Review




Structured Review

Simpleware Ltd simpleware scanip
Simpleware Scanip, supplied by Simpleware Ltd, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/synopsys+simpleware+scanip+image+processing+software/scanip+simpleware/pmc09950282-30-23-23
Average 86 stars, based on 1 article reviews
simpleware scanip - by Bioz Stars, 2026-09
86/100 stars

Images

Related Articles

Polymer:

Article Title: Scalable DICOM 3D-printed phantoms mimicking marine mammal bone and soft tissue.
Article Snippet: AR TIC LE IN PR ES S ARTICLE IN PRESS 21/2 6 hydrogels with additive conductors (carbon nanotubes, polyaniline, etc.) and ionic polymer-metal composites (IPMCs) are novel candidates for phantom electroactive platforms36–40. .. Inspired by Hunt et al.’s incorporation of coiled polymer actuators into a biomimetic harbor porpoise pectoral flipper, similar methodologies using Simpleware ScanIP data may be applied to further electroactive polymer biomimicry41. ..

Article Title: Scalable DICOM 3D-printed phantoms mimicking marine mammal bone and soft tissue
Article Snippet: Electroactive polymers (EAPs) such as polyvinyl chloride (PVC) gels, and hydrogels with additive conductors (carbon nanotubes, polyaniline, etc.) and ionic polymer-metal composites (IPMCs) are novel candidates for phantom electroactive platforms – . .. Inspired by Hunt et al.’s incorporation of coiled polymer actuators into a biomimetic harbor porpoise pectoral flipper, similar methodologies using Simpleware ScanIP data may be applied to further electroactive polymer biomimicry . ..

Software:

Article Title: Patient-Specific Lattice Implants for Segmental Femoral and Tibial Reconstruction (Part 2): CT-Based Personalization, Design Workflows and Validation-A Review.
Article Snippet: .. Year, Ref [n] Lattice UC (mm; X × Y × Z) T (mm) PS (μm) RD/ Porosity (%) SA/VR (mm−1) Gradient (Type) Gradient Driver Design Objective(s) CAD Software 2019, [69] Honeycomb scaffold (square/triangular pores) Scaffold block: 32 × 25.5 × 13.5 0.2032 1250 (square/triangular pores) ≈68–83 (designed layer blocks); ≈82 (femur middiaphysis scaffold) NR None (uniform porearchitecture per pattern) N/A Design ABS FDM scaffolds with controlled pore size and porosity to achieve cortical bone-like stiffness and strength in a femur mid-diaphysis segment; study influence of FDM process parameters on structural modulus and compressive strength CATIA and Insight (Stratasys Fortus 360mc) 2019, [2] Patient-specific truss-type titanium cage (additively manufactured) Anatomical cage spanning femoral segmental defect; truss microarchitecture not specified NR NR NR (highly porous cage intended for large-volume bone graft packing) NR None (no explicit porosity or stiffness gradient; geometry matched to defect) N/A Custom 3D-printed titanium cage used with the Masquelet technique to reconstruct massive segmental femoral defects, restore alignment/length, provide immediate mechanical stability, and create a contained space for large volumes of bone graft within an induced membrane Manufacturerspecific tools (exact CAD software NR) 2020, [9] TPMS gyroid (GP); hybrid: gyroid + cortical-like outer shell (GPRC) 0.81 (equivalent unit cell) 0.18–0.23 (outer shell); internal NR 430 (freemoving sphere) GP: 60; GPRC: 43 NR None (GP); morphology hybrid (shell and lattice) (GPRC) Rule-based (fixed shell; not CT-guided gradient) Fit 3 mm rat femoral defect; target pore for ingrowth (430 μm); add shell to boost handling/strength (HA) ScanIP (Simpleware, UK) 2020, [3] Grid mesh + solid-shell lattice (patient-specific) 10 × 10 with 1.5 mm thickness: surface mesh 1.5 NR NR NR None Rule-based (rounded angle mesh; patient-specific shell fit) Lightweight, reduce stress shielding, promote osseointegration, protect graft, minimize stress concentrations Creo Parametric v5.0 (PTC, Needham, MA, USA) 2021, [14] Strut (simple cubic infill; hollow REVs) NR (REV-based) ≥0.5(variable) NR Variable (derived; NR exact) NR RD/wall-thicknessgradient CT-guided HU-E E-match; SS-reduce; osseointegrationfriendly Mimics version 17 2021, [6] TPMS-gyroid(sheet) 3 × 3 × 3; 6 × 6 × 6 0.30; 0.60 739; 1076 CAD 70; μCT 62.8–70.8 NR None - Bone ingrowth; interface stability; pore-size effect; BMP2 carrier NR https://doi.org/10.3390/biomimetics11020145 Table 2. ..

Blocking Assay:

Article Title: Patient-Specific Lattice Implants for Segmental Femoral and Tibial Reconstruction (Part 2): CT-Based Personalization, Design Workflows and Validation-A Review.
Article Snippet: .. Year, Ref [n] Lattice UC (mm; X × Y × Z) T (mm) PS (μm) RD/ Porosity (%) SA/VR (mm−1) Gradient (Type) Gradient Driver Design Objective(s) CAD Software 2019, [69] Honeycomb scaffold (square/triangular pores) Scaffold block: 32 × 25.5 × 13.5 0.2032 1250 (square/triangular pores) ≈68–83 (designed layer blocks); ≈82 (femur middiaphysis scaffold) NR None (uniform porearchitecture per pattern) N/A Design ABS FDM scaffolds with controlled pore size and porosity to achieve cortical bone-like stiffness and strength in a femur mid-diaphysis segment; study influence of FDM process parameters on structural modulus and compressive strength CATIA and Insight (Stratasys Fortus 360mc) 2019, [2] Patient-specific truss-type titanium cage (additively manufactured) Anatomical cage spanning femoral segmental defect; truss microarchitecture not specified NR NR NR (highly porous cage intended for large-volume bone graft packing) NR None (no explicit porosity or stiffness gradient; geometry matched to defect) N/A Custom 3D-printed titanium cage used with the Masquelet technique to reconstruct massive segmental femoral defects, restore alignment/length, provide immediate mechanical stability, and create a contained space for large volumes of bone graft within an induced membrane Manufacturerspecific tools (exact CAD software NR) 2020, [9] TPMS gyroid (GP); hybrid: gyroid + cortical-like outer shell (GPRC) 0.81 (equivalent unit cell) 0.18–0.23 (outer shell); internal NR 430 (freemoving sphere) GP: 60; GPRC: 43 NR None (GP); morphology hybrid (shell and lattice) (GPRC) Rule-based (fixed shell; not CT-guided gradient) Fit 3 mm rat femoral defect; target pore for ingrowth (430 μm); add shell to boost handling/strength (HA) ScanIP (Simpleware, UK) 2020, [3] Grid mesh + solid-shell lattice (patient-specific) 10 × 10 with 1.5 mm thickness: surface mesh 1.5 NR NR NR None Rule-based (rounded angle mesh; patient-specific shell fit) Lightweight, reduce stress shielding, promote osseointegration, protect graft, minimize stress concentrations Creo Parametric v5.0 (PTC, Needham, MA, USA) 2021, [14] Strut (simple cubic infill; hollow REVs) NR (REV-based) ≥0.5(variable) NR Variable (derived; NR exact) NR RD/wall-thicknessgradient CT-guided HU-E E-match; SS-reduce; osseointegrationfriendly Mimics version 17 2021, [6] TPMS-gyroid(sheet) 3 × 3 × 3; 6 × 6 × 6 0.30; 0.60 739; 1076 CAD 70; μCT 62.8–70.8 NR None - Bone ingrowth; interface stability; pore-size effect; BMP2 carrier NR https://doi.org/10.3390/biomimetics11020145 Table 2. ..

Pore Size:

Article Title: Patient-Specific Lattice Implants for Segmental Femoral and Tibial Reconstruction (Part 2): CT-Based Personalization, Design Workflows and Validation-A Review.
Article Snippet: .. Year, Ref [n] Lattice UC (mm; X × Y × Z) T (mm) PS (μm) RD/ Porosity (%) SA/VR (mm−1) Gradient (Type) Gradient Driver Design Objective(s) CAD Software 2019, [69] Honeycomb scaffold (square/triangular pores) Scaffold block: 32 × 25.5 × 13.5 0.2032 1250 (square/triangular pores) ≈68–83 (designed layer blocks); ≈82 (femur middiaphysis scaffold) NR None (uniform porearchitecture per pattern) N/A Design ABS FDM scaffolds with controlled pore size and porosity to achieve cortical bone-like stiffness and strength in a femur mid-diaphysis segment; study influence of FDM process parameters on structural modulus and compressive strength CATIA and Insight (Stratasys Fortus 360mc) 2019, [2] Patient-specific truss-type titanium cage (additively manufactured) Anatomical cage spanning femoral segmental defect; truss microarchitecture not specified NR NR NR (highly porous cage intended for large-volume bone graft packing) NR None (no explicit porosity or stiffness gradient; geometry matched to defect) N/A Custom 3D-printed titanium cage used with the Masquelet technique to reconstruct massive segmental femoral defects, restore alignment/length, provide immediate mechanical stability, and create a contained space for large volumes of bone graft within an induced membrane Manufacturerspecific tools (exact CAD software NR) 2020, [9] TPMS gyroid (GP); hybrid: gyroid + cortical-like outer shell (GPRC) 0.81 (equivalent unit cell) 0.18–0.23 (outer shell); internal NR 430 (freemoving sphere) GP: 60; GPRC: 43 NR None (GP); morphology hybrid (shell and lattice) (GPRC) Rule-based (fixed shell; not CT-guided gradient) Fit 3 mm rat femoral defect; target pore for ingrowth (430 μm); add shell to boost handling/strength (HA) ScanIP (Simpleware, UK) 2020, [3] Grid mesh + solid-shell lattice (patient-specific) 10 × 10 with 1.5 mm thickness: surface mesh 1.5 NR NR NR None Rule-based (rounded angle mesh; patient-specific shell fit) Lightweight, reduce stress shielding, promote osseointegration, protect graft, minimize stress concentrations Creo Parametric v5.0 (PTC, Needham, MA, USA) 2021, [14] Strut (simple cubic infill; hollow REVs) NR (REV-based) ≥0.5(variable) NR Variable (derived; NR exact) NR RD/wall-thicknessgradient CT-guided HU-E E-match; SS-reduce; osseointegrationfriendly Mimics version 17 2021, [6] TPMS-gyroid(sheet) 3 × 3 × 3; 6 × 6 × 6 0.30; 0.60 739; 1076 CAD 70; μCT 62.8–70.8 NR None - Bone ingrowth; interface stability; pore-size effect; BMP2 carrier NR https://doi.org/10.3390/biomimetics11020145 Table 2. ..

Membrane:

Article Title: Patient-Specific Lattice Implants for Segmental Femoral and Tibial Reconstruction (Part 2): CT-Based Personalization, Design Workflows and Validation-A Review.
Article Snippet: .. Year, Ref [n] Lattice UC (mm; X × Y × Z) T (mm) PS (μm) RD/ Porosity (%) SA/VR (mm−1) Gradient (Type) Gradient Driver Design Objective(s) CAD Software 2019, [69] Honeycomb scaffold (square/triangular pores) Scaffold block: 32 × 25.5 × 13.5 0.2032 1250 (square/triangular pores) ≈68–83 (designed layer blocks); ≈82 (femur middiaphysis scaffold) NR None (uniform porearchitecture per pattern) N/A Design ABS FDM scaffolds with controlled pore size and porosity to achieve cortical bone-like stiffness and strength in a femur mid-diaphysis segment; study influence of FDM process parameters on structural modulus and compressive strength CATIA and Insight (Stratasys Fortus 360mc) 2019, [2] Patient-specific truss-type titanium cage (additively manufactured) Anatomical cage spanning femoral segmental defect; truss microarchitecture not specified NR NR NR (highly porous cage intended for large-volume bone graft packing) NR None (no explicit porosity or stiffness gradient; geometry matched to defect) N/A Custom 3D-printed titanium cage used with the Masquelet technique to reconstruct massive segmental femoral defects, restore alignment/length, provide immediate mechanical stability, and create a contained space for large volumes of bone graft within an induced membrane Manufacturerspecific tools (exact CAD software NR) 2020, [9] TPMS gyroid (GP); hybrid: gyroid + cortical-like outer shell (GPRC) 0.81 (equivalent unit cell) 0.18–0.23 (outer shell); internal NR 430 (freemoving sphere) GP: 60; GPRC: 43 NR None (GP); morphology hybrid (shell and lattice) (GPRC) Rule-based (fixed shell; not CT-guided gradient) Fit 3 mm rat femoral defect; target pore for ingrowth (430 μm); add shell to boost handling/strength (HA) ScanIP (Simpleware, UK) 2020, [3] Grid mesh + solid-shell lattice (patient-specific) 10 × 10 with 1.5 mm thickness: surface mesh 1.5 NR NR NR None Rule-based (rounded angle mesh; patient-specific shell fit) Lightweight, reduce stress shielding, promote osseointegration, protect graft, minimize stress concentrations Creo Parametric v5.0 (PTC, Needham, MA, USA) 2021, [14] Strut (simple cubic infill; hollow REVs) NR (REV-based) ≥0.5(variable) NR Variable (derived; NR exact) NR RD/wall-thicknessgradient CT-guided HU-E E-match; SS-reduce; osseointegrationfriendly Mimics version 17 2021, [6] TPMS-gyroid(sheet) 3 × 3 × 3; 6 × 6 × 6 0.30; 0.60 739; 1076 CAD 70; μCT 62.8–70.8 NR None - Bone ingrowth; interface stability; pore-size effect; BMP2 carrier NR https://doi.org/10.3390/biomimetics11020145 Table 2. ..

Derivative Assay:

Article Title: Patient-Specific Lattice Implants for Segmental Femoral and Tibial Reconstruction (Part 2): CT-Based Personalization, Design Workflows and Validation-A Review.
Article Snippet: .. Year, Ref [n] Lattice UC (mm; X × Y × Z) T (mm) PS (μm) RD/ Porosity (%) SA/VR (mm−1) Gradient (Type) Gradient Driver Design Objective(s) CAD Software 2019, [69] Honeycomb scaffold (square/triangular pores) Scaffold block: 32 × 25.5 × 13.5 0.2032 1250 (square/triangular pores) ≈68–83 (designed layer blocks); ≈82 (femur middiaphysis scaffold) NR None (uniform porearchitecture per pattern) N/A Design ABS FDM scaffolds with controlled pore size and porosity to achieve cortical bone-like stiffness and strength in a femur mid-diaphysis segment; study influence of FDM process parameters on structural modulus and compressive strength CATIA and Insight (Stratasys Fortus 360mc) 2019, [2] Patient-specific truss-type titanium cage (additively manufactured) Anatomical cage spanning femoral segmental defect; truss microarchitecture not specified NR NR NR (highly porous cage intended for large-volume bone graft packing) NR None (no explicit porosity or stiffness gradient; geometry matched to defect) N/A Custom 3D-printed titanium cage used with the Masquelet technique to reconstruct massive segmental femoral defects, restore alignment/length, provide immediate mechanical stability, and create a contained space for large volumes of bone graft within an induced membrane Manufacturerspecific tools (exact CAD software NR) 2020, [9] TPMS gyroid (GP); hybrid: gyroid + cortical-like outer shell (GPRC) 0.81 (equivalent unit cell) 0.18–0.23 (outer shell); internal NR 430 (freemoving sphere) GP: 60; GPRC: 43 NR None (GP); morphology hybrid (shell and lattice) (GPRC) Rule-based (fixed shell; not CT-guided gradient) Fit 3 mm rat femoral defect; target pore for ingrowth (430 μm); add shell to boost handling/strength (HA) ScanIP (Simpleware, UK) 2020, [3] Grid mesh + solid-shell lattice (patient-specific) 10 × 10 with 1.5 mm thickness: surface mesh 1.5 NR NR NR None Rule-based (rounded angle mesh; patient-specific shell fit) Lightweight, reduce stress shielding, promote osseointegration, protect graft, minimize stress concentrations Creo Parametric v5.0 (PTC, Needham, MA, USA) 2021, [14] Strut (simple cubic infill; hollow REVs) NR (REV-based) ≥0.5(variable) NR Variable (derived; NR exact) NR RD/wall-thicknessgradient CT-guided HU-E E-match; SS-reduce; osseointegrationfriendly Mimics version 17 2021, [6] TPMS-gyroid(sheet) 3 × 3 × 3; 6 × 6 × 6 0.30; 0.60 739; 1076 CAD 70; μCT 62.8–70.8 NR None - Bone ingrowth; interface stability; pore-size effect; BMP2 carrier NR https://doi.org/10.3390/biomimetics11020145 Table 2. ..

other:

Article Title: Impacts of mixing techniques and vacuum levels on the structural and mechanical properties of PMMA bone cement: A comparative study.
Article Snippet: The three-dimensional distribution of pores was visualised using Simpleware ScanIP, with representative examples from each test group shown in Figure 1.

Article Title: Impacts of mixing techniques and vacuum levels on the structural and mechanical properties of PMMA bone cement: A comparative study
Article Snippet: The three-dimensional distribution of pores was visualised using Simpleware ScanIP, with representative examples from each test group shown in .

Article Title: Scalable DICOM 3D-printed phantoms mimicking marine mammal bone and soft tissue.
Article Snippet: Estimated material volumes for each modeled tissue layer based on Simpleware ScanIP segmentation.



Similar Products

90
Simpleware Ltd image processing software synopsys simpleware scanip version n-2018.03
Image Processing Software Synopsys Simpleware Scanip Version N 2018.03, supplied by Simpleware Ltd, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/synopsys+simpleware+scanip+image+processing+software/synopsys+simpleware/10__1061_slash_jmcee7__mteng___16311-92-1-5
Average 90 stars, based on 1 article reviews
image processing software synopsys simpleware scanip version n-2018.03 - by Bioz Stars, 2026-09
90/100 stars
  Buy from Supplier

90
Simpleware Ltd synopsys simpleware scanip image processing software
Synopsys Simpleware Scanip Image Processing Software, supplied by Simpleware Ltd, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/synopsys+simpleware+scanip+image+processing+software/synopsys+simpleware/pmc09254431-41-1-2
Average 90 stars, based on 1 article reviews
synopsys simpleware scanip image processing software - by Bioz Stars, 2026-09
90/100 stars
  Buy from Supplier

90
Simpleware Ltd image processing software synopsys simpleware scanip n-2021.6-sp1
Image Processing Software Synopsys Simpleware Scanip N 2021.6 Sp1, supplied by Simpleware Ltd, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/synopsys+simpleware+scanip+image+processing+software/synopsys+simpleware/pmc09108088-99-16-17
Average 90 stars, based on 1 article reviews
image processing software synopsys simpleware scanip n-2021.6-sp1 - by Bioz Stars, 2026-09
90/100 stars
  Buy from Supplier

Image Search Results