ERD

Polymer-mediated microcontact printing: A method to fabricate patchy particles using low molecular-weight compounds as i...

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Imparting Biological Functions to Artificial Materials: From Active Membranes to SelfReplication

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Programmierbare Materialien: Von aktiven Membranen zu kolloidaler Selbstreplikation

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Incorporation of Biological Functions into Polymer Materials: The Use of Sugar- or Protein-Polymer Conjugates

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Microcontact Printing of Patchy Silica Particles using the LUMiFrac

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Imparting Biological Functions to Artificial Materials: From Active Membranes to Self-Replication

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Imparting Biological Functions to Artificial Materials: From Active Membranes to Self-Replications

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Incorporation of Biological Functions in Polymer Materials: The Use of Protein-Polymer-Conjugates

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Shaping Metallic Nanolattices: Design by Microcontact Printing from Wrinkled Stamps

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Programmable Soft Matter: From Active Membrane to Self-Replication

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Functional patchy microcolloids for electrostatically directed self-assembly

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Photoresponsive Materials Self-Assembled from Anisotropic Microparticles

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Programmable soft matter: From active membranes to self-replication

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Incorporation of Biological Functions into Polymer Materials: The Use of Protein-Polymer-Conjugates

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Mono-patchy zwitterionic microcolloids as building blocks for pH-controlled self-assembly

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Multifunctional Patchy Silica Particles via Micro Contact Printing (Poster)

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Characteristics of microcontact printing with polyelectrolyte ink for the precise preparation of patches on silica parti...

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Tailoring patches on particles: a modified microcontact printing routine using polymer-functionalised stamps

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Multifunctional patchy silica particles via microcontact printing

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Preparation and self-assembly behavior of anisotropic polymer patchy particles

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Zwitterionic patchy polymer microparticles for a controlled self-assembly

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Multifunctional Patchy Silica Particles via Micro Contact Printing

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Generation of anisotropic colloids via templated-assisted assembly and contact printing

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Functional polymer patchy microparticles

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Multifunctional Patchy Silica Particles via Microcontact Printing

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Multifunctional PatchySilica Particles via Micro Contact Printing

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Self‐Assembly Behavior of Oppositely Charged Inverse Bipatchy Microcolloids

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Multifunctional Patchy Silica Particles via MicroContact Printing

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Generation of 3-dimensional multi-patches on silica particles via printing with wrinkled stamps

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

From 2D to 3D patches on multifunctional particles: how microcontact printing creates a new dimension of functionality

Project: REPLICOLL

Updated at: 27-04-2024

Show more information

Project acronym REPLICOLL

Resources

Selected filters:

Polymer-mediated microcontact printing: A method to fabricate patchy particles using low molecular-weight compounds as i...

Imparting Biological Functions to Artificial Materials: From Active Membranes to SelfReplication

Programmierbare Materialien: Von aktiven Membranen zu kolloidaler Selbstreplikation

Incorporation of Biological Functions into Polymer Materials: The Use of Sugar- or Protein-Polymer Conjugates

Microcontact Printing of Patchy Silica Particles using the LUMiFrac

Imparting Biological Functions to Artificial Materials: From Active Membranes to Self-Replication

Imparting Biological Functions to Artificial Materials: From Active Membranes to Self-Replications

Incorporation of Biological Functions in Polymer Materials: The Use of Protein-Polymer-Conjugates

Shaping Metallic Nanolattices: Design by Microcontact Printing from Wrinkled Stamps

Programmable Soft Matter: From Active Membrane to Self-Replication

Functional patchy microcolloids for electrostatically directed self-assembly

Photoresponsive Materials Self-Assembled from Anisotropic Microparticles

Programmable soft matter: From active membranes to self-replication

Incorporation of Biological Functions into Polymer Materials: The Use of Protein-Polymer-Conjugates

Mono-patchy zwitterionic microcolloids as building blocks for pH-controlled self-assembly

Multifunctional Patchy Silica Particles via Micro Contact Printing (Poster)

Characteristics of microcontact printing with polyelectrolyte ink for the precise preparation of patches on silica parti...

Tailoring patches on particles: a modified microcontact printing routine using polymer-functionalised stamps

Multifunctional patchy silica particles via microcontact printing

Preparation and self-assembly behavior of anisotropic polymer patchy particles

Zwitterionic patchy polymer microparticles for a controlled self-assembly

Multifunctional Patchy Silica Particles via Micro Contact Printing

Generation of anisotropic colloids via templated-assisted assembly and contact printing

Functional polymer patchy microparticles

Multifunctional Patchy Silica Particles via Microcontact Printing

Multifunctional PatchySilica Particles via Micro Contact Printing

Self‐Assembly Behavior of Oppositely Charged Inverse Bipatchy Microcolloids

Multifunctional Patchy Silica Particles via MicroContact Printing

Generation of 3-dimensional multi-patches on silica particles via printing with wrinkled stamps

From 2D to 3D patches on multifunctional particles: how microcontact printing creates a new dimension of functionality