3D-технологии: Тренды СМИ и реальностьTop 3D ShopВ этой презентации мы подробно рассмотрим тренды 3D-технологий в СМИ, и что на самом деле печатают и сканируют
Сферы применения технологий 3D-печати и 3D-сканирования в РФ 2015 - Top 3D ShopTop 3D Shop3D печать - новая и активно развивающаяся отрасль, привлекающая к себе с каждым годом все больше профессионалов из разных областей: Производство, Медицина, Ювелирное дело, Макетирование, Дизайн, Архитектура и многие другие.
Мы объединили наши знания и опыт и собрали всю необходимую информацию для ответа на вопрос "Как применяются технологии 3D-печати и 3D-сканирования?" в России в одной презентации.
NBIC - Конвергенция технологий как методологическая основа прогнозирования и ...Danila MedvedevNano-Bio-Info-Cogno, Данила Медведев
с форума "Проекты будущего", 2006
Доступное решение по производству Элайнеров в своей клиникеTop 3D ShopНа сегодняшний день компанией Top 3D Shop разработано две схемы работы:
Оптимальная схема .
Подразумевает частичную закупку оборудования для 3D-печати, 3D-сканирования и формовки кап и удаленное сканирование слепка и моделирование цикла лечения полученных цифровых моделей, с последующим предоставлением файлов для 3Д печати c партнером Top 3D Shop - Star Smile
Максимальная схема
Позволяет проводить весь цикл производства элайнеров в Вашей лаборатории, включая работу с CAD ПО для моделирования плана лечения самостоятельно
Мы готовы подготовить схему специально для вашей клиники, с учетом уже имеющегося оборудования и ПО
Наше решение не имеет Аналогов на рынке РФ
Biomedical Transducer: Inertial SensorsDaniele AntonioliBasic theory of accelerometer, gyroscope and magnetometer. Newton’s law
of Classical Mech. Inertial and non inertial reference system: centrifugal,
Coriolis and Euler forces. IMU hardware description. Static IMU’s Noise
evaluation: mean and std deviation in all axis w.r.t. data sheet. Drift effect
in MATLAB. Sit-to-stand experiment with 2 IMUs: development of an
algorithm able to estimate the duration of stand-up, sit-down and variation
of the bending angles.
Transducers for bio medicalSLIETThis document provides an overview of transducers for biomedical applications. It defines transducers as devices that convert one form of energy into another for measurement purposes. It classifies transducers as active or passive, analog or digital, and primary or secondary. It also discusses various transducer principles including capacitive, inductive, resistive, and piezoelectric. The document then focuses on specific biomedical applications, describing transducers used to measure electrical activity, blood pressure, blood flow, temperature, respiration, and pulse. Common transducer types for these applications include electrodes, strain gauges, inductive sensors, capacitive sensors, thermistors, and fiber optic sensors.
Bio Medical Engineering Harindu Chathuranga KoralaBiomedical engineering is the application of engineering principles and design concepts to medicine and biology. It seeks to close the gap between engineering and medicine by designing products and procedures that solve medical problems, such as artificial organs, prostheses, medical instrumentation, and health systems. Biomedical engineers work with doctors and scientists to develop and apply technology including designing equipment to analyze blood samples, creating artificial hearts and skin grafts, and developing prosthetic hips and devices to repair bones.
Biomedical engineering and recent trendsHanzelah KhanThis document provides an overview of biomedical engineering, including its applications, classifications, sub-disciplines, recent trends, and career prospects. Biomedical engineering applies engineering principles to healthcare for purposes like diagnosis, monitoring, and therapy. It combines engineering with medical and biological sciences. Recent trends include advances in medical imaging, biomechanics, biomaterials, rehabilitation engineering, and bioinstrumentation. Biomedical engineering offers excellent job prospects and earning potential, with a projected 10-year job growth of 72 percent.
Organ and bio 3D printingCarsten EngelThis document discusses 3D bioprinting and its potential applications. It begins with definitions of bioprinting and discusses its goals in tissue engineering. Current achievements are summarized, including the first 3D printed bladder in 2006 and liver in 2009. Requirements for organ bioprinting are outlined, including cell sources, scaffold materials, and bioprinting technologies. The document concludes that bioprinting has potential to help address the shortage of organs for transplantation.
Biomedical engineering (BME)Tapeshwar YadavThis document provides an overview of biomedical engineering. It begins by defining biomedical engineering as the application of engineering principles, techniques and methods to solve medical and biological problems. It then discusses the diversity in related terminology and the roles of medical engineers, clinical engineers and bioengineers. The document outlines several branches of biomedical engineering including biomechanics, biomaterials, medical devices and clinical engineering. It concludes by discussing the relationships between biomedical engineering and other fields like medicine, physics, and various engineering disciplines.
Biomedical instrumentation PPTabhi1802vermaThis document provides an overview of biomedical instrumentation. It discusses how instrumentation is used to monitor and control process variables for measurement and control. Biomedical instrumentation specifically creates instruments to measure, record, and transmit data to and from the body. Some key types of biomedical instrumentation systems are direct/indirect, invasive/noninvasive, contact/remote for sensing and actuating in real-time or statically. Several important instruments are discussed in detail, including X-rays, electrocardiography, magnetic resonance imaging, ultrasound, and computed tomography. The document outlines the basic workings, advantages, and disadvantages of these key biomedical instruments.
3D Printing: Endless OpportunitiesInstitute of Customer ExperienceThis document discusses 3D printing technology. It begins with a brief overview of how 3D printing works by building objects layer by layer from a digital file. It then provides a history of 3D printing, highlighting key developments. Examples are given of different uses for 3D printing, such as concept modeling, functional prototyping, manufacturing tools, end use parts, and more. Projections for significant growth in the 3D printing industry are mentioned. Notable 3D printer manufacturers and specific printer models are listed, along with potential future applications and scenarios involving 3D printing technology.
About Top 3D Shop 2017Top 3D ShopTop 3D Shop is the largest 3D printing company in Russia, founded in 2013 in Saint-Petersburg and having since opened branches in Moscow and Ekaterinburg. It is the official distributor of over 50 3D printing brands and has over 80,000 customers and 3,000 resellers throughout Russia, employing 40 personnel including sales and support staff. The company aims to achieve $10 million in revenue by 2017 through providing a wide range of 3D printing and modeling services as well as education and support.
NBIC - Конвергенция технологий как методологическая основа прогнозирования и ...Danila MedvedevNano-Bio-Info-Cogno, Данила Медведев
с форума "Проекты будущего", 2006
Доступное решение по производству Элайнеров в своей клиникеTop 3D ShopНа сегодняшний день компанией Top 3D Shop разработано две схемы работы:
Оптимальная схема .
Подразумевает частичную закупку оборудования для 3D-печати, 3D-сканирования и формовки кап и удаленное сканирование слепка и моделирование цикла лечения полученных цифровых моделей, с последующим предоставлением файлов для 3Д печати c партнером Top 3D Shop - Star Smile
Максимальная схема
Позволяет проводить весь цикл производства элайнеров в Вашей лаборатории, включая работу с CAD ПО для моделирования плана лечения самостоятельно
Мы готовы подготовить схему специально для вашей клиники, с учетом уже имеющегося оборудования и ПО
Наше решение не имеет Аналогов на рынке РФ
Biomedical Transducer: Inertial SensorsDaniele AntonioliBasic theory of accelerometer, gyroscope and magnetometer. Newton’s law
of Classical Mech. Inertial and non inertial reference system: centrifugal,
Coriolis and Euler forces. IMU hardware description. Static IMU’s Noise
evaluation: mean and std deviation in all axis w.r.t. data sheet. Drift effect
in MATLAB. Sit-to-stand experiment with 2 IMUs: development of an
algorithm able to estimate the duration of stand-up, sit-down and variation
of the bending angles.
Transducers for bio medicalSLIETThis document provides an overview of transducers for biomedical applications. It defines transducers as devices that convert one form of energy into another for measurement purposes. It classifies transducers as active or passive, analog or digital, and primary or secondary. It also discusses various transducer principles including capacitive, inductive, resistive, and piezoelectric. The document then focuses on specific biomedical applications, describing transducers used to measure electrical activity, blood pressure, blood flow, temperature, respiration, and pulse. Common transducer types for these applications include electrodes, strain gauges, inductive sensors, capacitive sensors, thermistors, and fiber optic sensors.
Bio Medical Engineering Harindu Chathuranga KoralaBiomedical engineering is the application of engineering principles and design concepts to medicine and biology. It seeks to close the gap between engineering and medicine by designing products and procedures that solve medical problems, such as artificial organs, prostheses, medical instrumentation, and health systems. Biomedical engineers work with doctors and scientists to develop and apply technology including designing equipment to analyze blood samples, creating artificial hearts and skin grafts, and developing prosthetic hips and devices to repair bones.
Biomedical engineering and recent trendsHanzelah KhanThis document provides an overview of biomedical engineering, including its applications, classifications, sub-disciplines, recent trends, and career prospects. Biomedical engineering applies engineering principles to healthcare for purposes like diagnosis, monitoring, and therapy. It combines engineering with medical and biological sciences. Recent trends include advances in medical imaging, biomechanics, biomaterials, rehabilitation engineering, and bioinstrumentation. Biomedical engineering offers excellent job prospects and earning potential, with a projected 10-year job growth of 72 percent.
Organ and bio 3D printingCarsten EngelThis document discusses 3D bioprinting and its potential applications. It begins with definitions of bioprinting and discusses its goals in tissue engineering. Current achievements are summarized, including the first 3D printed bladder in 2006 and liver in 2009. Requirements for organ bioprinting are outlined, including cell sources, scaffold materials, and bioprinting technologies. The document concludes that bioprinting has potential to help address the shortage of organs for transplantation.
Biomedical engineering (BME)Tapeshwar YadavThis document provides an overview of biomedical engineering. It begins by defining biomedical engineering as the application of engineering principles, techniques and methods to solve medical and biological problems. It then discusses the diversity in related terminology and the roles of medical engineers, clinical engineers and bioengineers. The document outlines several branches of biomedical engineering including biomechanics, biomaterials, medical devices and clinical engineering. It concludes by discussing the relationships between biomedical engineering and other fields like medicine, physics, and various engineering disciplines.
Biomedical instrumentation PPTabhi1802vermaThis document provides an overview of biomedical instrumentation. It discusses how instrumentation is used to monitor and control process variables for measurement and control. Biomedical instrumentation specifically creates instruments to measure, record, and transmit data to and from the body. Some key types of biomedical instrumentation systems are direct/indirect, invasive/noninvasive, contact/remote for sensing and actuating in real-time or statically. Several important instruments are discussed in detail, including X-rays, electrocardiography, magnetic resonance imaging, ultrasound, and computed tomography. The document outlines the basic workings, advantages, and disadvantages of these key biomedical instruments.
3D Printing: Endless OpportunitiesInstitute of Customer ExperienceThis document discusses 3D printing technology. It begins with a brief overview of how 3D printing works by building objects layer by layer from a digital file. It then provides a history of 3D printing, highlighting key developments. Examples are given of different uses for 3D printing, such as concept modeling, functional prototyping, manufacturing tools, end use parts, and more. Projections for significant growth in the 3D printing industry are mentioned. Notable 3D printer manufacturers and specific printer models are listed, along with potential future applications and scenarios involving 3D printing technology.
About Top 3D Shop 2017Top 3D ShopTop 3D Shop is the largest 3D printing company in Russia, founded in 2013 in Saint-Petersburg and having since opened branches in Moscow and Ekaterinburg. It is the official distributor of over 50 3D printing brands and has over 80,000 customers and 3,000 resellers throughout Russia, employing 40 personnel including sales and support staff. The company aims to achieve $10 million in revenue by 2017 through providing a wide range of 3D printing and modeling services as well as education and support.