Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Prospects of 3D Bioprinting as a Possible Treatment for Cancer Cachexia

View through CrossRef
Cancer cachexia is a multifactorial syndrome that is identified by ongoing muscle atrophy, along with functional impairment, anorexia, weakness, fatigue, anemia, reduced tolerance to antitumor treatments. Thus, reducing the patients’ quality of life. Cachexia alone causes about 22-25% of cancer deaths. This review covers the symptoms, mediators, available treatment, and prospects of 3D bioprinting for cancer cachexia. Studies about cachexia have shown several factors that drive this disease – protein breakdown, inflammatory cytokines activation, and mitochondrial alteration. Even with proper nutrition, physical exercises, anti-inflammatory agents, chemotherapy, and grafting attempts, standard treatment has been unsuccessful for cachexia. But the use of 3D bioprinting shows much promise compared to conventional methods by attempting to fabricate 3D constructs mimicking the native muscle tissues. In this review, some 3D bioprinting techniques with their advantages and drawbacks, along with their achievements and challenges in in-vivo applications have been discussed. Constructs with neural integration or muscle-tendon units aim to repair muscle atrophy. But it is still difficult to properly bio-print these complex muscles. Although progress can be made by developing new bio-inks or 3D printers to fabricate high-resolution constructs. Using secondary data, this review study shows prospects of why 3D bioprinting can be a good alternate approach to fight cachexia.
Title: Prospects of 3D Bioprinting as a Possible Treatment for Cancer Cachexia
Description:
Cancer cachexia is a multifactorial syndrome that is identified by ongoing muscle atrophy, along with functional impairment, anorexia, weakness, fatigue, anemia, reduced tolerance to antitumor treatments.
Thus, reducing the patients’ quality of life.
Cachexia alone causes about 22-25% of cancer deaths.
This review covers the symptoms, mediators, available treatment, and prospects of 3D bioprinting for cancer cachexia.
Studies about cachexia have shown several factors that drive this disease – protein breakdown, inflammatory cytokines activation, and mitochondrial alteration.
Even with proper nutrition, physical exercises, anti-inflammatory agents, chemotherapy, and grafting attempts, standard treatment has been unsuccessful for cachexia.
But the use of 3D bioprinting shows much promise compared to conventional methods by attempting to fabricate 3D constructs mimicking the native muscle tissues.
In this review, some 3D bioprinting techniques with their advantages and drawbacks, along with their achievements and challenges in in-vivo applications have been discussed.
Constructs with neural integration or muscle-tendon units aim to repair muscle atrophy.
But it is still difficult to properly bio-print these complex muscles.
Although progress can be made by developing new bio-inks or 3D printers to fabricate high-resolution constructs.
Using secondary data, this review study shows prospects of why 3D bioprinting can be a good alternate approach to fight cachexia.

Related Results

Effect of preoperative cancer cachexia on postoperative sarcopenia in patients with non-small cell lung cancer
Effect of preoperative cancer cachexia on postoperative sarcopenia in patients with non-small cell lung cancer
Abstract Purpose Many patients with lung cancer have cancer cachexia, which may result in complications and affect prognosis; however, its preoperative prevalence is unkno...
Abstract 1886: Metabolic alterations associated with pancreatic cancer-induced cachexia.
Abstract 1886: Metabolic alterations associated with pancreatic cancer-induced cachexia.
Abstract Cachexia, a metabolic syndrome, leads to loss of muscle weight and fat tissues. Cancer-induced cachexia accounts for nearly 20% of all cancer-related deaths...
INTELLECTUAL PROPERTY RIGHTS FOR 3D BIOPRINTING IN MALAYSIA
INTELLECTUAL PROPERTY RIGHTS FOR 3D BIOPRINTING IN MALAYSIA
Additive manufacturing in the field of tissue engineering has evolved rapidly over the past few decades. 3D bioprinting is an extendedapplication of additive manufacturing that inv...
Edoxaban and Cancer-Associated Venous Thromboembolism: A Meta-analysis of Clinical Trials
Edoxaban and Cancer-Associated Venous Thromboembolism: A Meta-analysis of Clinical Trials
Abstract Introduction Cancer patients face a venous thromboembolism (VTE) risk that is up to 50 times higher compared to individuals without cancer. In 2010, direct oral anticoagul...
Are Cervical Ribs Indicators of Childhood Cancer? A Narrative Review
Are Cervical Ribs Indicators of Childhood Cancer? A Narrative Review
Abstract A cervical rib (CR), also known as a supernumerary or extra rib, is an additional rib that forms above the first rib, resulting from the overgrowth of the transverse proce...
3D bioprinting–a step towards heart tissue regeneration
3D bioprinting–a step towards heart tissue regeneration
Heart disease and cardiovascular disease is a very serious and growing public health issue. Tissue-engineering has great potential and great strength for regeneration, remolding, a...
Bioprinting technologies in ophthalmology
Bioprinting technologies in ophthalmology
Bioprinting allows additive fabrication of bioengineered constructs with defined two- or three-dimensional organization using live cells, biopolymers and other materials. This arti...

Back to Top