Innovation & Science

CUROLOX® TECHNOLOGY

CUROLOX® TECHNOLOGY stands for these intelligent matrix-forming protein molecules. The peptide (P11-4) has a high plasticity and affinity to hydroxyapatite: It can form its three-dimensional biomatrix in specific locations and as a matrix exhibits a high affinity for hydroxyapatite.

The plasticity and affinity enable multiple applications.
Within a carious lesion (i.e. tooth decay), the three-dimensional biomatrix serves as a crystallization nucleus for new hydroxyapatite crystals and thus as a template for new enamel.

When the three-dimensional biomatrix is part of a gel, its high affinity to hydroxyapatite (i.e. calcium phosphate) results in the good adhesion to enamel and dentin. Placed on dentin, the resulting protective barrier covers exposed dentinal tubules and provides immediate relief for sensitive teeth.

Within an optimized formulation including additives such as fluoride and calcium phosphate, the biomatrix forms an erosion protection layer on the enamel, shielding the tooth from harmful acids.

Additional applications possibilities range from binding of functional substances, such as coloring particles, to the CUROLOX® TECHNOLOGY matrix.

Literature

More than 20 years of dedicated research! The CUROLOX® TECHNOLOGY has been investigated in depth at various universities. Ranging from mode-of-action in-vitro studies up to gold-standard randomised controlled in-vivo studies. Many aspects of the unique CUROLOX® TECHNOLOGY have been explored- and there is many more to come!

Aggeli, Alkilzy

Aggeli, A., M. Bell, et al. (1997)
«Responsive gels formed by the spontaneous self-assembly of peptides into polymeric beta-sheet tapes.» Nature 386(6622): 259-262.

Aggeli, A., M. Bell, et al. (2003)
«pH as a trigger of peptide beta-sheet self-assembly and reversible switching between nematic and isotropic phases.» J Am Chem Soc 125(32): 9619-9628.

Aggeli, A., N. Boden, et al. (2001)
«Self-assembling peptide systems in biology, medicine, and engineering.» Dordrecht ; Boston, Kluwer Academic Publishers.

Aggeli, A., I. A. Nyrkova, et al. (2001)
«Hierarchical self-assembly of chiral rod-like molecules as a model for peptide beta -sheet tapes, ribbons, fibrils, and fibers.» Proc Natl Acad Sci U S A 98(21): 11857-11862.

Alkilzy, M., Santamaria, R.M. et al., (2018)
«Treatment of Carious Lesions Using Self-Assembling Peptides» Adv Dent Res (2018), Vol. 29(1) 42–47

Alkilzy, M., Splieth, CH., et al (2018)
«Self-assembling Peptide P11-4 and Fluoride for Regenerating Enamel» J Dent Res (2018), 97(2) 148-154

Barbosa, Bell, Bommer, Bröseler, Brigi, Brubaker, Brunton

Barbosa-Martins, L. F., (2018)
«Enhancing bond strength on demineralized dentin by pre-treatment with selective remineralising agents.» J Mech Behaviour Beiomedical Materials https://doi.org/10.1016/j.jmbbm.2018.03.007

Barbosa-Martins, L.F. et al (2018)
«Biomimetic Mineralizing Agents Recover the Micro Tensile Bond Strength of Demineralized Dentin.» Materials  Sep 14;11(9): pii: E1733. doi: 10.3390/ma11091733.

Bell, C. J., L. M. Carrick, et al. (2006)
«Self-assembling peptides as injectable lubricants for osteoarthritis.» J Biomed Mater Res A 78(2): 236-246.

Bommer, C. et al (2018)
“Hydroxyapatite and Self-Assembling Peptide Matrix for Non-Oxidizing Tooth Whitening” J Clin Dent 2018;29:57–63

Bommer, C. et al. (2016)
«Tooth-Whitening Effect of a Curolox-Technology based Investigational Product», AADR Los Angeles

Bröseler, F., Tietmann, C. et al. (2013)
«Effect of Curodont REPAIR in patients with buccal carious lesions: a mono-centre, single-blinded, randomised, controlled, split-mouth study – intermediate report.» Clin Oral Invest 17(2013): 1055

Brigi, C. (2014)
«In vitro measurement of dental  remineralisation: investigating a biomimetic self-assembling peptide treatment strategy» Master Thesis, Queen Mary, University of London.

Brubaker, L. et al. (2016)
«Remineralization of Early-Enamel lesions Using Biomimetic Regeneration Combined With Fluoride-toothpaste», AADR Los Angeles

Brunton, P.A., R. P. W. Davies, et al. (2013)
«Treatment of early caries lesions using biomimetic self-assembling-peptides – a clinical safety trial.» Brit Dent J: 215, E6, doi:10.1038/sj.bdj.2013.741.

Brunton P.A.,  R.P.W. Davies et al. (2012)
«Self-assembling peptides to support remineralisation of Tooth lesions – a biomimetic apprach.» ICNARA2, Chile.

Ceci, Chen

Ceci, M. et al (2015)
«Effect of self-assembling peptide P -4 on enamel erosion: AFM and SEM studies» Scanning

Chen X. et al, (2014)
«In vitro Evaluation of Dentine Remineralisation by a Self-Assembling Peptide Using Scanning Electron Microscopy. Abstract 40» Caries Res (48): (2014) 402

Chen X. et al, (2014)
«Dentine Tubule Occlusion of a Novel Self-assembling Peptide Containing Gel» (2014) IADR, Cape Town

Davies

Davies, R. P. W., A. Aggeli, et al. (2009)
«Mechanisms and Principles of 1D Self-Assembly of Peptides into [beta]-Sheet Tapes.» Advances in Chemical Engineering. J. K. Rudy, Academic Press. Volume 35: 11-43.

Davies, R.P.W. et al (2014)
«Novel Self-Assembling Peptides, for the Treatment of Early Caries Lesions» Caries Res (48): (2014) 404

Davies, R.P.W. et al (2015)
«Treatment of Fabricated Caries Lesions; Self-assembling Peptides vs. Fluoride» Caries Res (49): (2015) 359

De Sousa, J.P. et al. (2018)
«The Self-Assembling Peptide P11-4 Prevents Collagen Proteolysis in Dentin» J Dent Res doi.org/10.1177/00220345188173

Expert Round Table

Expert Round Table (2015)
«Biologische Schmelzregeneration ist Guided Enamel Regeneration» Dental Journal CH (02/15): 60

Felton

Felton, S. (2005)
«Self Assembling b-sheet Peptide Networks as Smart Scaffolds for Tissue Engineering.» Chemistry. Leeds, University of Leeds. PhD: 184.

Hug

Hug, M. (2013)
«Biomimetic Mineralization – Novel Strategies for Hard Tissue Regeneration in Dentistry.» Swiss Nano Convention. Congress Center Basel: 18

Jablonski-Momeni

Jablonski-Momeni, A. Heinzel-Gutenbrunner, M.(2014)
«Efficacy of the self-assembling peptide P11-4 in constructing a remineralization scaffold on artificially-induced enamel lesions on smooth surfaces» J Orofac Orthop May;75(3):175-90.

Jablonski-Momeni, A., et al. (2019)
«Randomised in situ clinical trial investigating self-assembling peptide matrix P11-4 in the prevention of artificial caries lesions» Scientific Reports volume 9, Article number: 269

Kamal, Kind, Kirkham, Kunzelmann, Kyle

Kamal, D. et al (2018)
«Comparative evaluation of remineralizing efficacy of biomimetic self-assembling peptide on artificially induced enamel lesions: An in vitro study» J Conserv Dent 2018;21:536-41

Kamal, D., et al (2017)
«Comparative Evaluation of Remineralizing Efficacy of Biomimetic Self-Assembling Peptide on Artificially Induced Enamel Lesions» Caries Res 51: 359, DOI: 10.1159/000471777

Kind, L., A. Wuethrich, et al. (2013)
«A self-assembling peptide with the potential of non-invasive regeneration of early caries lesion.» Clin Oral Investig 17(3)

Kind, L., et al (2014)
«Comparing remineralization of natural and artificial carious lesions in human teeth.» Spie Smart Structure /NDE San Diego

Kind, L., et al (2014)
«A Self-Assembling Peptide with the Potential of Non-Invasive Regeneration of Early Caries Lesions.» Int Poster J Dent Oral Med: Poster 747 (IPJ-Preis 2015)

Kind, L. et al (2017) “Biomimetic Remineralization of Carious Lesions by Self-Assembling Peptide.” J Dent Res (Online First), DOI: 10.1177/0022034517698419

Kirkham, J. (2013)
«Filling without Drilling: A Biomimetic approach to dental tissue regeneration and repair.» British Society of Restorative Dentistry Spring Meeting, Manchester

Kirkham, J., A. Firth, et al. (2007)
«Self-assembling peptide scaffolds promote enamel remineralization.» J Dent Res 86(5): 426-430.

Koch, F., et al (2018)
«Mechanical characteristics of beta sheet forming peptide hydrogels are dependent on peptide sequence, concentration and buffer composition» R.Soc Open Sci 5: 171562

Koch, F., et al (2018)
«Amino acid composition of nanofibrillar self-assembling peptide hydrogels affects responses of periodontal tissue cells in vitro» Int J Nanomedicine 2018:13 doi.org/10.2147/IJN.S173702

Kunzelmann, K.-H. et al. (2015)
«Working Mechanism of Tooth Whitening Based on Hydroxyapatite Suspended in a P11-4 Peptide Matrix», IADR, Boston

Kyle, S., A. Aggeli, et al. (2010)
«Recombinant self-assembling peptides as biomaterials for tissue engineering.» Biomaterials 31(36): 9395-9405.

Kyle, S., A. Aggeli, et al. (2008)
«The self assembling peptide, P11-4 for a scaffold in regenerative medicine.» Eur Cell and Materials 16(Suppl 3): 70

Kyle, S. (2010)
«Self-assembling peptides as scaffolds for tissue engineering.» Biological Sciences. Leeds, The University of Leeds. PhD: 360.

Lysek

Lysek, D.A. et al (2016)
«Randomised Clinical Trial Evaluating a Novel Dentine Hypersensitivity Relieve Gel», AADR Los Angeles.

Mannaa, Maude, Meyer, Müller

Mannaa, A., Krejci, I., et al. (2018)
«RCT Investigating the Efficacy of Self-Assembling Peptide for Early Caries»
Oral presentaion 0456 at the IDAR 2018 in London

Maude, S., D. E. Miles, et al. (2011)
«De novo designed positively charged tape-forming peptides: self-assembly and gelation in physiological solutions and their evaluation as 3D matrices for cell growth.» Soft Matter 7(18): 8085-8099.

Maude, S., L. R. Tai, et al. (2012)
«Peptide synthesis and self-assembly.» Top Curr Chem 310: 27-69.

Meyer, N. et al. (2016)
«Self- Assembling Peptides As Novel Treatment Strategy To Regenerate Periodontal Ligament.» Swiss Medtech Day 2016, Bern

Meyer, N. et al. (2016)
«In vitro periodontal ligament model to assess synthetic self- assembling peptides for regeneration.» BioInterfaces 2016, Zürich.

Meyer, N. et al. (2017)
«Three dimensional model of the human periodontal ligament to be used as a middle-throughput test system.» European Cells and Materials Vol. 33 Suppl. 2, 2017 (P313)

Müller, P. et al. (2013)
«Evaluation of a tooth gel with Curolox® Technology as part of professional tooth-cleaning, with regards to patient satisfaction and the effects of hypersensitivity» (2013) Swiss Dental Hygienists Conference, Lausanne.

Patel, Porta, Ratzmann

Patel, S. et al (2016)
«In Vitro Assessment of a Novel Biomimetic-Regeneration of Early Caries Lesions», AADR Los Angeles

Porta, F., L. Kind, et al. (2013)
«In vitro Models for P11-4 Detection in Dental White Spots.» Swiss Nanoconvention 2013. Basel

Ratzmann, A. et al (2018).
«Evaluation von “Curodont Repair” in der Initialkariestherapie nach Mulitbracketbehandlung.» P18, 91. Jahrestagung der DGKFO, Bremen, Germany.

Savas, Scanlon, Schlee, Schmidlin, Silvertown, Soares, Stevanovic

Savas, S. et al (2016)
«Effects of Remineralization Agents on Artificial Carious Lesions» Pediatric Dentistry, Volume 38, Number 7, November 2016, pp. 511-518(8)

Scanlon, S., A. Aggeli, et al. (2009)
«Organisation of self-assembling peptide nanostructures into macroscopically ordered lamella-like layers by ice crystallisation.» Soft Matter 5: 1237-1247

Schlee, M., et al (2017)
«Clinical performance of self-assembling peptide P11-4 in the treatment of initial proximal carious lesions: A practice-based case series» J Invest Clin Dent. 2017;e12286.

Schlee, M., et al (2014)
«Clinical effect of biomimetic mineralization in approximal caries. Results of a clinical study after 6 months.» Stomatologie 111(2014): 175-181.

Schlee, M., Rathe, F., et. al. (2013)
«Effect of Curodont REPAIR in patients with proximal carious lesions: uncontrolled, non-interventional study – interim report.» Clin Oral Invest 17(2013): 1046-1047

Schmidlin, P. et al (2016)
«In vitro re-hardening of artificial enamel caries lesions using enamel matrix proteins or self-assembling peptides.» J Appl Oral Sci 24(1), 31-6.

Silvertown, J. et al (2017)
«Remineralization of natural early caries lesions in vitro by P11-4 monitored with photothermal radiometry and luminescence.» J Invest Clin Dent 00:e12257.doi:10.1111/jicd.12257.

Soares, R. et al (2017)
«Assessment of Enamel Remineralisation After Treatment with Four Different Remineralising Agents: A Scanning Electron Microscopy (SEM) Study» J Clin Diagn Res Vol-11(4): ZC136-ZC141

Stevanovic, S., L. Kind, et al. (2013)
«Bioceramic tooth model to study caries.» Clin Oral Investig 17(3)

Stevanovic, S., L. Kind, et al. (2013)
«Remineralizationof carious lesions by self assembled peptide supramolecularnetworks and Hydroxyapatite nanocrystals.» Swiss Nano Convention 2013. Basel

Stevanovic, S., L. Kind, et al. (2013)
«Reminerlisation of carious lesions by self-assembling peptide supramolecular networks. 19th Swiss Conference on Biomaterials.» Davos, Switzerland, Swiss Society of Biomaterials.

Takahashi, Thomson

Takahashi, F. et al. (2016)
«Ultrasonic assessment of the effects of self-assembling peptide scaffolds on preventing enamel demineralization.» Acta Odontol Scand (74):(2016) 142-7.

Takahashi, H. et al (2016)
«Evaluation of Application of Peptide P11-4 on Remineralization of Enamel.» AADR Los Angeles.

Thomson, B.M. et al, (2014)
«P11-15 (NNRFEWEFENN): A biocompatible, self-assembling peptide with potential to promote enamel remineralisation. Abstract 47» Caries Res (48): (2014) 411

Wilshaw, Wong

Wilshaw, S. P., A. Aggeli, et al. (2008)
«In vivo assessment of the immunogenicity of self-assembling peptides for use in regenerative applications.» Eur Cell and Materials 16(Suppl 3): 97.

Wong, B., Silvertown, J.D., et al (2014)
«Detection of remineralization of early caries with the Canary System». AADR. Charlotte, USA.

Wong, B. et al (2014)
«In vitro Detection of Remineralisation of Early Caries Using Curodont Repair and The Canary System™. Abstract 52». Caries Res (48): (2014) 408.