Wishes for a Happy New Year!
For those new-comers amongst us, please find below the pertinent review of all-news related happenings in our beloved 3DCP Industry.
From my side, may 2022 bring forth only Joy, Happiness, Love (including quality Family time) and ofcourse, 3D Construction Printing successes! π
Kind regards,
Nikos
News clippings (hyperlinks sorted by thematic category -or at least as close to π)
- General/public interest:
- βWhat Were the 3D Printing Trends in 2021?β (link)
- βGradations of Recycled Glass to Replace River Sand in 3D-Printed Concreteβ (link)
- βSmart Cities: Paradise or Punishment?β (link)
- βFuture Buildings Could Be Made From 3D Printed Microbesβ (link)
- βPrint your home, itβs faster and cheaperβ (link)
- βPurdue researchers test 3D concrete printing system as part of NSF-funded projectβ (link)
- βHOW 3D PRINTING TECHNOLOGY CHANGES THE NEED FOR TRAVELβ (link)
- βEngineers Use 3D Printing to Speed Up Coral Reef Recoveryβ (link)
- βINDONESIA TARGETING CONCRETE 3D PRINTED SCHOOLS AFTER CONDUCTING INITIAL TRIALS OF THE TECHNOLOGYβ (link)
- βBouligand Structure of Mantis Shrimp Inspires 3D Printing of Concreteβ (link)
- βUNIVERSITY OF SYDNEY TO PARTNER WITH GE ADDITIVE ON R&D AT NEW $25M βFACTORY OF THE FUTUREββ (link)
- β(Not) just another print of a wallβ (link)
- βVon Perry is to Build the First 3D-Printed House in DFWβ (link)
- βUncertainty Makes Insuring 3D-Printed Construction Trickyβ (link)
- βThe most innovative 3D printing companies in 2021β (link)
- βRESEARCHERS USE RECYCLED GLASS TO DEVELOP NEW ECO-FRIENDLY 3D PRINTABLE CONCRETEβ (link)
- βUsing 3D printed sand, these structures become stronger than concreteβ (link)
- β3D Printable βEco-concreteβ Lends Affordability to Housingβ (link)
- βPUPR Ministry starts trial of indigenous 3D Concrete Printing techβ (link)
- βFirst 3D Printed residential home in Canada to be built in Leamington, Ont.β (link)
- β3-D printed homes to house youth in need in Leamingtonβ (link)
- β3D Printed Concrete House Coming to Dallasβ (link)
- βIowa State University gets $1.4 million to buy 3D concrete printer for low-cost homebuildingβ (link)
- βDesign for Disruption: 3D Printing Design for Ruinsβ (link)
- βInstead of concrete, 3D printers thread houses with clayβ (link)
- βCity of Medford looks over proposed 3D constructed neighborhoodβ (link) (youtube)
- βDoes 3D Printed Architecture Have Real Potential? We Talk With an Architect About His Experience Designing and Building a 3D Printed Houseβ (link)
- βHabitat for Humanity to Celebrate the Completion of 3D Printed Houseβ (link)
- βNew ISU project will design 3D-printed housing for rural Iowaβ (link)
- βFirst 3D-printed, owner-occupied home in US to be unveiledβ (link)
- βImerys : Minerals help speed up 3D Construction Printing processβ (link)
- βDiorβs new concept store was 3D printed in 120 hours β Future Blinkβ (link) (youtube)
- β3D printed homes making Redding debut arenβt βconcrete bunkersββ (link)
- βCompanies turn to 3D printing tech to construct housesβ (link)
- βSWEDISH ARCHITECTS USE 3D PRINTING TECHNOLOGY TO DEVELOP NOVEL βMERISTEM WALLββ (link)
- β3D-printed homes: Gimmick or affordable-housing solution?β (link)
- βExploring extreme design with 3D printingβ (link)
- βEfficiency β Spray Foam Magazine β Winter 2021β (link)
- βVenice footbridge, Dubai concept store created using 3D printing technologyβ (link)
- β3D printed house takes shape in rural Chinaβ (link) (link) (link) (link)
- βThe Advantages of Additively Manufacturing Printing Concreteβ (link)
- βHow 3D Houses Are Changing the Housing Industryβ (link)
- Space:
- βSpaceX 3D prints building extension at Texas Starbase β Construction 3D printing youtube Jarrett Gross first to break storyβ (link) π
- βAustralian start-up and university partnering to 3D print structures on the moonβ (link)
- βAustralian 3D Printing Company Wants to Build Houses on the Moonβ (link)
- βHow 3D Printers Are Helping The Homeless And Astronautsβ (link)
- βUNSW TO HELP LUYTEN RAMP UP THE R&D OF βPLATYPUS GALACTICASβ LUNAR 3D PRINTERβ (link)
- βProject Meeka: Developing Tech for 3D Printing Moon Habitatsβ (link)
- Start-ups:
- βWhat Are the 3D Printing Startups to Know in 2021?β (link)
- βIIT-M startup Tvasta: Indiaβs first 3D-printed houseβ (link)
- βStartups Building 3D Printed Homes Aim for Large-Scale Successβ (link)
- βThis Dallas startup wants to 3D-print your new homeβ (link)
- βDallas Startup Von Perry Is Building a 3D-Printed Home in Collin Countyβ (link)
- β3Lines leads investment in MiCoB, the future of construction industryβ (link)
- Foam-related:
- βETH ZURICH CUTS CONCRETE USAGE BY 70% USING FOAM 3D PRINTING TECHNOLOGYβ (link) (youtube)
- βETH zurich uses foam 3D printing to produce intricate recyclable formwork in concrete castingβ (link)
- βFoam 3D printing technique could minimize concrete is used in constructionβ (link) (link)
- βCONCRETE WITH 3D PRINTED FOAM FORMSβ (link)
- 14Trees:
- βMvule Gardens, Africaβs largest 3D printed affordable housing projectβ (link)
- β14TREES TO BUILD LARGEST 3D PRINTED AFFORDABLE HOUSING PROJECT IN KENYAβ (link)
- β14Trees and CDC Group build 52-house 3D-printed housing development in Kilifi countyβ (link)
- βKenya to construct Africaβs largest 3D-printed affordable housing projectβ (link)
- βHOLCIM DELIVERS AFRICAβS LARGEST 3D-PRINTED AFFORDABLE HOUSING PROJECTβ (link)
- Black Buffalo:
- β3D printing specialist plans Pennsylvania parcel for equipment, R&D hubβ (link)
- βBlack Buffalo 3D Wants to Reduce Constructionβs Carbon Footprint Using 3D Printingβ (link)
- βBlack Buffalo 3D collaborates to develop Plant-based 3D Construction Inkβ (link)
- βBlack Buffalo 3D Buys 106 Acres in Pennsylvania for 3D Construction Printer Factory, 3D Printed Affordable Housing and Modular Showcaseβ (link)
- COBOD:
- βCemex and Cobod International launch D.fab admixtures for 3D concrete printingβ (link)
- βCEMEX and COBOD introduce 3D printing technologyβ (link)
- βMexicoβs Cemex, Denmarkβs Cobod Team Up to Expand Homebuilding With 3D Printersβ (link)
- βCould Denmark-based 3D home printing firm βput Redding on the map?β (link)
- βCEMEX B de C : With new 3D printing technology, CEMEX and COBOD build a better futureβ (link)
- βD.fab promises 90% cost reduction in concrete 3D printing materialsβ (link)
- βHolcim and COBOD Build First 3D Printed House in Kenyaβ (link)
- βWorldβs largest real concrete building 3D printed by GUtech universityβ (link)
- βOman builds worldβs largest 3D printed real concrete buildingβ (link)
- Cybe:
- β3D-printed βgreenβ villa in Sharjah cuts building and maintenance costsβ (link)
- ICON:
- βTexas will soon get an entire neighbourhood of 3D-printed housesβ (link)
- βWant to live in a house made by a printer? It could be the futureβ (link)
- βWorldβs Largest 3D-Printed Neighborhood Set to Break Ground in Austin Next Yearβ (link)
- βTexas company leading 3D home printing innovationβ (link)
- Twente Additive Manufacturing (TAM):
- β3D printed houses are hereβ (link)
- Vertico:
- βMAI International partners with Vertico on construction 3D printersβ (link)
- WASP:
Scientific papers:
- βEvaluation and Correlation Study on Work Performance of 3D-Printed Concreteβ (link)
- βInvestigation of the material mixtures and fiber addition for 3D concrete printingβ (link)
- βDiscrete Fresh Concrete Model for Simulation of Ordinary, Self-Consolidating, and Printable Concrete Flowβ (link)
- βA Preliminary Study on the Mix Design of 3D-Printable Engineered Cementitious Compositeβ (link)
- β3D-printed concrete with recycled glass: Effect of glass gradation on flexural strength and microstructureβ (link)
- βMathematical morphology-based point cloud analysis techniques for geometry assessment of 3D printed concrete elementsβ (link)
- βRole of chemical admixtures on 3D printed Portland cement: Assessing rheology and buildabilityβ (link)
- βInfluence of substrate surface roughness and moisture content on tensile adhesion performance of 3D printable concreteβ (link)
- βEffect of drying environment on mechanical properties, internal RH and pore structure of 3D printed concreteβ (link)
- βDynamic characterization of the layer-interface properties of 3D-printed concrete elementsβ (link)
- βAnalysis of the mechanical performance and damage mechanism for 3D printed concrete based on pore structureβ (link)
- βStudy on Main Parameters Affecting 3D Printing Performance of Clayβ (link)
- βConstructive design of double curved shells for 3D concrete printingβ (link)
- βNew technology in 3D Concrete Printing by Using Ground Granulated Blast-Furnace Slag: A Reviewβ (link)
- βA Study on the Analysis of the Trend of installations Using 3D Printing Techniqueβ (link)
- βExperimental Study on Increase of Bonding Strength of FRP Reinforcement in Concreteβ (link)
- βPhysical modelling of reinforced concrete at a 1:40 scale using additively manufactured reinforcement cagesβ (link)
- βA comprehensive review of emerging additive manufacturing (3D printing technology): Methods, materials, applications, challenges, trends and future potentialβ (link)
- βAn efficient computational framework for generating realistic 3D mesoscale concrete models using micro X-ray computed tomography images and dynamic physics engineβ (link)
- βOn programming of polyvinylidene fluorideβlimestone composite for four-dimensional printing applications in heritage structuresβ (link)
- βMachine Learning-Evolutionary Algorithm Enabled Design for 4D-Printed Active Composite Structuresβ (link)
- βProjections for Lunar Culture, Living, and Working: How Will We Be Different?β (link)
- βEvaluating the Effect of 3D Printing Technologies on Innovation and Entrepreneurship: A Practical Case Studyβ (link)
- βDevelopment of Productivity Analysis Simulation Model for Formwork Based on 3D Printing Technology Using ARENAβ (link)
- βThe relative impact of isomorphic pressures on the adoption of radical technology: Evidence from 3D printingβ (link)
- βFrom materials to components: 3D-printed architected honeycombs toward high-performance and tunable electromagnetic interference shieldingβ (link)
- βDigitisation of contemporary fabrication processes in the AEC sectorβ (link)
- βInfluence of kenaf stalk on printability and performance of 3D printed industrial tailings based geopolymerβ (link)
- βDesign and Implementation of 3D Printing Using a Universal Printing System on the Robot Arm UR5β (link)
- βPVA fibre reinforced high-strength cementitious composite for 3D printing: Mechanical properties and durabilityβ (link)
- β3D printing nanocomposites with controllable βstrength-toughnessβ transition: Modification of SiO2 and construction of Stereocomplex Crystallitesβ (link)
- βStrain-hardening fiber reinforced polymer concrete with a low carbon footprintβ (link)
- βFabrication Information Modeling: Closing the gap between Building Information Modeling and Digital Fabricationβ (link)
- βA novel internal curing method for 3D-printed geopolymer structures reinforced with a steel cable: Electro-heatingβ (link)
- β3D Printing Deformation Estimation Using Artificial Vision Strategies for Smart-Constructionβ (link)
- βCross-linking of biopolymers for stabilizing earthen construction materialsβ (link)
- β3D concrete printing of bioinspired Bouligand structure: A study on impact resistanceβ (link)
- βChloride Diffusion by Build Orientation of Cementitious Material-Based Binder Jetting 3D Printing Mortarβ (link)
- βDronology and 3D Printing as a Catalyst for International Trade in Industry 4.0.β (link)
- βBASIC PRINCIPLES OF 3D CONCRETE PRINTING IN THE LIGHT OF SUSTAINABLE DEVELOPMENTβ (link)
- βEffect of alternating current field on rheology of fresh cement-based pastesβ (link)
- βBonding Strength Analysis of Multi-material and Multi-color Specimens Printed with Multi-extrusion Printerβ (link)
- βBamboo-inspired, simulation-guided design and 3D printing of light-weight and high-strength mechanical metamaterialsβ (link)
- βRole of Metal 3D Printing to Increase Quality and Resource-efficiency in the Construction Sectorβ (link)
- βBond shear performances and constitutive model of interfaces between vertical and horizontal filaments of 3D printed concreteβ (link)
- βPerformance of concrete beam reinforced with 3D printed Bioinspired primitive scaffold subjected to three-point bendingβ (link)
- βHigh toughness 3D printed white Portland cement-based materials with glass fiber textileβ (link)
- βThe relationship between the rheological behavior and interlayer bonding properties of 3D printing cementitious materials with the addition of attapulgiteβ (link)
- β3D printing as an automated manufacturing method for a carbon fiber-reinforced cementitious composite with outstanding flexural strength (105 N/mm2)β (link)
- βDifferential Property Prediction: A Machine Learning Approach to Experimental Design in Advanced Manufacturingβ (link)
- βDIGITAL TRANSFORMATION IN THE CONSTRUCTION INDUSTRYβ (link)
- βBuilding sympathy: Waiting-with digital fabrication machines as a form of architectural laborβ (link)
- βAdvances and current trends on the use of 3D printed concrete for building fabricationβ (link)
- β3D-Printed Mortars with Combined Steel and Polypropylene Fibersβ (link)
- βA NOVEL KNOWLEDGE-BASED TOOLPATH CONSTRUCTIVE APPROACH FOR DESIGNING HIGH-PRECISION GRADED LATTICE STRUCTURESβ (link)
- βNumerical Predictions of Bottom Layer Stability in Material Extrusion Additive Manufacturingβ (link)
- βMaterial Characterization of Diversity Aggregated Cementitious Materials Produced with a Modular Lightweight Additive Manufacturing Extrusion Systemβ (link)
- βSimultaneous design of topology and printing direction of structural elements for Wire-and-Arc Additive Manufacturing (WAAM)β (link)
- βOn 3D printing of electro-active PVDF-Graphene and Mn-doped ZnO nanoparticle-based composite as a self-healing repair solution for heritage structuresβ (link)
- βEffect of Particle Size and Shape on Wall Slip of Highly Filled Powder Feedstocks for Material Extrusion and Powder Injection Moldingβ (link)
- βEffect of reinforcement configurations on the flexural behaviors of 3D printed fiber reinforced cementitious composite (FRCC) beamsβ (link)
- βReal-time toolpath planning and extrusion control (RTPEC) method for variable-width 3D concrete printingβ (link)
- βAssessment of materials, design parameters and some properties of 3D printing concrete mixtures; a state-of-the-art reviewβ (link)
- βInvestigation on applicability of spherical electric arc furnace slag as fine aggregate in superplasticizer-free 3D printed concreteβ (link)
- βRheology and microstructure development of hydrating tricalcium silicate β implications for additive manufacturing in constructionβ (link)
- βFlow Characterization of Three-Dimensional Printable Cementitious Pastes during Extrusion Using Capillary Rheometryβ (link)
- βExtrusion-Based Three-Dimensional Printing Performance of Alkali-Activated Bindersβ (link)
- βCase Study: Measuring Flow and Setting Time for Three-Dimensionally Printed Mortarβ (link)
- βFeasibility of 3D printing to fill in-situ cracks in asphalt concretesβ (link)
- βA process optimization of additive layer manufacturing processes for the production of polymer composite-based componentsβ (link)
- βTransformative Vision Assessment and 3-D Printing Futures: A New Approach of Technology Assessment to Address Grand Societal Challengesβ (link)
- βUnderstanding the role and capabilities of Internet of Things-enabled Additive Manufacturing through its applicationsβ (link)
- βEffect of High-Pressure Hot Airflow On Interlayer Adhesion Strength of 3D Printed Partsβ (link)
- βStructural behavior of 3D-printed sandwich beams with strut-based lattice core: Experimental and numerical studyβ (link)
- βA novel bond stress-slip model for 3-D printed concretesβ (link)
- βEvaluation of Model 3D Printer and Design Mix for 3D Concrete Printingβ (link)
- βInvestigation of influence of printing parameters on the quality of 3D printed composite structuresβ (link)
- βEffect of directionally distributed steel fiber on static and dynamic properties of 3D printed cementitious compositeβ (link)
- βANALYSIS OF MECHANICAL PERFORMANCES OF CYLINDER IN 3D CONCRETE PRINTING PROCESSESβ (link)
- βNovel tri-viscous model to simulate pumping of flowable concrete through characterization of lubrication layer and plug zonesβ (link)
- βExperimental and numerical analysis of the bending behavior of 3D printed modified auxetic sandwich structuresβ (link)
- β3D concrete printing for sustainable and economical construction: A comparative studyβ (link)
- βInvestigation on applicability of spherical electric arc furnace slag as fine aggregate in superplasticizer-free 3D printed concreteβ (link)
- βThree-Dimensional Printing of Reinforced Concrete and Nozzle Thereforβ (link)
- βEvaluating the Environmental Performance of 3D Printed Shelters in Jordanβ (link)
- βFatigue behaviour and abrasion resistance of prefabricated pavement textures assisted with 3d printing technologyβ (link)
- βFatigue behavior and abrasion resistance of prefabricated pavement textures assisted with 3D printing technologyβ (link)
- βMagneto-rheology control in 3D concrete printing: A rheological attemptβ (link)
- βStructural efficiency of varying-thickness regolith-based lunar arches against inertial loadingβ (link)
- βRecent review on synthesis, evaluation, and SWOT analysis of nanostructured cellulose in construction applicationsβ (link)
- β4D PRINTING OF TEMPERATURE DRIVEN SMART COMPOSITE MATERIALS FOR SPACE APPLICATIONβ (link)
- βTowards fully BIM-enabled building automation and robotics: A perspective of lifecycle information flowβ (link)
- βFoam stability of 3D printable foamed concreteβ (link)
- βThe Influence of Polypropylene Fiber on the Working Performance and Mechanical Anisotropy of 3D Printing Concreteβ (link)
- βIndustrial Revolution 4.0 in the Construction Industry: Challenges and Opportunitiesβ (link)
- βA Basic Study on the Manufacture of UHPC 3D stereoscopic panels using 3D Printerβ (link)
- βEvaluation on Hydrophobicity of the Surface of Hardened Cement Paste Produced by PDMS Moldβ (link)
- βAdditive Manufacturing Materialsβ (link)
- βDevelopment of rapid set mortar for additive manufacturingβ (link)
- βStress distributions in the textures of prefabricated pavement surface created with the assistance of 3D printing technologyβ (link)
- βOne-Pot 3D Printing of Robust Multimaterial Devicesβ (link)
- βMica filled polyetherketoneketones for material extrusion 3D printingβ (link)
- βInvestigation of the Structural and Thermal Behaviour of 3D Printed Concrete Wallsβ (link)
- βA practical model to predict the flow of water-powder mixes and its application to mix design of cementitious blendsβ (link)
- βDevelopment of rapid set mortar for additive manufacturingβ (link)
American Concrete Institute:
- βRheological Response of Magnetorheological Cementitious Inks Tuned for Active Control in Digital Constructionβ (link)
- βCharacterization of Tensile Behavior of Fresh Cementitious Materialsβ (link)
- βRheological Characterization of Three-Dimensional-Printed Polymer Concreteβ (link)
- βUse of Nanoclays and Methylcellulose to Tailor Rheology for Three-Dimensional Concrete Printingβ (link)
- βEffect of Red Mud, Nanoclay, and Natural Fiber on Fresh and Rheological Properties of Three-Dimensional Concrete Printingβ (link)
- βThree-Dimensional (3D)-Printed Wood-Starch Composite as Support Material for 3D Concrete Printingβ (link)
- βOptimizing Three-Dimensional Printing Binder Composed of Ordinary Portland Cement and Calcium Sulfoaluminate Cement with Retardersβ (link)
- βControlling Three-Dimensional-Printable Concrete with Vibrationβ (link)
- βCitric Acid Influence on Sprayable Calcium Sulfoaluminate Cement-Engineered Cementitious Compositesβ Fresh/ Hardened Propertiesβ (link)
- βLimestone Calcined Clay Cement for Three-Dimensional- Printed Engineered Cementitious Compositesβ (link)
- βComputational Investigation of Concrete Pipe Flow: Critical Reviewβ (link)
- βEffect of Particle Contact and High-Range Water-Reducing Admixture Adsorption on Rheology of Cement Pasteβ (link)
- βFlow Characterization of Three-Dimensional Printable Cementitious Pastes during Extrusion Using Capillary Rheometryβ (link)
- βDetermining Printable Zone of Three-Dimensional-Printable Mortar Using Flow Table Testsβ (link)
- βNanotechnology for Improved Three-Dimensional Concrete Printing Constructabilityβ (link)
Books:
- βAdditive Manufacturing and 3D Printing Technology β Principles and Applicationsβ By G.K. Awari, C.S. Thorat, Vishwjeet Ambade, D.P. Kothari (link)
Doctorate Thesis:
- βINNOVATION IN CONCRETE STRUCTURES AND CEMENTITIOUS MATERIALS β 2020β (link)
- βCOMPUTATIONAL AND EMPIRICAL MODELING OF ADDITIVE MANUFACTURING PROCESSESβ (link) -by a fellow Greek Researcher, well done π
MSc Theses:
- βConstruction Techniques for Lowering Embodied GHGs: A Review of Prefabrication and 3D Printed Concrete Mix Designsβ (link)
- β3D printing of bio-inspired, multimaterial structures to enhance stiffness and toughnessβ (link)
- βDevelopment of the Russian construction industry in the context of transition to a digital economyβ (link)
P.S. #1:
This article (ssh! secret/not included above π) is especially dedicated to Iakovos Giorgkensenis, mech tech God from the Northern Greeks (once hyggelig, always hyggelig <3)
P.S. #2: (disclaimer :D)
For those amongst us Brave enought (:-D) to reach the end of this post, please be advised: depending on the relevant partiesβ feedback and receipt of this blog post series, from 2022 we might be shifting to a more βfocus on one article/newsclipping at a timeβ approachβ¦ Any/all suggestions welcome π Another thought is to focus on one 3DCP Company at a timeβ¦. Only Time will tell; New Year hastily approaching π