Conductive Polymers
portes grátis
Conductive Polymers
Electrical Interactions in Cell Biology and Medicine
Moulton, Simon E.; Zhang, Ze; Rouabhia, Mahmoud
Taylor & Francis Ltd
03/2021
420
Mole
Inglês
9780367782214
15 a 20 dias
820
Descrição não disponível.
Early History of Conductive Organic Polymers
Synthesis of Biomedically Relevant Conducting Polymers
Properties and Characterization of Conductive Polymers
Mechanism in Charge Transfer and Electrical Stability
Industry Viable Metal Anti-corrosion Application of Polyaniline
Medical Device Implants for Neuromodulation. The Electromagnetic Nature of Protein-Protein Interactions
The Impact of Electric Fields on Cell Processes, Membrane Proteins and Intracellular Signaling Cascades
Lipid-Protein Electrostatic Interactions in the Regulation of Membrane-Protein Activities
Experimental Methods to Manipulate Cultured Cells with Electrical and Electromagnetic Fields
The Neurotrophic Factor Rationale for Using Brief Electrical Stimulation to Promote Peripheral Nerve Regeneration in Animal Models and Human Patients
In vitro Modulatory Effects of Electrical Field on Fibroblasts
The Role of Electrical Field on Neurons: In vitro Studies
Modulation of Bone Cell Activities in vitro by Electrical and Electromagnetic Stimulations
Electrical Stimulation of Cells Derived from Muscle
The Response of Endothelial Cells to Endogenous Bioelectric Fields
The Role of Electrical Field on Stem Cells In Vitro
Effects of Electrical Stimulation on Cutaneous Wound Healing: Evidence from in vitro Studies and Clinical Trials
Effect of Electrical Stimulation on Bone Healing
Synthesis of Biomedically Relevant Conducting Polymers
Properties and Characterization of Conductive Polymers
Mechanism in Charge Transfer and Electrical Stability
Industry Viable Metal Anti-corrosion Application of Polyaniline
Medical Device Implants for Neuromodulation. The Electromagnetic Nature of Protein-Protein Interactions
The Impact of Electric Fields on Cell Processes, Membrane Proteins and Intracellular Signaling Cascades
Lipid-Protein Electrostatic Interactions in the Regulation of Membrane-Protein Activities
Experimental Methods to Manipulate Cultured Cells with Electrical and Electromagnetic Fields
The Neurotrophic Factor Rationale for Using Brief Electrical Stimulation to Promote Peripheral Nerve Regeneration in Animal Models and Human Patients
In vitro Modulatory Effects of Electrical Field on Fibroblasts
The Role of Electrical Field on Neurons: In vitro Studies
Modulation of Bone Cell Activities in vitro by Electrical and Electromagnetic Stimulations
Electrical Stimulation of Cells Derived from Muscle
The Response of Endothelial Cells to Endogenous Bioelectric Fields
The Role of Electrical Field on Stem Cells In Vitro
Effects of Electrical Stimulation on Cutaneous Wound Healing: Evidence from in vitro Studies and Clinical Trials
Effect of Electrical Stimulation on Bone Healing
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
Sodium Hydrogen Exchangers;Cytosolic Phospholipase A2;A. Lee Miller;Bone Sialoprotein;Andreas Hildebrandt;PPy Nanoparticles;Anita F. Quigley;PPy Coating;Anna Katharina Hildebrandt;MLO Y4 Cell;Ardeshir Bayat;Acellular Nerve;Darren Svirskis;Negative Pressure Wound Therapy;David L. Officer;Conductive Polymers;Guillermo G. Montich;PPy Film;Huan Wang;Normal Wound Healing Process;Jeremy M. Crook;Promote Axon Regeneration;Jun Chen;Distal Nerve Stumps;Justin L. Bourke;Nerve Injuries;Klaudia Wagner;Primary Human Dermal Fibroblasts;Lichun Lu;Conductive Organic Polymers;Mahmoud Rouabhia;Polyacetylene Films;MarB. Decca;Skeletal Muscle Myoblasts;Michael J. Higgins;Emeraldine Salt;Michael J. Yaszemski;Relative Peak Area Ratio;Michelle Griffin;VEGF Receptor Signaling Pathway;Miina BjRninen;PANI Coating;Natalia Wilke;Nuclear Magnetic Resonance;Pawel Wagner;Streaming Potential;Peter C. Innis;Schwann Cells;Peter R. Bergethon;Robert M. I. Kapsa;Sara Ud-Din;Seth C. Rasmussen;Shiyun Meng;Simon E. Moulton;Siwei Zhao;Suvi Haimi;Tessa Gordon;Thomas Kemmer;Trenton A. Jerde;Trisha M. Pfluger;Wen Zheng;Xianhong Wang;Yizhong Luo
Early History of Conductive Organic Polymers
Synthesis of Biomedically Relevant Conducting Polymers
Properties and Characterization of Conductive Polymers
Mechanism in Charge Transfer and Electrical Stability
Industry Viable Metal Anti-corrosion Application of Polyaniline
Medical Device Implants for Neuromodulation. The Electromagnetic Nature of Protein-Protein Interactions
The Impact of Electric Fields on Cell Processes, Membrane Proteins and Intracellular Signaling Cascades
Lipid-Protein Electrostatic Interactions in the Regulation of Membrane-Protein Activities
Experimental Methods to Manipulate Cultured Cells with Electrical and Electromagnetic Fields
The Neurotrophic Factor Rationale for Using Brief Electrical Stimulation to Promote Peripheral Nerve Regeneration in Animal Models and Human Patients
In vitro Modulatory Effects of Electrical Field on Fibroblasts
The Role of Electrical Field on Neurons: In vitro Studies
Modulation of Bone Cell Activities in vitro by Electrical and Electromagnetic Stimulations
Electrical Stimulation of Cells Derived from Muscle
The Response of Endothelial Cells to Endogenous Bioelectric Fields
The Role of Electrical Field on Stem Cells In Vitro
Effects of Electrical Stimulation on Cutaneous Wound Healing: Evidence from in vitro Studies and Clinical Trials
Effect of Electrical Stimulation on Bone Healing
Synthesis of Biomedically Relevant Conducting Polymers
Properties and Characterization of Conductive Polymers
Mechanism in Charge Transfer and Electrical Stability
Industry Viable Metal Anti-corrosion Application of Polyaniline
Medical Device Implants for Neuromodulation. The Electromagnetic Nature of Protein-Protein Interactions
The Impact of Electric Fields on Cell Processes, Membrane Proteins and Intracellular Signaling Cascades
Lipid-Protein Electrostatic Interactions in the Regulation of Membrane-Protein Activities
Experimental Methods to Manipulate Cultured Cells with Electrical and Electromagnetic Fields
The Neurotrophic Factor Rationale for Using Brief Electrical Stimulation to Promote Peripheral Nerve Regeneration in Animal Models and Human Patients
In vitro Modulatory Effects of Electrical Field on Fibroblasts
The Role of Electrical Field on Neurons: In vitro Studies
Modulation of Bone Cell Activities in vitro by Electrical and Electromagnetic Stimulations
Electrical Stimulation of Cells Derived from Muscle
The Response of Endothelial Cells to Endogenous Bioelectric Fields
The Role of Electrical Field on Stem Cells In Vitro
Effects of Electrical Stimulation on Cutaneous Wound Healing: Evidence from in vitro Studies and Clinical Trials
Effect of Electrical Stimulation on Bone Healing
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
Sodium Hydrogen Exchangers;Cytosolic Phospholipase A2;A. Lee Miller;Bone Sialoprotein;Andreas Hildebrandt;PPy Nanoparticles;Anita F. Quigley;PPy Coating;Anna Katharina Hildebrandt;MLO Y4 Cell;Ardeshir Bayat;Acellular Nerve;Darren Svirskis;Negative Pressure Wound Therapy;David L. Officer;Conductive Polymers;Guillermo G. Montich;PPy Film;Huan Wang;Normal Wound Healing Process;Jeremy M. Crook;Promote Axon Regeneration;Jun Chen;Distal Nerve Stumps;Justin L. Bourke;Nerve Injuries;Klaudia Wagner;Primary Human Dermal Fibroblasts;Lichun Lu;Conductive Organic Polymers;Mahmoud Rouabhia;Polyacetylene Films;MarB. Decca;Skeletal Muscle Myoblasts;Michael J. Higgins;Emeraldine Salt;Michael J. Yaszemski;Relative Peak Area Ratio;Michelle Griffin;VEGF Receptor Signaling Pathway;Miina BjRninen;PANI Coating;Natalia Wilke;Nuclear Magnetic Resonance;Pawel Wagner;Streaming Potential;Peter C. Innis;Schwann Cells;Peter R. Bergethon;Robert M. I. Kapsa;Sara Ud-Din;Seth C. Rasmussen;Shiyun Meng;Simon E. Moulton;Siwei Zhao;Suvi Haimi;Tessa Gordon;Thomas Kemmer;Trenton A. Jerde;Trisha M. Pfluger;Wen Zheng;Xianhong Wang;Yizhong Luo
