientation data are used to estimate fold axis and axial geometry.
mapping-4-37
Syncline stereographic analysis
Orientation data are used to estimate the syncline axis.
mapping-4-38
Conceptual structural mechanism
Diagram synthesizes regional compression, folds and fault development.
mapping-4-39
Geological cross-section
Section integrates map units, topography, bedding and structures.
appendix-01
Structural Analysis — Sheet 01
Structural Analysis — Sheet 01 compiles orientation data, stereographic output or section geometry used in the structural analysis.
appendix-02
Structural Analysis — Sheet 02
Structural Analysis — Sheet 02 compiles orientation data, stereographic output or section geometry used in the structural analysis.
appendix-03
Structural Analysis — Sheet 03
Structural Analysis — Sheet 03 compiles orientation data, stereographic output or section geometry used in the structural analysis.
appendix-04
Structural Analysis — Sheet 04
Structural Analysis — Sheet 04 compiles orientation data, stereographic output or section geometry used in the structural analysis.
appendix-05
Structural Analysis — Sheet 05
Structural Analysis — Sheet 05 compiles orientation data, stereographic output or section geometry used in the structural analysis.
appendix-06
Structural Analysis — Sheet 06
Structural Analysis — Sheet 06 compiles orientation data, stereographic output or section geometry used in the structural analysis.
appendix-07
Final Geomorphological Map — Sheet 07
Final Geomorphological Map — Sheet 07 compiles the mapped units, boundaries and spatial control used in the project.
appendix-08
Final Geological Map — Sheet 08
Final Geological Map — Sheet 08 compiles the mapped units, boundaries and spatial control used in the project.
appendix-09
Petrography — Sheet 09
Petrography — Sheet 09 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-10
Petrography — Sheet 10
Petrography — Sheet 10 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-11
Petrography — Sheet 11
Petrography — Sheet 11 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-12
Petrography — Sheet 12
Petrography — Sheet 12 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-13
Petrography — Sheet 13
Petrography — Sheet 13 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-14
Petrography — Sheet 14
Petrography — Sheet 14 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-15
Petrography — Sheet 15
Petrography — Sheet 15 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-16
Petrography — Sheet 16
Petrography — Sheet 16 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-17
Petrography — Sheet 17
Petrography — Sheet 17 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-18
Petrography — Sheet 18
Petrography — Sheet 18 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
appendix-19
Petrography — Sheet 19
Petrography — Sheet 19 records the mineral, fossil, matrix/cement and textural relationships visible in thin section.
ROCK PHOTOGRAPHS
Rock Outcrop
77 photographs from the thesis, internship and geological mapping archives.
SOURCE 04
Software Documentation
arcgis-212244
Inspecting mapped polygons and attributes
Stage 01 of the ArcGIS Pro sequence: the map, layer list and attribute table are reviewed together to confirm polygon identity, field values and layer order before symbol assignment.
arcgis-212306
Assigning geological-unit symbology
Stage 02 of the ArcGIS Pro sequence: a selected polygon layer is symbolised from its geological attribute, with fill colour and class settings adjusted in the Symbology pane.
arcgis-212353
Reviewing attribute-driven unit classes
Stage 03 of the ArcGIS Pro sequence: colour-coded polygons are compared with the attribute table to verify that each mapped unit is assigned to the intended class.
arcgis-212420
Editing symbol properties for selected units
Stage 04 of the ArcGIS Pro sequence: symbol properties are adjusted for individual geological classes while the mapped polygons remain visible against the terrain base.
arcgis-212704
Selecting and checking mapped features
Stage 05 of the ArcGIS Pro sequence: geological features are selected and inspected against the basemap to confirm their extent, identity and spatial relationship with neighbouring units.
arcgis-212734
Refining colours and boundary contrast
Stage 06 of the ArcGIS Pro sequence: the mapped units are displayed with a revised colour hierarchy and contrasting boundaries to improve separation between formations.
arcgis-212744
Checking contact geometry and internal features
Stage 07 of the ArcGIS Pro sequence: formation polygons, linear features and point observations are inspected together to locate boundary gaps, overlaps or features assigned to the wrong unit.
arcgis-212803
Comparing thematic versions for consistency
Stage 08 of the ArcGIS Pro sequence: alternative colour classifications are compared on the same mapped extent to confirm that the final legend preserves the intended unit relationships.
arcgis-212817
Composing the geological map layout
Stage 09 of the ArcGIS Pro sequence: the geological map is arranged with its thematic layers, drainage and supporting map elements in a publication layout.
arcgis-212841
Finalising the publication map
Stage 10 of the ArcGIS Pro sequence: the completed map and legend are reviewed at output scale, with the final symbology and page composition visible together.
dips-101553
Defining discontinuity sets and kinematic inputs
Stage 01 of the Rocscience Dips sequence: orientation data, slope attitude, friction angle and kinematic-analysis settings are entered before the stereonet is evaluated.
dips-101623
Stereonet density and kinematic assessment
Stage 02 of the Rocscience Dips sequence: pole-density clusters, mean discontinuity sets and the critical kinematic zone are reviewed on the stereonet to identify structurally admissible failure directions.
minescape-092702
Topographic control for the geological model
The TOPO view displays the contour network used to establish elevation control and the upper boundary of the seam model.
minescape-092748
Stacked seam-floor surfaces
Topography and the interpreted floors of Seams A2, B1, B2 and C are displayed together to inspect stratigraphic order and lateral geometry.
minescape-092828
Stratigraphic cell framework
Vertical cells are generated between the model boundaries, converting the surface interpretation into a spatial framework that can carry geological attributes.
minescape-092917
Wireframe review of model geometry
The wireframe exposes cell arrangement, lateral extent and vertical conformity to the model boundaries.
minescape-092929
Spatial-domain coding review
The plan view shows colour-separated cell domains alongside the controlling polygon objects.
micromine-093335
3D project scene and data loading
Stage 01 of the Micromine Origin sequence: the Micromine Origin project view displays the active geological objects at the 3d project scene and data loading stage.
micromine-093402
Drillhole or string visualization
Stage 02 of the Micromine Origin sequence: drillholes and their coded intervals are displayed in three dimensions to confirm collar positions, trace orientation and the spatial distribution of geological control.
micromine-093431
Wireframe interpretation
Stage 03 of the Micromine Origin sequence: interpretation strings are reviewed across the available sections, preserving the boundaries used to construct the geological domain.
micromine-093448
Surface construction
Stage 04 of the Micromine Origin sequence: the interpreted boundary is converted into a triangulated surface and inspected for continuity, edge behaviour and local geometric artefacts.
micromine-093531
Geological-domain modelling
Stage 05 of the Micromine Origin sequence: bounding surfaces are joined into a closed geological solid that represents the interpreted three-dimensional domain.
micromine-093544
Model intersection review
Stage 06 of the Micromine Origin sequence: a sectional cut exposes the internal relationship between the model, interpreted boundaries and the available geological control.
micromine-093605
Solid validation
Stage 07 of the Micromine Origin sequence: bounding surfaces are joined into a closed geological solid that represents the interpreted three-dimensional domain.
micromine-093706
Topographic integration
Stage 08 of the Micromine Origin sequence: the geological interpretation is placed against the topographic surface to verify its position, extent and relationship with the ground surface.
micromine-093747
Block-model framework
Stage 09 of the Micromine Origin sequence: a regular three-dimensional cell framework is generated across the interpreted domain, providing the structure required to store geological or quantitative attributes.
micromine-093820
Property display and colour legend
Stage 10 of the Micromine Origin sequence: the model is coloured by an assigned attribute so that spatial changes and domain boundaries can be inspected directly.
micromine-093833
Sectional inspection
Stage 11 of the Micromine Origin sequence: a sectional cut exposes the internal relationship between the model, interpreted boundaries and the available geological control.
micromine-093926
Spatial continuity review
Stage 12 of the Micromine Origin sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
micromine-093931
Domain comparison
Stage 13 of the Micromine Origin sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
micromine-093939
Model refinement
Stage 14 of the Micromine Origin sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
micromine-094057
Output visualization
Stage 15 of the Micromine Origin sequence: the principal model components are assembled in a final three-dimensional view for technical review and communication.
micromine-094213
Final model presentation
Stage 16 of the Micromine Origin sequence: the principal model components are assembled in a final three-dimensional view for technical review and communication.
petrel-093838
Project data organization
Stage 01 of the Petrel sequence: the Petrel project tree and well-section window are organised so that logs, markers, facies tracks and model objects can be reviewed from a single correlation workspace.
petrel-093856
Well-log display setup
Stage 02 of the Petrel sequence: gamma-ray, density, lithology and interpreted tracks are arranged at a common vertical scale for direct comparison.
petrel-093952
Multiwell correlation panel
Stage 03 of the Petrel sequence: multiple wells are aligned in one correlation panel, with markers and interpreted intervals connected across the section.
petrel-094050
Log-curve alignment
Stage 04 of the Petrel sequence: log curves, marker picks and interval boundaries are adjusted at well scale while neighbouring wells remain visible for control.
petrel-094206
Marker and interval review
Stage 05 of the Petrel sequence: log curves, marker picks and interval boundaries are adjusted at well scale while neighbouring wells remain visible for control.
petrel-094232
Correlation refinement
Stage 06 of the Petrel sequence: log curves, marker picks and interval boundaries are adjusted at well scale while neighbouring wells remain visible for control.
petrel-094254
Electrofacies inspection
Stage 07 of the Petrel sequence: colour-coded electrofacies or property tracks are inspected beside the wireline logs and correlated markers.
petrel-094443
Well-section comparison
Stage 08 of the Petrel sequence: multiple wells are aligned in one correlation panel, with markers and interpreted intervals connected across the section.
petrel-094514
Property-track review
Stage 09 of the Petrel sequence: colour-coded electrofacies or property tracks are inspected beside the wireline logs and correlated markers.
petrel-094540
Cross-well continuity assessment
Stage 10 of the Petrel sequence: multiple wells are aligned in one correlation panel, with markers and interpreted intervals connected across the section.
petrel-094641
Structural framework view
Stage 11 of the Petrel sequence: the correlated wells are positioned within a three-dimensional structural context to check the spatial relationship between the section and the model framework.
petrel-094751
Surface and horizon inspection
Stage 12 of the Petrel sequence: a three-dimensional surface or horizon object is isolated to inspect its geometry relative to the available well control.
petrel-094801
Model quality control
Stage 13 of the Petrel sequence: a diagnostic plot and project controls are used to review the consistency of the interpreted model against the available data.
surpac-221133
Project scene and string loading
Stage 01 of the GEOVIA Surpac sequence: interpretation strings are reviewed across the available sections, preserving the boundaries used to construct the geological domain.
surpac-221244
Drillhole visualization
Stage 02 of the GEOVIA Surpac sequence: drillholes and their coded intervals are displayed in three dimensions to confirm collar positions, trace orientation and the spatial distribution of geological control.
surpac-221310
Geological string preparation
Stage 03 of the GEOVIA Surpac sequence: interpretation strings are reviewed across the available sections, preserving the boundaries used to construct the geological domain.
surpac-221448
Section interpretation
Stage 04 of the GEOVIA Surpac sequence: interpretation strings are reviewed across the available sections, preserving the boundaries used to construct the geological domain.
surpac-221514
Wireframe construction
Stage 05 of the GEOVIA Surpac sequence: the GEOVIA Surpac project view displays the active geological objects at the wireframe construction stage.
surpac-221546
Surface triangulation
Stage 06 of the GEOVIA Surpac sequence: the interpreted boundary is converted into a triangulated surface and inspected for continuity, edge behaviour and local geometric artefacts.
surpac-221613
Solid-model inspection
Stage 07 of the GEOVIA Surpac sequence: bounding surfaces are joined into a closed geological solid that represents the interpreted three-dimensional domain.
surpac-221629
Topographic integration
Stage 08 of the GEOVIA Surpac sequence: the geological interpretation is placed against the topographic surface to verify its position, extent and relationship with the ground surface.
surpac-221645
Domain clipping and validation
Stage 09 of the GEOVIA Surpac sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
surpac-221713
Block-model setup
Stage 10 of the GEOVIA Surpac sequence: a regular three-dimensional cell framework is generated across the interpreted domain, providing the structure required to store geological or quantitative attributes.
surpac-221741
Attribute display
Stage 11 of the GEOVIA Surpac sequence: the model is coloured by an assigned attribute so that spatial changes and domain boundaries can be inspected directly.
surpac-221800
Sectional model review
Stage 12 of the GEOVIA Surpac sequence: a sectional cut exposes the internal relationship between the model, interpreted boundaries and the available geological control.
surpac-221811
Spatial continuity inspection
Stage 13 of the GEOVIA Surpac sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
surpac-221817
Model comparison
Stage 14 of the GEOVIA Surpac sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
surpac-221838
Volume-domain quality control
Stage 15 of the GEOVIA Surpac sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
surpac-221909
Output scene composition
Stage 16 of the GEOVIA Surpac sequence: the principal model components are assembled in a final three-dimensional view for technical review and communication.
surpac-221924
Final technical visualization
Stage 17 of the GEOVIA Surpac sequence: the principal model components are assembled in a final three-dimensional view for technical review and communication.
vulcan-080703
Project and terrain context
Stage 01 of the Maptek Vulcan sequence: the geological interpretation is placed against the topographic surface to verify its position, extent and relationship with the ground surface.
vulcan-081019
Geological data visualization
Stage 02 of the Maptek Vulcan sequence: the principal model components are assembled in a final three-dimensional view for technical review and communication.
vulcan-081213
Drillhole or sample display
Stage 03 of the Maptek Vulcan sequence: drillholes and their coded intervals are displayed in three dimensions to confirm collar positions, trace orientation and the spatial distribution of geological control.
vulcan-081323
Interpretive string review
Stage 04 of the Maptek Vulcan sequence: interpretation strings are reviewed across the available sections, preserving the boundaries used to construct the geological domain.
vulcan-081710
Triangulation workflow
Stage 05 of the Maptek Vulcan sequence: the interpreted boundary is converted into a triangulated surface and inspected for continuity, edge behaviour and local geometric artefacts.
vulcan-081729
Surface-model construction
Stage 06 of the Maptek Vulcan sequence: the interpreted boundary is converted into a triangulated surface and inspected for continuity, edge behaviour and local geometric artefacts.
vulcan-081850
Solid-domain creation
Stage 07 of the Maptek Vulcan sequence: bounding surfaces are joined into a closed geological solid that represents the interpreted three-dimensional domain.
vulcan-082134
Domain validation
Stage 08 of the Maptek Vulcan sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
vulcan-082248
Block-model framework
Stage 09 of the Maptek Vulcan sequence: a regular three-dimensional cell framework is generated across the interpreted domain, providing the structure required to store geological or quantitative attributes.
vulcan-082259
Attribute colouring
Stage 10 of the Maptek Vulcan sequence: the model is coloured by an assigned attribute so that spatial changes and domain boundaries can be inspected directly.
vulcan-082319
Grade or category display
Stage 11 of the Maptek Vulcan sequence: the model is coloured by an assigned attribute so that spatial changes and domain boundaries can be inspected directly.
vulcan-082344
Sectional interrogation
Stage 12 of the Maptek Vulcan sequence: a sectional cut exposes the internal relationship between the model, interpreted boundaries and the available geological control.
vulcan-082412
Model boundary review
Stage 13 of the Maptek Vulcan sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
vulcan-082424
Resource-domain comparison
Stage 14 of the Maptek Vulcan sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
vulcan-082516
Pit or design context
Stage 15 of the Maptek Vulcan sequence: the geological model is displayed with a design or volume boundary to examine the portion of the domain contained within the selected limit.
vulcan-082643
Integrated 3D scene
Stage 16 of the Maptek Vulcan sequence: the Maptek Vulcan project view displays the active geological objects at the integrated 3d scene stage.
vulcan-082724
Output quality control
Stage 17 of the Maptek Vulcan sequence: the interpreted surfaces, solids or model cells are isolated and compared to check continuity, boundary conformity and internal consistency.
vulcan-082749
Final geological model presentation
Stage 18 of the Maptek Vulcan sequence: the principal model components are assembled in a final three-dimensional view for technical review and communication.
slide-101818
Building the stratigraphic slope section
Stage 01 of the Rocscience Slide2 sequence: the section geometry and material units are drawn from the interpreted subsurface profile, preserving the principal layer boundaries and slope form.
slide-101838
Defining slip-surface search parameters
Stage 02 of the Rocscience Slide2 sequence: the search method and admissible slip-surface geometry are configured against the modelled slope section.
slide-101852
Running the stability search
Stage 03 of the Rocscience Slide2 sequence: the completed slope model is submitted to the limit-equilibrium calculation after geometry, materials and search controls have been defined.
slide-101941
Reviewing the calculated slope model
Stage 04 of the Rocscience Slide2 sequence: the interpreted stratigraphic section is reviewed with the analysis display to check the model geometry and the location of the calculated result.
petrel-seis-120251
2D seismic section with multi-horizon interpretation
Stage 14 of the Petrel sequence: a vertical seismic section carries several interpreted horizons, allowing reflector continuity and structural relief to be followed along one line.
petrel-seis-120429
Intersecting seismic sections with interpreted horizons in 3D
Stage 15 of the Petrel sequence: intersecting seismic panels display the same interpreted horizons from different directions, exposing misties and inconsistent picks at line intersections.
petrel-seis-120637
Vertical seismic panel with interpreted surface intersection
Stage 16 of the Petrel sequence: intersecting seismic panels display the same interpreted horizons from different directions, exposing misties and inconsistent picks at line intersections.
petrel-seis-120650
Orthogonal seismic panels for crossline consistency review
Stage 17 of the Petrel sequence: intersecting seismic panels display the same interpreted horizons from different directions, exposing misties and inconsistent picks at line intersections.
petrel-seis-120703
Seismic display opacity and colour-control review
Stage 18 of the Petrel sequence: display opacity and colour controls are adjusted while the seismic volume and interpretation remain visible.
petrel-seis-120727
Interpreted horizons across a vertical seismic section
Stage 19 of the Petrel sequence: interpreted horizons are traced across a vertical seismic section, including intervals where reflector continuity is disrupted.
petrel-seis-120809
Multi-panel seismic intersection for horizon tie checking
Stage 20 of the Petrel sequence: intersecting seismic panels display the same interpreted horizons from different directions, exposing misties and inconsistent picks at line intersections.
petrel-seis-120837
Horizon surface introduced beneath the seismic framework
Stage 21 of the Petrel sequence: the interpreted horizon is converted to a colour-ramped surface and viewed together with the seismic control from which it was derived.
petrel-seis-120902
Horizon continuity review across a disrupted seismic interval
Stage 22 of the Petrel sequence: interpreted horizons are traced across a vertical seismic section, including intervals where reflector continuity is disrupted.
petrel-seis-120926
Seismic-to-surface relationship in a 3D intersection
Stage 23 of the Petrel sequence: the interpreted horizon is converted to a colour-ramped surface and viewed together with the seismic control from which it was derived.
petrel-seis-120939
Time-structure surface visualisation
Stage 24 of the Petrel sequence: the interpreted horizon is converted to a colour-ramped surface and viewed together with the seismic control from which it was derived.
petrel-seis-120950
Fault-stick geometry displayed on orthogonal panels
Stage 25 of the Petrel sequence: fault traces and fault sticks are displayed on orthogonal seismic panels, with horizon offsets providing structural control.
petrel-seis-121042
Fault traces and horizon offsets on a seismic section
Stage 26 of the Petrel sequence: fault traces and fault sticks are displayed on orthogonal seismic panels, with horizon offsets providing structural control.
petrel-seis-121101
Single fault surface positioned against seismic control
Stage 27 of the Petrel sequence: a single fault surface is positioned against the seismic and horizon framework to review its dip, extent and intersection geometry.
petrel-seis-121123
Fault surface cut by the seismic–horizon framework
Stage 28 of the Petrel sequence: a single fault surface is positioned against the seismic and horizon framework to review its dip, extent and intersection geometry.
petrel-seis-121142
Alternative fault-surface geometry against seismic control
Stage 29 of the Petrel sequence: a single fault surface is positioned against the seismic and horizon framework to review its dip, extent and intersection geometry.
petrel-seis-121206
Multi-fault stick set with seismic context
Stage 30 of the Petrel sequence: multiple fault-stick sets are assembled in three dimensions, revealing segmentation, overlap and the structural density of the interpreted network.
petrel-seis-121220
Expanded fault-stick network and segmentation
Stage 31 of the Petrel sequence: multiple fault-stick sets are assembled in three dimensions, revealing segmentation, overlap and the structural density of the interpreted network.
petrel-seis-121240
Dense multi-fault interpretation framework in 3D
Stage 32 of the Petrel sequence: multiple fault-stick sets are assembled in three dimensions, revealing segmentation, overlap and the structural density of the interpreted network.
petrel-seis-121302
Fault-stick subset isolated for structural review
Stage 33 of the Petrel sequence: multiple fault-stick sets are assembled in three dimensions, revealing segmentation, overlap and the structural density of the interpreted network.
petrel-seis-121331
Colour-coded fault surfaces from interpreted fault sticks
Stage 34 of the Petrel sequence: colour-coded fault surfaces have been generated from the interpreted stick sets, allowing individual structures and intersections to be distinguished.
petrel-seis-121414
Structural surface map with elevation or time colour ramp
Stage 35 of the Petrel sequence: a colour-ramped structural surface is inspected in map view to identify relief, lineaments and fault-controlled discontinuities.
petrel-seis-121433
Surface morphology and lineament continuity review
Stage 36 of the Petrel sequence: a colour-ramped structural surface is inspected in map view to identify relief, lineaments and fault-controlled discontinuities.
petrel-seis-121442
Surface map integrated with orthogonal seismic sections
Stage 37 of the Petrel sequence: the mapped surface is intersected by vertical seismic panels, tying surface morphology back to the interpreted reflectors and faults.
petrel-seis-121454
Fault-controlled surface geometry in map view
Stage 38 of the Petrel sequence: a colour-ramped structural surface is inspected in map view to identify relief, lineaments and fault-controlled discontinuities.
petrel-seis-121524
Mapped surface tied back to vertical seismic control
Stage 39 of the Petrel sequence: the mapped surface is intersected by vertical seismic panels, tying surface morphology back to the interpreted reflectors and faults.
petrel-seis-121538
Stacked interpreted horizons and fault framework
Stage 40 of the Petrel sequence: seismic panels, interpreted horizons and fault surfaces are displayed together in the final three-dimensional structural scene.
petrel-seis-121610
Single interpreted structural surface for morphology QC
Stage 41 of the Petrel sequence: a colour-ramped structural surface is inspected in map view to identify relief, lineaments and fault-controlled discontinuities.
petrel-seis-121630
Surface attribute map highlighting structural texture
Stage 42 of the Petrel sequence: a derived surface attribute is displayed continuously and categorically to emphasise lineaments, local relief changes and structural texture.
petrel-seis-121645
Categorical surface-attribute display
Stage 43 of the Petrel sequence: a derived surface attribute is displayed continuously and categorically to emphasise lineaments, local relief changes and structural texture.
petrel-seis-121658
Attribute surface inspected with intersecting seismic panels
Stage 44 of the Petrel sequence: the mapped surface is intersected by vertical seismic panels, tying surface morphology back to the interpreted reflectors and faults.
petrel-seis-121753
Multiple stacked surfaces for vertical-relationship review
Stage 45 of the Petrel sequence: several interpreted horizon surfaces are stacked and contoured to review stratigraphic order, vertical separation and local surface shape.
petrel-seis-121819
Contoured structural surface and smoothing review
Stage 46 of the Petrel sequence: several interpreted horizon surfaces are stacked and contoured to review stratigraphic order, vertical separation and local surface shape.
petrel-seis-121900
Stacked horizon surfaces with colour-coded stratigraphic order
Stage 47 of the Petrel sequence: several interpreted horizon surfaces are stacked and contoured to review stratigraphic order, vertical separation and local surface shape.
petrel-seis-121915
Selected horizon stack emphasising vertical separation
Stage 48 of the Petrel sequence: several interpreted horizon surfaces are stacked and contoured to review stratigraphic order, vertical separation and local surface shape.
petrel-seis-121930
Complete multi-horizon stack in 3D
Stage 49 of the Petrel sequence: several interpreted horizon surfaces are stacked and contoured to review stratigraphic order, vertical separation and local surface shape.
petrel-seis-121952
Fault framework beneath an overlying structural surface
Stage 50 of the Petrel sequence: the fault framework is combined with overlying horizons or a grid-based structural surface, forming the principal geometry of the model.
petrel-seis-122007
Grid-based structural framework above interpreted faults
Stage 51 of the Petrel sequence: the fault framework is combined with overlying horizons or a grid-based structural surface, forming the principal geometry of the model.
petrel-seis-122023
Surface and fault framework viewed as one structural system
Stage 52 of the Petrel sequence: the fault framework is combined with overlying horizons or a grid-based structural surface, forming the principal geometry of the model.
petrel-seis-122032
Seismic section, surfaces and faults integrated in 3D
Stage 53 of the Petrel sequence: seismic panels, interpreted horizons and fault surfaces are displayed together in the final three-dimensional structural scene.
petrel-seis-122050
Alternative view of the integrated seismic–fault–surface model
Stage 54 of the Petrel sequence: seismic panels, interpreted horizons and fault surfaces are displayed together in the final three-dimensional structural scene.
petrel-seis-122147
Final integrated structural framework with horizons, faults and seismic panels
Stage 55 of the Petrel sequence: seismic panels, interpreted horizons and fault surfaces are displayed together in the final three-dimensional structural scene.
SOURCE 05
Well-log Appendices
appendix-20
RTB 09 Stratigraphic Panel — Sheet 20
RTB 09 Stratigraphic Panel — Sheet 20 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-21
RTB 09 Stratigraphic Panel — Sheet 21
RTB 09 Stratigraphic Panel — Sheet 21 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-22
RTB 09 Stratigraphic Panel — Sheet 22
RTB 09 Stratigraphic Panel — Sheet 22 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-23
RTB 09 Stratigraphic Panel — Sheet 23
RTB 09 Stratigraphic Panel — Sheet 23 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-24
RTB 09 Stratigraphic Panel — Sheet 24
RTB 09 Stratigraphic Panel — Sheet 24 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-25
RTB 11 Stratigraphic Panel — Sheet 25
RTB 11 Stratigraphic Panel — Sheet 25 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-26
RTB 11 Stratigraphic Panel — Sheet 26
RTB 11 Stratigraphic Panel — Sheet 26 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-27
RTB 11 Stratigraphic Panel — Sheet 27
RTB 11 Stratigraphic Panel — Sheet 27 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-28
RTB 11 Stratigraphic Panel — Sheet 28
RTB 11 Stratigraphic Panel — Sheet 28 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-29
RTS 74 Stratigraphic Panel — Sheet 29
RTS 74 Stratigraphic Panel — Sheet 29 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-30
RTS 74 Stratigraphic Panel — Sheet 30
RTS 74 Stratigraphic Panel — Sheet 30 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-31
RTS 74 Stratigraphic Panel — Sheet 31
RTS 74 Stratigraphic Panel — Sheet 31 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-32
RTS 74 Stratigraphic Panel — Sheet 32
RTS 74 Stratigraphic Panel — Sheet 32 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-33
RTS 01 Stratigraphic Panel — Sheet 33
RTS 01 Stratigraphic Panel — Sheet 33 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-34
RTS 01 Stratigraphic Panel — Sheet 34
RTS 01 Stratigraphic Panel — Sheet 34 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-35
RTS 01 Stratigraphic Panel — Sheet 35
RTS 01 Stratigraphic Panel — Sheet 35 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-36
RTS 01 Stratigraphic Panel — Sheet 36
RTS 01 Stratigraphic Panel — Sheet 36 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-37
RTS 01 Stratigraphic Panel — Sheet 37
RTS 01 Stratigraphic Panel — Sheet 37 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-38
RTS 01 Stratigraphic Panel — Sheet 38
RTS 01 Stratigraphic Panel — Sheet 38 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-39
RTS 01 Stratigraphic Panel — Sheet 39
RTS 01 Stratigraphic Panel — Sheet 39 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-40
RTS 06 Stratigraphic Panel — Sheet 40
RTS 06 Stratigraphic Panel — Sheet 40 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-41
RTS 06 Stratigraphic Panel — Sheet 41
RTS 06 Stratigraphic Panel — Sheet 41 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-42
RTS 06 Stratigraphic Panel — Sheet 42
RTS 06 Stratigraphic Panel — Sheet 42 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-43
RTS 06 Stratigraphic Panel — Sheet 43
RTS 06 Stratigraphic Panel — Sheet 43 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-44
RTS 06 Stratigraphic Panel — Sheet 44
RTS 06 Stratigraphic Panel — Sheet 44 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-45
RTS 06 Stratigraphic Panel — Sheet 45
RTS 06 Stratigraphic Panel — Sheet 45 preserves the original well-log or stratigraphic panel, including marker positions and the vertical relationship of coal and interburden intervals.
appendix-46
Integrated Stratigraphic Correlation — Sheet 46
Integrated Stratigraphic Correlation — Sheet 46 combines lithology, core, log motifs and correlated markers within one stratigraphic panel.
SOURCE 06
Certificates & Source Documents
credential-advance-well-control
Advance Well Control
Advance Well Control records formal training, participation or completion issued by the named provider.
credential-apdi-drone-training
APDI Drone Training
APDI Drone Training records formal training, participation or completion issued by the named provider.
credential-arcgis-pro-training
ArcGIS Pro Training
ArcGIS Pro Training records formal training, participation or completion issued by the named provider.
credential-geotechnical-software-suite
Geotechnical Software Suite
Geotechnical Software Suite records formal training, participation or completion issued by the named provider.
credential-micromine-edublast
Micromine EduBlast
Micromine EduBlast records formal training, participation or completion issued by the named provider.
credential-minescape-planning
MineScape Planning
MineScape Planning records formal training, participation or completion issued by the named provider.
credential-geological-modelling-training
Geological Modelling Training
Geological Modelling Training records formal training, participation or completion issued by the named provider.
credential-pt-bukit-asam-internship
PT Bukit Asam Internship
PT Bukit Asam Internship records formal training, participation or completion issued by the named provider.
credential-surpac-minesched
Surpac & MineSched
Surpac & MineSched records formal training, participation or completion issued by the named provider.
credential-surpac-resource-modelling
Surpac Resource Modelling
Surpac Resource Modelling records formal training, participation or completion issued by the named provider.
credential-vulcan-foundation
Vulcan Foundation
Vulcan Foundation records formal training, participation or completion issued by the named provider.
cv
Multidisciplinary Applied Geoscience CV
Current three-page CV covering mining, field mapping, oil and gas, geothermal, subsurface interpretation, GIS, geological modelling, research, training and leadership.
thesis-source
Undergraduate Thesis Visual Archive
Undergraduate Thesis Visual Archive records formal training, participation or completion issued by the named provider.
mapping-source
Geological Mapping Visual Archive
Geological Mapping Visual Archive records formal training, participation or completion issued by the named provider.
internship-source
PTBA Internship Visual Archive
PTBA Internship Visual Archive records formal training, participation or completion issued by the named provider.
accepted-manuscript
Accepted Manuscript
Accepted Manuscript records formal training, participation or completion issued by the named provider.
loa
Letter of Acceptance
Letter of Acceptance records formal training, participation or completion issued by the named provider.
credential-petrel-reservoir-training
Petrel Reservoir Training — Completion with Grade A
Petrel Reservoir Training — Completion with Grade A records formal training, participation or completion issued by the named provider.
SOURCE 07
Paper & Publication
publication-official
Published Article — GeoScienceEd Journal 7(1)
Published Article — GeoScienceEd Journal 7(1) forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-01
Accepted Manuscript — Page 01
Accepted Manuscript — Page 01 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-02
Accepted Manuscript — Page 02
Accepted Manuscript — Page 02 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-03
Accepted Manuscript — Page 03
Accepted Manuscript — Page 03 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-04
Accepted Manuscript — Page 04
Accepted Manuscript — Page 04 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-05
Accepted Manuscript — Page 05
Accepted Manuscript — Page 05 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-06
Accepted Manuscript — Page 06
Accepted Manuscript — Page 06 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-07
Accepted Manuscript — Page 07
Accepted Manuscript — Page 07 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-08
Accepted Manuscript — Page 08
Accepted Manuscript — Page 08 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-09
Accepted Manuscript — Page 09
Accepted Manuscript — Page 09 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-10
Accepted Manuscript — Page 10
Accepted Manuscript — Page 10 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-11
Accepted Manuscript — Page 11
Accepted Manuscript — Page 11 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-12
Accepted Manuscript — Page 12
Accepted Manuscript — Page 12 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-13
Accepted Manuscript — Page 13
Accepted Manuscript — Page 13 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-14
Accepted Manuscript — Page 14
Accepted Manuscript — Page 14 forms part of the manuscript, acceptance or publication record retained in the portfolio.
publication-15
Letter of Acceptance — Original Record
Letter of Acceptance — Original Record forms part of the manuscript, acceptance or publication record retained in the portfolio.
SOURCE 08
Pertamina & Industry Visits
VIS-PHR-001
Participant registration and pre-session coordination
The organising committee checks participant readiness and coordinates the room before the technical programme begins.
VIS-PHR-002
Organising committee for the PHR Zone 4 programme
Committee members are documented in the event uniform after completing preparation for the Pertamina Hulu Rokan programme.
VIS-PHR-003
AKHLAK presentation during the PHR technical session
The presentation introduces Pertamina’s AKHLAK values and the organisational context of the upstream programme.
VIS-PHR-004
Appreciation handover to the PHR host representative
A commemorative token is presented to the host representative at the close of the programme.
VIS-PHR-005
Committee, participants and host representatives after the PHR programme
The group photograph records the organising committee, participants and host representatives after the technical session.
VIS-PHR-006
Technical presentation and room coordination
A technical presentation is in progress while the committee manages the room, participants and supporting equipment.
VIS-PHR-007
Closing session with the organising committee and host team
The final session brings together the committee and host team after the programme activities have been completed.
VIS-PGE-001
Delegation before departure for the PGE Ulubelu visit
The committee and participants gather at Universitas Sriwijaya with the official visit banner before travelling to the geothermal facility.
VIS-PGE-002
Delegation at Pertamina Geothermal Energy Area Ulubelu
The group is documented at the Ulubelu facility after arrival for the industry programme.
VIS-PGE-003
Documentation at the Pertamina Geothermal Energy facility
An individual photograph at the facility entrance confirms the location and institutional context of the visit.
VIS-PGE-004
Committee and participant group for the Ulubelu programme
The full delegation is documented with the official visit banner before the technical programme.
VIS-PGE-005
Technical briefing at the Ulubelu facility
Participants attend a technical briefing with site helmets prepared for the field programme.
UAV-TRN-001
APDI training group after the practical session
Participants and instructors are documented after completing the supervised UAV training activities.
UAV-TRN-002
Hands-on UAV equipment setup
Participants practise equipment preparation and component handling under instructor supervision.
UAV-TRN-003
Completion handover with the UAV instructor
The instructor and participant document the completion of the practical training session.