| 1 | José A. Ribeiro |
MIP-based Electrochemical Sensor for Detection of ANP Functionalized Nanoparticles |
| 2 | Rahil Radfar |
Development and systematic optimization of magnetic molecularly imprinted polymers for the detection of IL-6 |
| 3 | Shoei Sambongi |
Disposable MIP–Carbon Paste Electrochemical Sensor for Bedside Vancomycin Monitoring in Human Serum |
| 4 | Evan Johns |
Portable hybrid aptamer-MIP sensors for the electrochemical detection of per- and polyfluorinated substances |
| 5 | Ma Robellene Castillo |
Glyphosate Detection with Mass-sensitive sensors using Molecularly Imprinted Polymers: Polymerization Strategies and Application |
| 6 | Kristina Zagar Soderznik |
Electrochemical sensors for melamine detection in water |
| 7 | Batuhan Öztürk |
Advanced Molecularly Imprinted Polymers for Rapid and Selective Flurofenicol Detection |
| 8 | Barbara Boldrin |
A Direct Comparison of Antibody and nanoMIP Protein Binding Affinities using Surface Plasmon Resonance and Electrochemical Techniques: A Haemoglobin Model |
| 9 | Jekaterina Reut |
Electrochemical Cortisol Sensing via Molecularly Imprinted Electrodes with Intrinsic Redox Functionality |
| 10 | Mia Gili |
Electrochemical Detection of Interleukin‑6 Using a Prussian Blue–Based Molecularly Imprinted Interface |
| 11 | YU UKAI |
Digitally Controlled Robot for Coating of MIP–Carbon Paste onto Screen-Printed Electrode |
| 12 | Sania Bäckström |
Synthetic antibodies targeting Prostate Specific Membrane Antigen for ex vivo imaging of prostate cancer cells |
| 13 | Momina Islam |
Development and Electrochemical Evaluation of Insulin-Imprinted Polypyrrole Nanoparticles |
| 14 | Placid Santina |
Epitope detection by an electrochemical sensor |
| 15 | Stuart Everson |
Modelling the effect of chitosan with a quaternary ammonia group as the functional monomer on the strength of template:monomer interactions for imprinting with PFAS |
| 16 | Muhammad Ibrar Asif |
A RAFT polymerization for MIP-based dual-mode optical sensor |
| 17 | Davide Sestaioni |
Ultrafast Synthesis of PolySerotonin based Molecularly Imprinted Polymer for superior biosensing |
| 18 | Claudio Baggiani |
Islands in a Sea of Monomers: a Multivariate Analysis of Molecular Diversity in Functional Monomers |
| 19 | Nizreen Nizam |
Hierarchically Imprinted Nanostructures Based upon Plant-derived Monomers –Enhancement of MIP-based Sensor Performance and for Improved Hemocompatibility |
| 20 | Aya Mohamed |
Engineering Thermo-Switchable Fluorescent Ce-MOF@MIP Platforms for High-Capacity Binding and Sensitive Determination of Pepsin |
| 21 | Maryam Arabi |
Fabrication of imprinted nanocavities via single microdroplet imprinting for extracellular vesicles recognition |
| 22 | Jaime Rodolfo III Garcia |
Production and Application of MIP Probes for Mannan Recognition |
| 23 | Shota Kusano |
Hill-Type Cooperative Size Response of Vancomycin-Imprinted Polymer Nanoparticles |
| 24 | Siluni Gunathilake |
Fluorescent ion-imprinted polymer coated optical fibre sensors for highly selective metal ion detection |
| 25 | Farah Ibrahim |
SMART ION-IMPRINTED POLYMERS FOR CADMIUM(II) ION MONITORING |
| 26 | Alberto Gómez-caballero |
CONTROLLED SYNTHESIS OF ANTI-SPIKE MOLECULARLY IMPRINTED NANOPARTICLES AS RECOGNITION ELEMENTS FOR PROTEIN SENSING AND (PSEUDO)IMMUNOPRECIPITATION |
| 27 | Andreea Bodoki |
Trace water as a microenvironmental determinant in mechanochemical molecular imprinting |
| 28 | Tiziano Di Giulio |
Electrochemical sensing of cardiac troponin T by molecularly imprinted nanogels |
| 29 | Saweta Garg |
Non-Enzymatic and Label Free Detection of Creatinine via Electroactive Molecularly Imprinted Polymers (eMIPs) |
| 30 | Every Esgardt |
Synthesis of Molecularly Imprinted Polymers (MIPs) for the Detection of C-Reactive Protein |
| 31 | Onur Arda Sevinc |
Development of a Molecularly Imprinted Polymer for Aripiprazole |
| 32 | Simone Ventisette |
Modular MIPNE Platforms for High Performance Antibody Free Protein Recognition |
| 33 | Marcos Vinicius Foguel |
Simultaneous Detection of Furosemide and Hydrochlorothiazide Using a MIP-Based Electrochemical Sensor and Multivariate Analysis |
| 34 | Prachi Garade |
Rational epitope imprinting of GDF-15 for electrochemical sensing |
| 35 | Pankaj Singla |
Smart Electroactive Molecularly Imprinted Nanoparticles Enable Sensitive Electrochemical Detection of Penicillin G in Food |
| 36 | Claudio Baggiani |
GelMA as Macromonomer in Solid Phase Synthesis of nanoMIPs |
| 37 | Xinlu Liu |
Electrochemical Molecularly Imprinted Polymers for Levodopa Sensing: A Step Toward Improved Monitoring |
| 38 | Abdelhafid Karrat |
Molecularly Imprinted Polymer-Integrated Paper-Based Analytical Device for Lactate Detection in Orthopedic Infection Diagnosis |
| 39 | Veronika Borggraefe |
Analytical Process Optimisation for Affinity Characterisation of VEGF-Targeted Molecularly Imprinted Nanogels |
| 40 | Philiswa Nomngongo |
Magnetic beta cyclodextrin molecularly imprinted polymer for selective extraction of perfluorooctanoic acid from water |
| 41 | Madara Dias Wickramanayaka |
Innovative targeted therapy to HER3 for drug delivery against breast cancer cells |
| 1 | Nuran Gokdere |
A Novel Mn-Doped ZnS QDs-Based Fluorescent Molecularly Imprinted Sensor for Rufinamide Analysis in Serum |
| 2 | Shreya Tiwari |
Double-Imprinted nanoMIPs for Targeted Drug Delivery in NSCLC |
| 3 | Paula Mantovani dos Santos |
PRECONCENTRATION AND CLEAN-UP OF SARCOSINE USING MOLECULARLY IMPRINTED POLYMER AND FLUORIMETRIC DETECTION: A SENSITIVE STRATEGY FOR PROSTATE CANCER MONITORING |
| 4 | Simonas Ramanavicius |
The Formation of Molecularly Imprinted Polymers and Application in Bioanalytical Systems |
| 5 | Riccardo Rovida |
Towards an electronic differential sensor based on Molecularly Imprinted Polymers and TMOS technology for PFAS detection |
| 6 | Abdelhafid Karrat |
Reduction of Non-Specific Binding in Molecularly Imprinted Polymers via Covalent Surface Functionalization |
| 7 | Alejandro Guzman Landero |
Development of Molecularly Imprinted Polymers as an Indirect Sensing Approach for Spore-Forming Bacteria Detection |
| 8 | Andrea Weiß |
Molecularly imprinted nanoparticle conjugates for real-time pathogen sensing |
| 9 | Shilpa Chatterjee |
Engineering MIP nanotubes for ultrasensitive antibody-free QCM detection of small cell lung cancer biomarkers |
| 10 | Rebecca Setford |
Nanoplasmonic MIP sensors for TCA detection in whisky |
| 11 | Giulia Siciliano |
Highly Sensitive CNTs-modified MIP-based Electrochemical Sensor for Selective Cyromazine Detection |
| 12 | Aysu Yarman |
Electrochemical MIP-Based Sensing: From Biomarker Detection to Probing Conformational Changes |
| 13 | Carolina Sotelo Guzman |
Dopamine-Based Molecularly Imprinted Polymer (MIP) on Laser-Induced Graphene for Selective Estrogen Sensing |
| 14 | Zahra Ahrestani |
Isopropyl myristate sensing with moleculary imprinted polymer (MIPs) |
| 15 | Dominika Rapacz-Kinas |
pH-sensitive MIPs selective towards S-metolachlor |
| 16 | Andrei Stephen |
NanoMIPs as a Rapid and Cost-effective Antibody Replacement Technology |
| 17 | Semra Akgonullu |
Micro-contact surface imprinting plasmonic biosensors for selective detection of the egg allergen ovalbumin |
| 18 | Anjana Ramesh Peringath |
Aerosol Jet-Printed Molecularly Imprinted Polymer for Sweat-Based Biomarker Detection |
| 19 | Nikita Vyawahare |
Smartphone-Assisted Selective Detection of Glucose and Sialic Acid Using a Template-Specific Fluorescent Molecularly Imprinted Polymer |
| 20 | Stefano De Razza |
Optical Fiber-Based Molecularly Imprinted Polymer Sensors for the Detection of Acute Kidney Injury Biomarkers Quinolinic Acid and Tryptophan |
| 21 | Julia Sturzenegger |
On the trail of mycotoxins: solid phase synthesis strategies and gravimetric detection of deoxynivalenol |
| 22 | Vega-fernandez Maria Del Rosario |
Molecularly imprinted polymer-based optical biosensing of prognostic and diagnostic biomarkers of acute kidney injury |
| 23 | Muhammad Aqib Khurshid |
Development of a nanoMIPs-based plasmonic sensor for the detection of acetamiprid in honey |
| 24 | Salahdin Khelifi-Otmane |
Detection of metastatic breast cancer cells using molecularly imprinted polymers |
| 25 | Almira Ramanaviciene |
Molecularly Imprinted Polypyrrole-based Electrochemical Sensor for the Determination of SARS-CoV-2 Proteins |
| 26 | Kontad Ounnunkad |
Molecular Imprinting of Polyaniline on Disposable Graphene Sensors for Sensitive Dopamine Detection |
| 27 | Yadiris Garcia |
Molecularly Imprinted Polymers Nanoparticles for Amoxicillin Degradation |
| 28 | Eliska Birgusová |
Effect of Functional Monomers on the Electrochemical Impedance Response of Estradiol-Imprinted Polymers |
| 29 | Anna Smidova |
Template-Dependent Recognition of Thymol-Related Terpenoids |
| 30 | Gözde Baydemir |
Real-Time Detection of Propamocarb by a Molecularly Imprinted Thin Layer QCM Sensor: A One Health Approach |
| 31 | Dominika Przybylska |
Detection of specific analytes using NaYF4:Yb3+, Er3+ @NaYF4 coated by molecularly imprinted polymers |
| 32 | Lucia Diez-Caballero |
Photoiniferter RAFT-Based Peptide-Induced Linear Polymers as Synthetic Antibody Mimics for Immunofluorescence Imaging Techniques |
| 33 | Tongqing Zou |
Sialic Acid-Imprinted NIR-II Theranostic Nanoprobe for Targeted Breast Cancer Imaging and Photothermal Therapy |
| 34 | Sevinc Kurbanoglu |
Smartphone-Integrated Bimetallic Au@Cu Nanomaterial Modified Hybrid Aptamer-MIP Sensor Strategy for Ultra-Sensitive Detection of Diazinon |
| 35 | Viola Horváth |
Fluorescence anisotropy measurement, a new separation-free tool for the characterization of molecularly imprinted polymer nanoparticles |
| 36 | João Barbosa |
Microfabricated MIP-based Electrochemical Sensor for Lactate Detection |
| 37 | Valentina Testa |
NanoMIPs take the pseudo-ELISA Challenge: the case of adenosine |
| 38 | Charles Hutchinson |
Bio-mimics as Synthetic Competitor to mAbs |
| 39 | Abbas Ostovan |
Label-free SERS detection mechanisms to supress nonspecific recognition of MIPs |
| 40 | Alexandra Beard |
Exploring PFAS detection with Molecular Imprinted Polymers |
| 41 | Zhengqi Liang |
MIP Based Detection of L-Phenylalanine for Portable Monitoring of Cardiovascular Health |
| 42 | Marco Costa |
NanoMIP-modified CNT/Pt electrodes for sensitive in-situ electrochemical monitoring of PFOA |
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