3D Bioprinting
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3D bioprinting uses layer-by-layer deposition of bioinks, which are cells or tissues engineered to be part of an organ or other tissue, to fabricate structures that mimic natural tissue characteristics. Bioinks can be deposited to create tissue-like structures for use in medical and tissue engineering applications. These applications include joint replacements, bone plates, intraocular lenses, bone cement, artificial ligaments and tendons, dental implants, blood vessel prostheses, heart valves, skin repair devices, cochlear replacements, contact lenses, breast implants, drug delivery mechanisms, vascular grafts, stents, nerve conduits, surgical sutures and staples, pins and screws for fracture stabilization, and surgical mesh.
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PERIOCULAR RECOGNITION USING REDUCED FEATURES
Biometrics is science of measuring and statistically analyzing biological data. Biometric system establishes identity of a person based on unique physical or behavioural characteristic possessed by an individual.Behavioural biometrics measures characteristics which are acquired naturally over time. Physical biometrics measures inherent physical characteristics on a n individual. Over the last few decades enormous attention is drawn towards ocular biometrics. Cues provided by ocular region have led to exploration of newer traits. Feasibility of periocular region as a useful biometric trait has been explored recently. With the promising results of preliminary examination, research towards periocular region is currently gaining lot of prominence. Researchers have analyzed various techniques of feature extraction and classification in the periocular region. The current paper investigates the effect of using Lower Central Periocular Region (LCPR) for identification. The results obtained are comparable with those acquired for the entire periocular region with an advantage of reduced periocular area
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establishes identity of a person based on unique physical or behavioral characteristic possessed
by an individual. Behavioral biometrics measures characteristics which are acquired naturally
over time. Physical biometrics measures inherent physical characteristics on an individual.
Over the last few decades enormous attention is drawn towards ocular biometrics. Cues
provided by ocular region have led to exploration of newer traits. Feasibility of periocular
region as a useful biometric trait has been explored recently. With the promising results of
preliminary examination, research towards periocular region is currently gaining lot of
prominence. Researchers have analyzed various techniques of feature extraction and
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Periocular Region (LCPR) for identification. The results obtained are comparable with those
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AN EXPLORATION OF PERIOCULAR REGION WITH REDUCED REGION FOR AUTHENTICATION : ...
Biometrics is science of measuring and statistically analyzing biological data. Biometric system establishes identity of a person based on unique physical or behavioral characteristic possessed by an individual. Behavioral biometrics measures characteristics which are acquired naturally over time. Physical biometrics measures inherent physical characteristics on an individual. Over the last few decades enormous attention is drawn towards ocular biometrics. Cues provided by ocular region have led to exploration of newer traits. Feasibility of periocular region as a useful biometric trait has been explored recently. With the promising results of preliminary examination, research towards periocular region is currently gaining lot of
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region as a useful biometric trait has been explored recently. With the promising results of
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3D bio printing is the process of creating cell patterns in a confined space using 3D printing technologies.
3D bio printing is the layer by layer method to deposit materials known as bioinks to create tissue like structure.
Currently, bioprinting can be used to print tissues and organs to help research drug and pills.
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Bio printing is an automated, computer-aided process of layer-by-layer deposition of biological materials to manufacture functional human organs. It was developed by Gabor Forgacs to address the shortage of donor organs, as each day 79 people receive organs but 18 will die waiting. The main methods are laser-based, extrusion-based, and inkjet-based. Applications include printing parts of hearts and faces, as well as liver tissue. Advantages are eliminating organ transplant waitlists and producing higher survival rates. However, challenges remain in ensuring organs can functionally integrate into the human body and reducing the high costs.
3 d bioprinting
3D bioprinting uses 3D printing technology to print biological materials and tissues. It has potential applications in medicine such as printing organs, blood vessels and prosthetics. Proponents argue it could help address shortages of donated organs and tissues. However, critics note challenges remain such as high costs, lack of regulation and ensuring quality control. If these challenges can be overcome, 3D bioprinting may transform medicine by enabling customized prosthetics and tissues and reducing wait times for organ transplants.
3D Bioprinting
It has been expleined in these slides that how 3D bioprinters work and some of them have been introdused. Also some examples of use 3D bioprinter in reality are introduced.
Finally feature of 3D bioprinters in human life has been explained.
3D Bioprinting
3D bioprinting has potential to revolutionize medicine by enabling the creation of organs and tissues for transplantation. It allows for customized prosthetics and could decrease costs and wait times for organ transplants. Further development of the technology may one day enable the printing of more complex organs like kidneys and livers directly in patients. However, challenges remain such as ensuring quality control of bioprinted organs and regulating the industry.
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3D bioprinting uses inkjet-based or laser-based systems to deposit "bioink" droplets containing living cells or biomaterials layer by layer according to digital designs. This allows for the reproduction of human tissues and organs. Multiple printheads can deposit different cell types. A company called CELL-INK has developed a universal bioink for printing 3D tissue models. While a kidney transplant costs $80,000, bioprinting a kidney would cost $280,000 but take around 10 hours. Bioprinting offers customization and personalization but faces challenges regarding organ quality and costs, though it provides opportunities in new software, materials and customized designs.
3D BIOPRINTING
3D bioprinting is a process that uses 3D printing technologies to deposit bioinks containing living cells in layers to create tissue structures while maintaining cell viability. It has applications in printing tissues and organs, drug testing, and scaffolds. The process involves pre-bioprinting steps like obtaining medical scans and preparing cells and bioinks, bioprinting which deposits the materials layer by layer, and post-bioprinting incubation and stimulation to develop cell interactions and tissue growth. There are three main bioprinting approaches - biomimicry which duplicates natural structures, self-assembly using embryonic development models, and mini-tissue building blocks. Inkjet and robotic printers are commonly used to deposit materials. Ch
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Increasing the efficacy of drugs and at the same time reducing the chances of adverse reaction should be the aim of drug development, which can be achieved by using 3D printing to fabricate personalized medications
Drugs with narrow therapeutic index can easily be prepared using 3D printing; and, by knowing the patient’s pharmacogenetic profile and other characteristics like age, race etc., optimal dosage can be given to the patient.
3D printing technology is a valuable and potential tool for the pharmaceutical sector, leading to personalized medicine focused on the patients’ needs. It offers numerous advantages, such as increasing the cost efficiency and the manufacturing speed. 3D printing has revolutionized the way in which manufacturing is done. It improves the design manufacturing and reduces lead time and tooling cost for new products.
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- The 3D bioprinting process involves pre-processing to design structures, processing to print layers of bioink, and post-processing for the structures to mature.
- Developing effective bioinks is a current challenge limiting bioprinting's potential to produce organs for transplants.
Three dimensional bioprinting in orthopaedics
3D bioprinting shows promise for applications in orthopaedics such as cartilage and bone regeneration. For cartilage, bioprinting can replicate the complex zonal structure of native tissue by printing cells and extracellular matrix layer-by-layer. For bone, combinations of biomaterials in hybrid scaffolds can mimic native bone properties. Bioprinting is also being explored for meniscus, intervertebral discs, and other orthopaedic tissues to address limitations of current treatment options.
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Medical applications of 3D printing are expanding rapidly and may revolutionize healthcare. Current uses include creating customized prosthetics and implants, anatomical models for surgery planning, and complex drug dosage forms through various printing techniques like selective laser sintering and inkjet printing. Researchers are working to develop organ printing through layer-by-layer deposition of living cells and biomaterials. While significant advances have been made, the most transformative applications like full organ printing will require more time and addressing remaining scientific and regulatory challenges.
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3D bio printing is the process of creating cell patterns in a confined space using 3D printing technologies.
3D bio printing is the layer by layer method to deposit materials known as bioinks to create tissue like structure.
Currently, bioprinting can be used to print tissues and organs to help research drug and pills.
Organ printing (or) Bio Printing
Bio printing is an automated, computer-aided process of layer-by-layer deposition of biological materials to manufacture functional human organs. It was developed by Gabor Forgacs to address the shortage of donor organs, as each day 79 people receive organs but 18 will die waiting. The main methods are laser-based, extrusion-based, and inkjet-based. Applications include printing parts of hearts and faces, as well as liver tissue. Advantages are eliminating organ transplant waitlists and producing higher survival rates. However, challenges remain in ensuring organs can functionally integrate into the human body and reducing the high costs.
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Finally feature of 3D bioprinters in human life has been explained.
3D Bioprinting
3D bioprinting has potential to revolutionize medicine by enabling the creation of organs and tissues for transplantation. It allows for customized prosthetics and could decrease costs and wait times for organ transplants. Further development of the technology may one day enable the printing of more complex organs like kidneys and livers directly in patients. However, challenges remain such as ensuring quality control of bioprinted organs and regulating the industry.
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The document discusses 3D printing of pharmaceuticals. It begins with definitions of 3D printing and describes the basic 3D printing process of designing an object digitally, exporting the file, and fabricating the object through successive layers of material. Current trends and an example of a 3D printed drug tablet are mentioned. Advantages include reduced production time and costs. Applications discussed include organ and tissue engineering, medical research and education, surgical planning, and drug delivery through 3D printed devices. The future of 3D printing in India is promising with a projected growth of 20% and establishment of new facilities.
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3 d printed prosthetics
3D bioprinting uses inkjet-based or laser-based systems to deposit "bioink" droplets containing living cells or biomaterials layer by layer according to digital designs. This allows for the reproduction of human tissues and organs. Multiple printheads can deposit different cell types. A company called CELL-INK has developed a universal bioink for printing 3D tissue models. While a kidney transplant costs $80,000, bioprinting a kidney would cost $280,000 but take around 10 hours. Bioprinting offers customization and personalization but faces challenges regarding organ quality and costs, though it provides opportunities in new software, materials and customized designs.
3D BIOPRINTING
3D bioprinting is a process that uses 3D printing technologies to deposit bioinks containing living cells in layers to create tissue structures while maintaining cell viability. It has applications in printing tissues and organs, drug testing, and scaffolds. The process involves pre-bioprinting steps like obtaining medical scans and preparing cells and bioinks, bioprinting which deposits the materials layer by layer, and post-bioprinting incubation and stimulation to develop cell interactions and tissue growth. There are three main bioprinting approaches - biomimicry which duplicates natural structures, self-assembly using embryonic development models, and mini-tissue building blocks. Inkjet and robotic printers are commonly used to deposit materials. Ch
3D printing in pharmaceuticals
Increasing the efficacy of drugs and at the same time reducing the chances of adverse reaction should be the aim of drug development, which can be achieved by using 3D printing to fabricate personalized medications
Drugs with narrow therapeutic index can easily be prepared using 3D printing; and, by knowing the patient’s pharmacogenetic profile and other characteristics like age, race etc., optimal dosage can be given to the patient.
3D printing technology is a valuable and potential tool for the pharmaceutical sector, leading to personalized medicine focused on the patients’ needs. It offers numerous advantages, such as increasing the cost efficiency and the manufacturing speed. 3D printing has revolutionized the way in which manufacturing is done. It improves the design manufacturing and reduces lead time and tooling cost for new products.
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NASA and other space agencies have been using 3D technology or additive manufacturing to create and help create things that are usable in space.
3d printing in cars
3D printing is increasingly being used to produce cars and car parts. The Strati, produced in 2014, was the world's first electric car to make extensive use of 3D printing in its production. Other cars that have had 3D printed parts include the Lotus 340R and Daihatsu Copen. The Blade supercar has 3D printed nodes connecting its carbon fiber tubing. Additional 3D printed cars are the EDAG Light Cocoon, Local Motors LM3D, and others. Companies are relying on 3D printing not just for prototyping but also to reduce costs and make lighter cars. Well known car prototypes produced using 3D printing include the Urbee, Elvis' BMW 507,
3 d printing in military and defense
The United States military has widely adopted 3D printing technology for defense purposes. They have established 3D printing facilities called Fablabs, especially in remote areas like Afghanistan, to print parts for vehicles. The military uses 3D printing to create prototypes for various vehicles, weapons, guns, missiles, and drones. Different branches of the US military have incorporated 3D printing for aircraft repairs, mission-specific drone development, and construction of expeditionary structures. Overall, 3D printing is enhancing military defenses for the US and other countries around the world.
3D Printing In Education
Schools and universities are now implementing 3D printing technology to learn other subjects and courses.
3D printing in Asia
Here's an overview of how Asia and countries in it like India, Japan, and Singapore use the 3D printing technology.
Stereolithography (SLA)
Stereolithography, also known as SLA or SL, is an early type of 3D printing technology that solidifies liquid resin into layers using an ultra-violet laser to photocure photopolymer resin according to a pre-programmed design, allowing for the creation of 3D objects in a layer-by-layer process similar to FDM. SLA can be used to produce medical models, prototypes, patterns, production parts, and jewelry.
Selective Laser Sintering (SLS)
SLS or Selective Laser Sintering is one of the most commonly used 3D printing technology. It uses a powdered material to a solid 3D-printed product.
Fused Deposition Modeling (FDM)
Fused deposition modeling (FDM) is an additive manufacturing technique that uses thermoplastics to build 3D objects layer by layer through a nozzle. The thermoplastic filament is heated and deposited on the build platform to form the desired shapes. Common thermoplastics used in FDM include acrylonitrile butadiene styrene (ABS), polycarbonate (PC), nylon, and polyphenylsulfone (PPSF). FDM can be used for modeling, prototyping, and final production parts in industries like aerospace, automotive, medical, and consumer products.
History of 3D Printing
Rapid prototyping was first patented in Japan in the 1980s. Charles Hull then patented Stereolithography in 1986 and founded 3D Systems Corporation, releasing the first Stereolithography Apparatus (SLA-1) machine. In the 1980s and 1990s, other technologies like selective laser sintering (SLS) and fused deposition modeling (FDM) were developed. Early commercial 3D printers allowed for new applications in manufacturing, engineering, and medicine. By the 2010s, 3D printing had grown significantly in popularity due to lower printer costs and an expiration of early patents, with new applications in prosthetics, food printing, and aerospace.
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