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12th International Conference & Exhibition on Biosensors & Bioelectronics, will be organized around the theme “Driving the Future with Nanosensors, Biosensors & Bioelectronics with their applications”

Biosensors & Bioelectronics 2019 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Biosensors & Bioelectronics 2019

Submit your abstract to any of the mentioned tracks.

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A biosensor is an analytical device, utilized for the discovery of an analyte that combines biological equipment’s with a physicochemical detector. Electrochemical biosensors are rarely based on enzymatic catalysis of a reaction that consumes or produces electrons (such enzymes are called redox enzymes). The sensor substrate contains three electrodes; 1) a reference electrode, 2) a working electrode and, 3) a counter electrode. Amperometric biosensors function is the production of a current when a potential is applied between 02 electrodes. They generally have response times, sensitivities and dynamic ranges similar to the potentiometric biosensors. The potentiometric biosensor, (potential created at 0 current) gives a logarithmic response with highly dynamic ranges. Such biosensors are often made by screen printing the electrode patterns on a plastic substrate, coated with a conducting polymer and then some protein (antibody or enzyme) is combined. They have only 02 electrodes are extremely sensitive & robust. A microbial biosensor is an analytical device which coordinates microorganism(s) with a physical transducer to generate a measurable signal proportional of the concentration of analytes.

  • Track 1-1Amperometric Biosensors
  • Track 1-2Biosensors for Security and Bioterrorism Applications
  • Track 1-3Biosensors with Fiberoptics
  • Track 1-4Biosensors and Biodetection
  • Track 1-5Recognition Receptors in Biosensors
  • Track 1-6Microelectrode Biosensors
  • Track 1-7Stretchable Electronics
  • Track 1-8Fluorescent Biosensors
  • Track 1-9Optical Biosensor
  • Track 1-10Enzymatic Biosensors
  • Track 1-11Microbial Biosensors
  • Track 1-12Potentiometric Biosensors
  • Track 1-13Electrochemical Biosensors
  • Track 1-14Enzyme-based biosensors

Biosensors applications such as Biosensors Graphene-based enzymatic and non-enzymatic electrodes can efficiently detect glucose, cytochrome-c, NADH, hemoglobin, HRP, and cholesterol, hydrogen peroxide, AA, UA, DA, respectively. Nanocapsules are nanoscale shells made out of a non-toxic polymer. They are vesicular systems that are made up of a polymeric membrane which is encapsulates the inner liquid core at the nanoscale level. Nanocapsules have a myriad of uses, which include promising medical applications for drug delivery, food enhancement, nutraceuticals, and for the self-healing of materials.

  • Track 2-1Non-invasive biosensors in clinical analysis
  • Track 2-2Biosensors and bioelectronics for clinical diagnostics
  • Track 2-3Nanocapsule based drug delivery: Challenges and opportunities
  • Track 2-4Recent advances in graphene-based biosensors & bioelectronics
  • Track 2-5Flexible sensors
  • Track 2-6Graphene-based tattoo-like skin biosensors
  • Track 2-7Biophotonics

A biotransducer is the recognition-transduction component of a biosensor framework. It consists of 02 intimately coupled parts; 1) a bio-recognition layer, and 2) a physicochemical transducer, which acts together to converts a biochemical signal to an electronic or optical signal. Electronic biosensing offers significant advantages over optical, biochemical and biophysical methods, in terms of high sensitivity and new sensing mechanisms, high spatial resolution for localized detection, facile integration with standard wafer-scale semiconductor processing and label-free, real-time detection in a nondestructive manner. Gravimetric biosensors use the basic principle of a response to a change in mass. Most gravimetric biosensors use thin piezoelectric quartz crystals, either as resonating crystals (QCM), or as bulk/surface acoustic wave (SAW) devices. Pyroelectric biosensors generate an electric current as a result of a temperature change. This differential induces a polarization in the substance, producing a dipole moment in the direction of the temperature gradient. The result is a net voltage across the material.

  • Track 3-1Biotransducers
  • Track 3-2Pressure Transducers
  • Track 3-3Ultrasound Transducers
  • Track 3-4Airborne Transducers
  • Track 3-5Pyroelectric biotransducers
  • Track 3-6Gravimetric/Piezoelectric biotransducers
  • Track 3-7FET-based electronic biotransducers
  • Track 3-8Bioreceptors
  • Track 3-9Biotransducers
  • Track 3-10Aimer Transducers

Biosensors in healthcare provide positive impact in diagnosing, monitoring and maintaining health. Biosensors also play an important role in driving healthy behaviours such as preventive health, “wellness”, and/or sports programs where tracking and trending of physiologic functions is of paramount importance.  Biosensor and their application & developments in healthcare are a wide research and scope. Such as for clinical or medical purposes has attracted scientific interest from the decades owing to the need for rapid, simplicity, effectively to hand-held testing devices in medicine. Biological sensors are electrical, optical, piezoelectrical devices that have the ability to detect biological compounds, such as nucleic acids and proteins.

  • Track 4-1Wellness Monitoring
  • Track 4-2Cell-based Biosensors
  • Track 4-3Antibody-Based Biosensors (Immunosensors)
  • Track 4-4Biosensors by Detection Technique
  • Track 4-5Biosensors for cardiovascular diseases applications
  • Track 4-6Biosensors for cancer applications
  • Track 4-7Biorecognition elements and transduction technology
  • Track 4-8Biosensors for diabetes applications

Biosensors for Imaging: The field of optical sensors has been a growing research area over the last three decades. A wide range of books and review articles has been published by experts in the field who have highlighted the advantages of optical sensing over other transduction methods. Fluorescence is by far the method most often applied and comes in a variety of schemes. Nowadays, one of the most common approaches in the field of optical biosensors is to combine the high sensitivity of fluorescence detection in combination with the high selectivity provided by ligand-binding proteins. In this chapter we deal with reviewing our recent results on the implementation of fluorescence-based sensors for monitoring environmentally hazardous gas molecules. Medical Image Analysis provides a forum for the dissemination of new research results in the field of medical and biological image analysis, with special emphasis on efforts related to the applications of computer vision, virtual reality and robotics to biomedical imaging problems.

  • Track 5-1Live cell fluorescent biosensors
  • Track 5-2Theranostics & implantable sensors
  • Track 5-33D Imaging Interaction
  • Track 5-4Novel biosensors for live cell imaging
  • Track 5-5Biomedical image analysis

Bioinstrumentation is a part of Biomedical engineering application of engineering principles and design concepts to medicine and biology for healthcare purposes (e.g. diagnostic or therapeutic). This field seeks to close the gap between engineering and medicine: It combines the design and problem solving skills of engineering with medical and biological sciences to advance health care treatment, including diagnosis, monitoring, and therapy. To ensure that good quality assurance practices are used for the design of medical devices and that they are consistent with quality system requirements worldwide, the Food and Drug Administration revised the Current Good Manufacturing Practice (CGMP) requirements by incorporating them into the Quality System Regulation, 21 CFR Part 820. An important component of the revision is the addition of design controls.

  • Track 6-1Commercial biosensors, manufacturing and markets
  • Track 6-2Medical device design and testing
  • Track 6-3Surface characterization in biomaterials
  • Track 6-4Biomedical engineering

Environmental Biosensors:  The majority of reported biosensor research has been directed toward development of devices for clinical markets; however, driven by a need for better methods for environmental surveillance, research into this technology is also expanding to encompass environmental applications. Biosensors are biophysical devices which can detect the presence of specific substances e.g. sugars, proteins, hormones, pollutants and a variety of toxins in the environment. They are also capable of measuring the quantities of these specific substances in the environment.

  • Track 7-1Biosensors for Environmental Monitoring
  • Track 7-2Plants as Environmental Biosensors
  • Track 7-3Biodetection for heavy metal ions in water
  • Track 7-4Biosensors for marine monitoring

In Wearable Biosensors research & technology increasing today and promising to be one of the great developments & research in the sector of wearable health technology. Wearable Biosensors is a main category of biosensors is good to use for applications related to military, sports, healthcare etc. Rapid growths of these devices are on the ways which will provide advantages such as easily wearable & use, providing real time information in low cost.

Developments in wearable health technology and wearable biosensors have evolved to the point that they can be considered ready for all clinical purposes such as research, developments and future aspects. Wearable biosensors technologies could play an important role in the wireless tracking, wireless surveillance of people during hazardous operations such as firefighting, military and more.

  • Track 8-1Googles Smart Lens
  • Track 8-2Nanotechnology materials
  • Track 8-3Smart Shirt
  • Track 8-4Ring Sensor
  • Track 8-5Wearable Biosensors tattoos
  • Track 8-6Simband Wearable Biosensors
  • Track 8-7Wearable Glucose Sensor
  • Track 8-8Q™ Sensor
  • Track 8-9Healthpatch Biosensor
  • Track 8-10Nanotechnology electronics for wearable health monitoring

Micro-/nanoelectromechanical systems (MEMS/NEMS) micro-/nanoelectromechanical system (MEMS/NEMS) need to be designed to perform expected functions in short durations, typically in the millisecond to picosecond range. Most mechanical properties are known to be scale dependent, therefore the properties of nanoscale structures need to be measured. For bioMEMS/bioNEMS, bioMEMS/bioNEMS adhesion between biological molecular layer molecular layers and the substrate, and friction and wear of biological layers, can be important. Bionics is the application of biological methods and systems found in nature to the study and design of engineering systems and modern technology Bionics means the replacement or enhancement of organs or other body parts by mechanical versions. Bionic implants differ from mere prostheses by mimicking the original function very closely, or even surpassing it. Bio-robotics is the use of biological characteristics in living organisms as the knowledge base for developing new robot designs. The term can also refer to the use of biological specimens as functional robot components. Bio robotics intersects the fields of cybernetics, bionics, biology, physiology, and genetic engineering.

  • Track 9-1Biorobotics
  • Track 9-2Bionics
  • Track 9-3Photothermal blade and nano delivery system
  • Track 9-4Biosensor controlled gene therapy

Bioelectronics: Biological properties can be measured and altered using electronics, magnetics, photonics, sensors, circuits, and algorithms. Applications range from basic biological science through clinical medicine, and enable new discoveries, diagnoses, and treatments by creating novel devices, systems, and analyses. Bioelectronics is a branch of nano-science and technology dealing with the investigation and the technological exploitation of electron transport properties in special classes of biomolecules. Albeit it deals with molecules that can donate to or receive electrons, biomolecular electronics has nothing to do with the molecular bases ruling the generation and propagation of electrical signals in neural cells, i.e. the action potential. Bioanalysis is one of the sub categories of Chemistry that helps in measuring Xenobiotics (unnatural concentration or location of drugs, Metabolites and biological molecules) in biological system. Biomedicine is a branch of medical sciences that deals with applying biological and natural science principles to clinical practices. It studies our ability to cope with the environmental changes.

  • Track 10-1Circuits for biomedical applications/devices
  • Track 10-2Automation science and engineering
  • Track 10-3Biomolecular electronics and bioanalysis
  • Track 10-4Implantable electronics
  • Track 10-5Bioelectronic Medicine
  • Track 10-6Electrophysiology and Bioelectronic Circuits
  • Track 10-7Ink-jet Printed Tattoo Electrodes

In recent centuries, biosensors & bioelectronics research trends in the field of Neuroprosthetics. Driven by advances in microelectronics, computing and microsystem integration, it has now become possible to develop devices that effectively interface and interact with the nervous system. This programme aims at providing the technology for animal and clinical studies, such as neural recording, electrical neurostimulation, optogenetic stimulation and multi-modal neuromodulation to understand and listen to the brain better, in particular the cortex, the cerebellum and the thalamus.

  • Track 11-1Neuroprosthetic Implantation and Biological Interfaces
  • Track 11-2Neurostimulators
  • Track 11-3Realtime sensing of Neural Signals
  • Track 11-4Smart Implantable Neurostimulators
  • Track 11-5Simulation and modulation
  • Track 11-6Nanowerk

Nanoelectronics covers a diverse set of devices and materials, with the common characteristic that they are so small that physical effects alter the materials ‘properties on a nanoscale – inter-atomic interactions and quantum mechanical properties play a significant role in the workings of these devices. At the nanoscale, new phenomena take precedence over those that hold sway in the macro-world. Quantum effects such as tunneling and atomistic disorder dominate the characteristics of these nanoscale devices.

  • Track 12-1Flexible Electronic Circuit
  • Track 12-2Nano-Chemical Sensors
  • Track 12-3Advanced Nanoelectronics and Applications
  • Track 12-4Graphene Nano Electronics
  • Track 12-5Nanoelectronics and Biomedical Devices
  • Track 12-6Nanobiomolecular engineering
  • Track 12-7Nanoemissive Display Panel
  • Track 12-8Copper Nanoparticle
  • Track 12-9Spintronics
  • Track 12-10Nanotube Transistor
  • Track 12-11NEMS Devices
  • Track 12-12Silicone Nanophotonics
  • Track 12-13Nanoelectronics

Aptamers are oligonucleotide or peptide molecules that bind to a specific target molecule. Aptamers are created by selecting from a huge random sequence pool, but natural aptamers also exist in riboswitches. Immunosensors are built by means of the appropriate combination of the biomolecules with the transducer used together; they can be applied in specific analytical situations. Immunosensors commonly rely on the reuse of the same receptor surface for many measurements. A Biochip is a combination of minute DNA spots hooked up to a hard surface. Scientists use DNA Biochips to check the expression levels of a huge number of genes at the same time. Each DNA spot contains picomoles of a precise DNA sequence known as a probe. These can be a tiny section of a gene or a DNA particle that are used to cross breed a cDNA or cRNA. Probe-target cross breeding is usually quantified and detected by detection of the fluorophore. Silver or chemiluminescence-labeled targets to identify the corresponding abundance of nucleic-acid sequences in the target. Sensors are devices that respond to physical or chemical stimuli and produce detectable signals. They are a critical extension of human perception of the world in many aspects of modern society. This is large because we are much less sensitive to the chemical or biological environment than to the physical environment (e.g., light, pressure, temperature, or humidity). However, appropriate chemical or biological compositions are tightly linked to the quality of life.

A Biochip is a combination of minute DNA spots hooked up to a hard surface. Scientists use DNA Biochips to check the expression levels of huge number of genes at the same time. Each DNA spot contains Pico moles of a précised DNA sequence known as a probe.

  • Track 13-1Aptamers and their biological applications
  • Track 13-2Proteomics, single cell analysis, and electronic noses
  • Track 13-3Immunosensors
  • Track 13-4Natural & synthetic receptors (including Molecularly imprinted polymers)
  • Track 13-5Organism and whole cell-based biosensors
  • Track 13-6DNA Chips
  • Track 13-7Biochips
  • Track 13-8Aptasensors
  • Track 13-9Immunosensors

Photonic Sensing focuses on experimental contributions related to novel principles, and structures or materials for photonic sensors. Optical fibers can be used as sensors to measure strain, temperature, pressure and other quantities by modifying a fiber so that the quantity to be measured modulates the intensity, phase, polarization and wavelength or transit time of light in the fiber. Sensors that vary the intensity of light are the simplest, since only a simple source and detector are required. A particularly useful feature of intrinsic optical fiber sensors is that they can, if required, provide distributed sensing over very large distances. Photonic integrated circuits (PICs) are optically active integrated semiconductor photonic devices which consist of at least two different functional blocks, (gain region and a grating based mirror in a laser...). These devices are responsible for commercial successes of optical communications and the ability to increase the available bandwidth without significant cost increases to the end user, through improved performance and cost reduction that they provide. The most widely deployed PICs are based on Indium phosphide material system. Silicon photonics is an active area of research.

  • Track 14-1Bio and environmental analytics
  • Track 14-2Quantum and high powered lasers
  • Track 14-3Photonic diagnostics & biosensors
  • Track 14-4Security and process technology

A Gas Sensor is a device that detects the presence of gases in an area, often as part of a safety system. This type of equipment is used to detect a gas leak and interface with a control system so a process can be automatically shut down. A gas detector can sound an alarm to operators in the area where the leak is occurring, giving them the opportunity to leave. This type of device is important because there are many gases that can be harmful to organic life, such as humans or animals. Metal oxide-based resistive-type gas sensors are solid-state devices which are widely used in a number of applications from health and safety to energy efficiency and emission control. Nanomaterials such as nanowires, nanorods, and nanoparticles have dominated the research focus in this field due to their large number of surface sites facilitating surface reactions. Previous studies have shown that incorporating two or more metal oxides to form a heterojunction interface can have drastic effects on gas sensor performance, especially the selectivity. Interdigitated capacitive transducers have been inkjet printed onto flexible substrates and optimized for gas sensing applications. Their characteristics have been improved by tuning the annealing/sintering conditions and making use of additional passivation procedures, such as Ag electroplating with Ni or Parylene-C coating of the whole device surface. Surface acoustic wave sensors are a class of micro-electromechanical systems (MEMS) which rely on the modulation of surface acoustic waves to sense a physical phenomenon. The sensor transducers an input electrical signal into a mechanical wave which, unlike an electrical signal, can be easily influenced by physical phenomena. The device then transduces this wave back into an electrical signal. Changes in amplitude, phase, frequency, or time-delay between the input and output electrical signals can be used to measure the presence of the desired phenomenon. The calorimetric gas sensor is a device which uses calorimetry as the transduction principle and operates by measuring the heat of a reaction on the sensor surface. It is known that the exothermic nature of the combustion (the oxidation reaction) causes a rise in temperature.

  • Track 15-1Non-Dispersive Infrared Gas Sensors
  • Track 15-2Acoustic Wave Based Gas Sensors
  • Track 15-3Capacitance Based Gas Sensors
  • Track 15-4Metal Oxide Based Gas Sensors
  • Track 15-5Environmental Monitoring
  • Track 15-6Materials for Gas Sensors
  • Track 15-7Chemical and Biological Methods in Gas Sensing
  • Track 15-8Micro and Nano Technology in Gas Sensing
  • Track 15-9Gas Sensors Applications
  • Track 15-10Optical Gas Sensors
  • Track 15-11Electrochemical Gas Sensors
  • Track 15-12Calorimetric Gas Sensors

Advancement in Nanotechnology: Nanolithography is the art and science of etching, writing, or printing at the microscopic level, where the dimensions of characters are on the order of nanometers (units of 10-9meter, or millionths of a millimeter). This includes various methods of modifying semiconductor chips at the atom ic level for the purpose of fabricating integrated circuits. Nanophotonics is the new emerging paradigm where light interacts with nano-scaled structures and brings forth the mysterious world to research. The combination of Photonics and Nanotechnology giving birth to “Nanophotonics” compliments and benefits each other in terms of new functions, materials, fabrication processes and applications.

  • Track 16-1Nanolithography
  • Track 16-2Immobilization Strategies at the Nanoscale
  • Track 16-3Ion-channel based sensing
  • Track 16-4Cantilever Biosensors
  • Track 16-5Nanowire Biosensors
  • Track 16-6Nanosensors
  • Track 16-7Nanomaterials and nanoanalytical systems
  • Track 16-8Novel approaches of nanoparticles
  • Track 16-9Nanophotonics/THz sensing
  • Track 16-10Nano-bio-computing
  • Track 16-11Nanobiosensors

 

Next-generation biosensor platforms will require significant improvements in sensitivity, specificity and parallelity in order to meet the future needs of a variety of fields ranging from in vitro medical diagnostics, pharmaceutical discovery and pathogen detection. Nanobiosensors, which exploit some fundamental nanoscopic effect in order to detect a specific biomolecular interaction, have now been developed to a point where it is possible to determine in what cases their inherent advantages over traditional techniques (such as nucleic acid microarrays) more than offset the added complexity and cost involved constructing and assembling the devices.        

Nanosensors are chemical or mechanical sensors that can be used to detect the presence of chemical species and nanoparticles, or monitor physical parameters such as temperature, on the nanoscale. They also find use in medical diagnostic applications.

  • Track 17-1Nanobiosensors
  • Track 17-2Present Position Of Nanotechnology And Cosmetic Products
  • Track 17-3Cosmetic Regulation-Safety Assessment
  • Track 17-4Safety Of Nanomaterials In Cosmetic Products
  • Track 17-5Nanotechnology Cosmeceuticals: Benefits Vs Risks
  • Track 17-6Nanocosmetics- Company Survey
  • Track 17-7Cosmetic Formulation
  • Track 17-8Nanotechnology for implantable sensors
  • Track 17-9Emerging research and technologies
  • Track 17-10Multiplexing biosensors on a chip
  • Track 17-11Lab-on-a-Chip
  • Track 17-12Smartphone-based nano-biosensors
  • Track 17-13Nanocurve-based sensor reads facial expressions
  • Track 17-14Carbon Nanotubes
  • Track 17-15Graphene nanosensor
  • Track 17-16Types of nanobiosensors
  • Track 17-17Design of nanobiosensors
  • Track 17-18NanoBiosensors in Nanomedicine

Biosensing technologies are of increasing importance in healthcare, agri-food, environmental and security sectors, and this is reflected in the continued growth of global markets for such technologies. Biomechanics is closely related to engineering, because it often uses traditional engineering sciences to analyze biological systems. Some simple applications of Newtonian mechanics and/or materials sciences can supply correct approximations to the mechanics of many biological systems. Reliable methodologies are needed for point and stand-off detection of chemical, biological, radiological, special nuclear and explosive (CBRNE) materials. These technological needs are not universally military in nature. For example, there is pervasive interest among diverse disciplines such as medicine, law enforcement, explosive ordinance disposal, Natural environmental protection, industrial manufacturing and food processing in being able to develop capabilities for the rapid detection and identification capabilities for various biochemical markers.

  • Track 18-1Sensing technologies for health and medicine
  • Track 18-2Biomechanics and human rehabilitation
  • Track 18-3CBRNE sensing (chemical, biological, radiological, nuclear, ecological)
  • Track 18-4CBRNE sensing (chemical, biological, radiological, nuclear, ecological)
  • Track 18-5Ubiquitous devices for bio detection
  • Track 18-6Sensing for agriculture, food quality, and safety
  • Track 18-7Optical Sensing Technologies
  • Track 18-8Security and Sensing

Bioengineering is the interface between medicine and engineering. Working with scientists, practices and researchers, bioengineers use traditional engineering principles and techniques and improving them to real-world biological and medical issues.

Bioengineering is to collaboration between engineering and the life sciences that enhance the scientific research, mythology and the invention of new cutting-edge technologies which impacts on future research and education process.

  • Track 19-1Biomechanics & Biomarkers
  • Track 19-2Sports and physiological monitoring
  • Track 19-3Rehabilitation
  • Track 19-4Neurotechnology
  • Track 19-5Telemanipulators
  • Track 19-6Biomedical engineering
  • Track 19-7Biochemical engineering
  • Track 19-8Bioprocess engineering
  • Track 19-9Biorobotics
  • Track 19-10Bioinformatics
  • Track 19-11Artificial implants and Biomechanics
  • Track 19-12Nanobiotechnology & Biomaterials
  • Track 19-13Sports technology