Track 1: Stem Cell and Regenerative Medicine

A cell having ability to develop into specialized cell types in body which replace the damaged or lost cells or tissues. Generally, natural stem cells are classified into embryonic stem cells and adult stem cells and the type of stem cells are reprogrammed in the laboratory are Induced Pluripotent Stem Cell. Basing on the efficiency or potency stem cells are classified into Totipotent, Multipotent, Pluripotent, Oligopotent, Unipotent. Stem cell therapy or regenerative medicine is the treatment method which develops methods to regrow repair or replace damaged or diseased cells, organs or tissues.

Track 2: Tissue Engineering and 3D Cell Culture

The procedure in which the cells are grown in an artificial environment separate from the body is called tissue engineering. It is an improvisation of growing cells than methods of 2D cell culture. The cells growing in 3D artificial environment are more relevant and effective than the cells growing in the 2D surface. The basic method of the 3D cell culture leads to the use of scaffolds which are the engineered materials which leads to cellular interaction in new tissues to be functional.

Track 3: Gene and Cell Therapy

Gene therapy is a way to treat the genetic disorders. The variation in gene therapy is focused on somatic gene therapy and germ line gene therapy relating with viral and non-viral vectors. T-cells are the type of lymphocyte cells which are developed in the laboratory to attack the cancer cells. T-cell therapy is nothing but an immune therapy to treat certain kinds of cancer. The nano therapy is a new trend in the field of medicine which uses nanoparticles to delivery drugs to the targeted body part.

Track 4: Ageing Theories in Stem Cell

Ageing is the complex process of deterioration of body functions through involvement of body cells and organs. Basically the ageing theory can be divided into two types – hematopoietic stem cell ageing and hair follicle stem cell ageing. Besides these two theories, the other theories of ageing are evolutionary theory, cellular theory, system theory and molecular theory. With ageing the bone marrow cellularity decreases.

Track 5: Epigenetics and Stem Biology

The study of heritable phenotypic change which does not involve any change or alteration in DNA sequencing is known as Epigenetics.  These changes make modification in certain gene activities like histone modification, adding a methyl group to a part of a DNA molecule. The DNA alterations are not termed as genetic, rather they are called epigenetic.

Track 6: Stem Cell Apoptosis and Signal Transduction

Apoptosis is the cell death which leads to a programming sequence of the elimination of old, unnecessary, unhealthy cells. This process is also known as cell suicide. When a cell commits suicide then the caspases become active. The signal transduction is a process in which the signals are transferred in an organism across the cells. In this process the proteins are termed as the receptors. The protein receptor gets signal through a primary messenger and then, undergoes conformational changes which changes its shape and interacts with molecules surrounding it.

Track 7: Genome Editing Technology

The technology which makes specific changes in the DNA of a cell. Genome editing depends on the double strand DNA break which has two major pathway mechanisms – non-homologous end joining (NHEJ) and homologous directed repair (HDR).  The genome editing technology heads with the processes like CRISPR, TALEN, ZNF and MAGE.

Track 8: Tissue-Engineered Disease Models

Tissue remodeling is a technique of tissue engineering which involves restoration or reprogramming of tissues. It results in the maintenance and growth of the tissues. The cells which undergo pathological processes in observing the diseases of humans or animals is termed as organ models. Tissue engineering makes the improved format of modeling the phenotypes and screening the therapeutic solutions to the particular disease.

Track 9: Clinical Tissues Analysis

Clinical tissue analysis correlates with histopathology which involves the examination of tissues in order to manifest the diseases. The method requires the hematoxylin and eosin (H and E stain) to identify tissues. Tissue analysis includes the method called Automated Tissue Image Analysis which is a computer controlled method in clinical or medical science, pharmaceuticals, etc.

Track 10: Biomaterials and Biomedical Applications

The material or device or equipment required for treatment or for diagnosis is termed as a biomaterial. The biomaterials have broad application in the clinical or medical science. Hence, to study on biomaterials it is termed as biomaterial science and biomaterial engineering which is profoundly related with biomedical as well as research sector. The application of principles of biology and tools of engineering to create usable, tangible, economically viable products is termed as biomedical application of biomaterials.

Track 11: 3D Bio-Printing and Organ Printing

The 3D technique is a tissue imitating technology which combines cells and their growth factors along with biomaterials. It is used in printing tissues, cells, organs, etc. it requires bio-ink to print the tissues, cells and organs structurally layer-layer. The methods of 3D bioprinting include Prebioprinting, Bioprinting and Post bioprinting. Organ printing is categorized as Drop-based Bioprinting and Extrusion bioprinting.

Track 12: Stem Cell Therapy for Musculoskeletal Diseases

Muscle stem cells facilitate the long-term regenerative capacity of skeletal muscle trouble. Neither moderate administration nor careful intercession gives sufficient treatment to a few pathologies. As a part of regenerative medicine, undeveloped cell treatments may beat the poor natural recuperating limit of a few musculoskeletal tissues. Muscle stem cells have significant implications towards the development of pharmacological or cell-based therapies for muscle disorders.

Track 13: Stem cells in regenerative biology

The restricted regenerative limit of the heart is the main consideration in cardiovascular breakdown and demise. When cardiovascular cells are unhealthy, it's difficult for them to mend like your body would with a cut. Considering how the heart shapes in babies and afterward develops is a characteristic advance for scientists keen on producing and recovering heart cells. They're additionally examining the impact of an undifferentiated organism determined cardiovascular cells on fixing harmed hearts and their capability to treat heart muscle infections.

Track 14: Emerging Nanotechnology for Stem Cell Therapy

Nanotechnology in foundational microorganism treatment has developed as an exciting field. Connection contemplates among nanomaterial and Stem cell has made critical advances. The significance of nanotechnology in the major advancements of immature microorganism based treatment for different degenerative sicknesses is clear. Apart from tracking the limitation of foundational microorganisms, nanotechnology has improved targetability, half-life, and solidness of undifferentiated organisms by giving an appropriate microenvironment.

Track 15: Embryonic Stem cell

Embryonic Stem cell is a broad type of Stem cell, which is also known as pluripotent stem cells derived from the inner cell mass of blastocyst, an early stage of pre-implantation embryo. Human embryos consist of 50-150 cells when they reach the blastocyst stage in 4-5 days of post fertilization. The destruction of the blastocyst mainly results in the isolation of the embryo blast or inner cell mass, which ethically raises issues in the post-implantation stage of development whether embryos at the pre-implantation stage should be considered to have the same moral or legal status or not.

Track 16: Cancer Stem cell

Cancer stem cells (CSCs) are the cancer cells found within tumors or haematological regions that possess characteristics related to the normal stem cell. Cancer stem cells specifically have an ability to give rise to all cell types found in a particular cancer sample. CSCs are tumorigenic which form tumors cells; they generate tumors by self-renewal or rapid division of the cells differentiating into multiple cell type. These cells give rise to new tumors by metastasis and relapse caused by hypothesizing the stem cells to persist in tumors as a distinct population.

The global stem cell therapy market is estimated to grow with a CAGR of 27.99% in duration 2019-2025 increasing approach to reach USD 167.34 million. The factors like stem cell preservation or banking globally, target to heart disease, diabetes, neurodegenerative diseases, musculoskeletal disorders, spinal cord injury, stroke, autoimmune diseases, major trauma and their therapeutics, clinical trials and ethics related to the use of stem cell transplants and preservation which grows in expanding and flourishing the global market of stem cell therapy with maximum clinical trials in countries like USA, Iran, South Korea, Australia, China, Spain, Israel, India, Canada, Germany, etc. However, stem cell research using human embryo is illegal in Germany and many other countries.

As per the current reports the Cancer Stem Cell Therapeutics have created effective growth by introducing cell therapy manufacturing, genomic analysis technique and various researches proved the effective transplant of stem cells and their growth factors, with bone marrow transplant with higher success rate in treatment of cancer.

As per sources the stem cells are divided into two types: Differentiated Stem Cells and Undifferentiated Stem and as such are the types of Stem Cell Transplants like Adipose tissue transplant, bone marrow transplant, embryonic stem cell transplant, fibroblast stem cell transplant, mesenchymal stem cell transplant, neural stem cell transplant, placenta stem cells and unfertilized egg stem cell preservation for future transplant when required. Among these various types of transplants the bone marrow transplant is more prominent in therapeutics. Recent researches are going on with the neural, mesenchymal and adipose stem cell transplants.

With the increasing growth in the global market, stem cells and regenerative medicine are setting trends in the field of health and medicine.

Why Kuala Lumpur?

Kuala Lumpur is known as the national capital and the largest city of Malaysia. Malaysia is the entering in the effective scientific researches with other leading countries.As per the Ministry of Health (MOH), the Ampang Hospital is heading in the Stem cell Research by using the Mesenchymal cells and the graft versus host disease (GVHD). Stem Cell Research in maximally associated with anti-ageing treatment using Stem Cells. UKM Medical Centre (UKMMC) Cell Therapy Centre is one the excellent Stem Cell Therapy Centre in Malaysia which includes transplantations like hematopoietic stem cells, lymphocytes, dendritic cells, mesenchymal stem cells and mononuclear cells for the patients who are suffering with blood cancers, bone marrow diseases and degenerative diseases.

Kuala Lumpur has been ranked as one of the New 7 Wonders Cities and named as World Book Capital 2020 by the UNESCO.