Scientific Program

Conference Series Ltd invites all the participants across the globe to attend 5th International Conference and Exhibition on Pharmaceutical Nanotechnology and Nanomedicine Vancouver, Canada.

Day :

  • The Evolution of Nanomedicine with the Re-Evolution of Nanotechnology
Location: 3
Biography:

Worked on brain mapping  in Science beam and assistant is Nishant Sharma

 

Abstract:

Brain theory

Development of brain  starts from embryonic stage ASPM gene

Is responsible for the Development of the brain

Aim : observing  different brain of the animals and comparison with human brain

Apparatus  :  dissected brain of human, amphibian,aves and reptiles

Procedure 

Observe structures  in the microscopes.

Observation  : different  stages of development of the brain was observed according to need .no convolution in aquatic to amphibians

Little convolution in reptiles to small mammals

Highly  convoluted and specialised brain in human

Why and how did brain evolve

Brain evolved as a central functioning unit  because as organisms

Start increasing in size and start developing new structure  than

DNA modified accordingly and generated a new gene ASMP gene which created new cells neurons and these develop peripheral nervous system in hydra and small organism and according to complexity neurons gathered and developed the CNS and after that complexity increased the brain was developed in the fishes .

DNA forward rolling occurred in the small organisms to humans

According to need , complexity and environment and internal environment of cell brain evolved

What are molecular determinant of individual  brain ?

Molecular determinants of brain are basically amount of neurotransmitters  secreted and amount of hormones  secreted from the glands present  in the brain .

The neurotransmitters  and secretions of neurohormones vary According to needs and conditions of  organisms

Even presence electrical transmission  is also considered as the molecular determinant of brain as their count varies from person to person and even organisms to organisms

How plastic is matured brain ?

Depends on the  memory  and convolution of brain

Brain is divided into two parts

Subconscious  and conscious

Subconscious  constitute more than 70% of our brain and stores photogenic  and learned memory

Generates thought and dreams

Conscious  works on thought and  dreams constitute less than 30%of  brain.

So subconscious brain is more plastic than Conscious brain as we can generate the thought.

So accordingly  the  plasticity of brain  depends on the  convolution of brain  and moldiness of brain .

  • Nanomedicine and Nanobiotechnology
Location: 4
Speaker
Biography:

Mr. Zahid Hasan is a Ph.D scholar belongs to Lahore Pakistan. He is assistant professor in well reputed charter university (NCBA&E) in main campus of Lahore Pakistan. His area of research is Nano robotic applications for diagnosis of chronic diseases and treatment. In 2019 he has physically attended Nanotech conference in Paris France and achieved good performance award. He interested to use Nano technologies applications in life science by using numerical methods. Recently he is working on blood cancer research with the combine efforts of Ontologies, machine learning nanotechnology and emerging technology of Internet of medical things (IOMT) and cloud computing approaches. He has expertise in innovative evaluation and passion in improving the medical challenges and wellbeing of humanity. He has developed novel model that aim to improve healthcare by taking into account the perspectives and need of all stakeholders. The proposed model appears to be particularly responsive to the context in which it is being applied, as it takes into account the specific circumstances and needs of the healthcare system being evaluated. This could potentially make it more effective in improving healthcare outcomes compared to more traditional evaluation approaches.

Abstract:

Nanotechnologist and medical researchers are still involved in a fighting against a high number of serious and complex diseases like breast cancer. Breast cancer remains a significant global medical issue among all ages of women and need to serious attention in this direction for research, investment, and effective and safely treatment. Traditional treatments including surgery, radiation therapy, chemotherapy, targeted therapy, and hormone therapy are not have effective  results and have many limitations.

In this research work, coulomb explosion model is proposed to design “Heat control system” that will work as heat therapy for the treatment of the fatal cancer cells at molecular and Nano atomic level on the bases of “See and Treat” using Nano heat sensors and Nano Cameras. For controlling the intensity of heat we used the magical properties of coated Gold Nano- Particles with less than 100nm in our proposed research work. The gold nanoparticles are irradiated with a laser beam to initiate Coulomb explosion. The resulting explosion generates a high-energy shockwaves, which causes damage to the cancer cells and leads to their destruction by controlling the intensity of heat to induce hyperthermia, which involves heating the cancerous tissue to a temperature between 41-45°C to selectively kill the cancer cells. The heat control system has several advantages over traditional cancer treatments such as chemotherapy or radiation therapy. Firstly, hyperthermia can selectively target cancer cells, leaving healthy tissue unharmed. Secondly, it can be combined with other cancer treatments to enhance their effectiveness. Finally, it is a non-invasive procedure that is well-tolerated by patients.

Moreover we used the finite element method to simulate the temperature distribution in the breast tissue during the treatment. This proposed model will be evaluated on the Thermo Phoresis Nt. The numerical results obtained in graphical form and show how Nano-particles of Gold preserve their energy as well as how they can be used in the treatment of cancer cells.  The results are obtained by using MATLAB simulation.

  • Nanoparticles As Precise Drug Delivery Systems
Location: 9
Biography:

Kianoush Gholami, He is an undergraduate student at Ferdowsi University of Mashhad, Iran, and he has a major in Cell and Molecular Biology. Aspired science researcher with more than one year of experience working in the field of Cellular Biology, Nanotechnology, Drug Delivery, and Cancer Therapy. He is interested in microbiological investigations. Research assistant and hands-on experience with molecular techniques, researching scientific literature and writing technical reports. Experienced administrative and planning, with high levels of the team playing.

Abstract:

Cancer is taken into account as one of the most prominent life-threatening diseases worldwide, with increasing incidence and mortality rates in the last decades. Reportedly, the number of new cancer cases per year is expected to rise up to 24 million until 2035. Beside unhealthy life style, specific bacterial infections including Helicobacter pylori, Salmonella Enteritidis, Salmonella Typhi and Chlamydia trachomatis could induce neoplastic changes in gastric, colon, gallbladder, cervical and ovarian cells, respectively. Use of anticancer agents is a routine modality, which could be applied alone or in combination with surgery and radiotherapy. However, severe side effects, poor solubility and nonspecific dissemination of chemical drugs are major challenges in cancer treatment that need to be overcome.

In recent years, nanotechnology has progressively raised as an attractive field to enhance efficacy and specificity of anticancer and antibacterial drugs. The present review considers advances in nanodelivery of drugs associated with cancer chemotherapy, with emphasis on chitosan.
Chitosan is one of the most versatile cationic, linear and natural polysaccharide polymers composed of β-(1–4)-linked D-glucosamine and N-acetyl-D-glucosamine units. In contrast to other nanoparticles, chitosan nanocomplexes (CSNCs) could be used in cancer diagnosis, imaging, photodynamic therapy and drug/nano-vaccine delivery. In this regard, water solubility, stability, pH sensitivity, targeting, drug loading and controlled drug release of CSNCs, which have been modified in thiolated, amphiphilic and quaternized derivatives, made these nanocarriers great options to coup with abnormal physiochemical cancer
 
microenvironment, such as acidic pH, redox environment and high temperature. To note, effective CSNC-delivery of anticancer drugs 5-Fluorouracil, Paclitaxel, Docetaxel, Methotrexate and Cisplatin has greatly improved cytotoxicity against glioblastoma, colon, gastric, breast, lung, liver and ovarian carcinoma cells. In addition, our previous experiences indicated that CSNCs could be successfully used for delivery of antibacterial agents like Sodium Ceftriaxone.
CSNCs are attractive nanocarriers with considerable biocompatibility and biodegradability, negligible toxicity and attractive structural changeability that could bridge the gap in conventional cancer chemotherapy and biomedical applications. Noteworthy, CSNCs have the potential to dispatch anticancer agents to cancer cells via targeted approach and evade issues challenged by drug delivery.