Listing 1 - 10 of 14 | << page >> |
Sort by
|
Choose an application
The optical fiber industry is emerging from the market for selling simple accessories using optical fiber to the new optical-IT convergence sensor market combined with high value-added smart industries such as the bio industry. Among them, fiber optic sensors and fiber lasers are growing faster and more accurately by utilizing fiber optics in various fields such as shipbuilding, construction, energy, military, railway, security, and medical.This Special Issue aims to present novel and innovative applications of sensors and devices based on fiber optic sensors and fiber lasers, and covers a wide range of applications of optical sensors. In this Special Issue, original research articles, as well as reviews, have been published.
optical microfiber coupler --- graphene --- fiber laser --- filter --- wavelength-swept laser --- cholesteric liquid crystal --- bandpass filter --- spectral reflectance --- airway management --- endotracheal tube placement --- tissue detection --- tracheal tissue --- esophageal tissue --- intubation --- endotracheal tube misplacement --- weak fiber Bragg gratings --- distributed fiber optic sensor --- phi-OTDR --- nitrate sensing --- optical fibre --- PEDOT --- conducting polymer --- 2H–TaSe2 nano-materials --- metallic band structure --- saturable absorber --- dual-wavelength --- red palm weevil --- fiber optic acoustic sensing --- machine learning --- few-mode fiber --- fiber optic sensors --- Brillouin scattering --- distributed measurement --- fiber lasers --- semiconductor optical amplifier --- dynamic measurement --- dynamic optical fiber sensors --- ultrafast fiber laser --- low-dimensional materials --- optically/electrically controlled fiber lasers
Choose an application
The optical fiber industry is emerging from the market for selling simple accessories using optical fiber to the new optical-IT convergence sensor market combined with high value-added smart industries such as the bio industry. Among them, fiber optic sensors and fiber lasers are growing faster and more accurately by utilizing fiber optics in various fields such as shipbuilding, construction, energy, military, railway, security, and medical.This Special Issue aims to present novel and innovative applications of sensors and devices based on fiber optic sensors and fiber lasers, and covers a wide range of applications of optical sensors. In this Special Issue, original research articles, as well as reviews, have been published.
Research & information: general --- optical microfiber coupler --- graphene --- fiber laser --- filter --- wavelength-swept laser --- cholesteric liquid crystal --- bandpass filter --- spectral reflectance --- airway management --- endotracheal tube placement --- tissue detection --- tracheal tissue --- esophageal tissue --- intubation --- endotracheal tube misplacement --- weak fiber Bragg gratings --- distributed fiber optic sensor --- phi-OTDR --- nitrate sensing --- optical fibre --- PEDOT --- conducting polymer --- 2H–TaSe2 nano-materials --- metallic band structure --- saturable absorber --- dual-wavelength --- red palm weevil --- fiber optic acoustic sensing --- machine learning --- few-mode fiber --- fiber optic sensors --- Brillouin scattering --- distributed measurement --- fiber lasers --- semiconductor optical amplifier --- dynamic measurement --- dynamic optical fiber sensors --- ultrafast fiber laser --- low-dimensional materials --- optically/electrically controlled fiber lasers --- optical microfiber coupler --- graphene --- fiber laser --- filter --- wavelength-swept laser --- cholesteric liquid crystal --- bandpass filter --- spectral reflectance --- airway management --- endotracheal tube placement --- tissue detection --- tracheal tissue --- esophageal tissue --- intubation --- endotracheal tube misplacement --- weak fiber Bragg gratings --- distributed fiber optic sensor --- phi-OTDR --- nitrate sensing --- optical fibre --- PEDOT --- conducting polymer --- 2H–TaSe2 nano-materials --- metallic band structure --- saturable absorber --- dual-wavelength --- red palm weevil --- fiber optic acoustic sensing --- machine learning --- few-mode fiber --- fiber optic sensors --- Brillouin scattering --- distributed measurement --- fiber lasers --- semiconductor optical amplifier --- dynamic measurement --- dynamic optical fiber sensors --- ultrafast fiber laser --- low-dimensional materials --- optically/electrically controlled fiber lasers
Choose an application
Laser welding is a high-energy process used in a wide range of advanced materials to obtain micro- to macro-sized joints in both similar and dissimilar combinations. Moreover, this technique is widely used in several industries, such as automotive, aerospace, and medical industries, as well as in electrical devices. Although laser welding has been used for several decades, significant and exciting innovations often arise from both the process and/or advanced materials side.
n/a --- tensile strength --- microstructure --- aided electric current --- stainless steel --- accuracy --- porosity control --- laser offset welding --- T-joint --- BTi-6431S --- dissimilar metal --- finite element method --- weld pool behavior --- dissimilar welding --- WPP --- laser welds --- HLAW --- fiber laser --- steel S700MC --- conduction regime --- liquid metal --- buy-to-fly --- EBSD phase mapping --- mass transfer --- mechanical properties --- hardness --- MAG --- phase transformation --- prediction --- LKW --- Ti-5Al-5V-5Mo-3Cr --- laser beam --- laser welding-brazing --- DP1000 steel --- Ti–6Al–4V --- titanium --- low alloyed steel --- H-shaped fusion zone --- pulsed Nd:YAG laser beam welding --- spatter --- high-speed imaging --- weld morphology --- high temperature titanium alloy --- Al/steel joints --- hybrid welding --- dissimilar material --- laser beam welding --- intermetallic layer --- WW --- L-joint --- penetration --- laser stake welding --- laser keyhole welding --- trip steel --- finite element analysis --- laser welding --- magnesium alloy thin sheet --- keyhole --- tensile properties --- dissimilar joining --- IMC layers --- SKM --- fiber laser welding --- aluminium --- dual phase steel --- aluminum alloy T-joint
Choose an application
The landscape of minimally invasive urological intervention is changing. A lot of new innovations and technological developments have happened over the last 3 decades. Laparoscopy and robotic surgery have revolutionised kidney and prostate cancer treatment, with more minimally invasive procedures now being carried out than ever before. At the same time, technological advancements and the use of laser have changed the face of endourology. Several new innovative treatments are now commonplace for benign prostate enlargement (BPE). Management of prostate cancer now involves procedures such as robotic prostatectomy, brachytherapy, radiotherapy, cryotherapy and HIFU. Robotic partial nephrectomy and cryotherapy have changed the face of renal cancer. En-bloc resection of bladder cancer is challenging the traditional management of non-muscle invasive bladder cancer and becoming commonplace, while robotic cystectomy is also gaining popularity for muscle invasive bladder cancer. Newer surgical intervention related to BPE includes laser (holmium, thulium and green light), water-based treatment (Rezum, Aquablation) and other minimally invasive procedures such as prostate artery embolisation (PAE) and Urolift. Endourological procedures have incorporated newer laser types and settings such as moses technology, disposable ureteroscopes (URS) and minimisation of percutaneous nephrolithotomy (PCNL) instruments. All these technological innovations and improvements have led to shorter hospital stay, reduced cost, potential reduction in complications and improvement in the quality of life (QoL).
Medicine --- Surgery --- partial nephrectomy --- single site surgery --- sutureless --- CEUS --- contrast-enhanced ultrasound --- renal ultrasound --- image quality --- small renal mass (3–5) --- kidney stones --- metabolic syndrome --- urolithiasis --- nephrolithiasis --- kidney calculi --- diabetes mellitus --- acute kidney injury --- percutaneous nephrolithotomy --- urology --- artificial intelligence --- machine learning --- urinary incontinence --- kidney stone disease --- fertility --- reproductive urology --- renal cell carcinoma --- hydronephrosis --- urinary reflux --- endourology --- pediatric urology --- prostate cancer --- bladder cancer --- nephrostomy --- quality of life --- survival --- decision making --- ureteroscopy --- laser --- RIRS --- Moses --- holmium --- mineral water --- mineral composition --- drinking water --- still water --- sparkling water --- Ho:YAG laser --- thulium fiber laser --- laser fiber --- lithotripsy --- chronic prostatitis --- chronic pelvic pain syndrome --- extracorporeal shockwave therapy --- ESWT --- NIH-CPSI --- EHS --- IIEF-5 --- QoL --- urosepsis --- laser lithotripsy --- predictor factors --- PCNL --- renal tumour --- AI --- TFL --- partial nephrectomy --- single site surgery --- sutureless --- CEUS --- contrast-enhanced ultrasound --- renal ultrasound --- image quality --- small renal mass (3–5) --- kidney stones --- metabolic syndrome --- urolithiasis --- nephrolithiasis --- kidney calculi --- diabetes mellitus --- acute kidney injury --- percutaneous nephrolithotomy --- urology --- artificial intelligence --- machine learning --- urinary incontinence --- kidney stone disease --- fertility --- reproductive urology --- renal cell carcinoma --- hydronephrosis --- urinary reflux --- endourology --- pediatric urology --- prostate cancer --- bladder cancer --- nephrostomy --- quality of life --- survival --- decision making --- ureteroscopy --- laser --- RIRS --- Moses --- holmium --- mineral water --- mineral composition --- drinking water --- still water --- sparkling water --- Ho:YAG laser --- thulium fiber laser --- laser fiber --- lithotripsy --- chronic prostatitis --- chronic pelvic pain syndrome --- extracorporeal shockwave therapy --- ESWT --- NIH-CPSI --- EHS --- IIEF-5 --- QoL --- urosepsis --- laser lithotripsy --- predictor factors --- PCNL --- renal tumour --- AI --- TFL
Choose an application
In this book, you will find information on new materials and new welding technologies. Problems related to the welding of difficult-to-weld materials are considered and solved. The latest welding technologies and processes are presented. This book provides an opportunity to learn about the latest trends and developments in the welding industry. Enjoy reading.
Technology: general issues --- laser cladding --- cryogenic conditions --- Fe-based coatings --- fiber laser --- molybdenum alloy --- welding --- status --- progress --- high-energy ball milling --- soldering --- joining --- microstructure --- interface --- Kovar alloy --- DM305 electronic glass --- glass solder --- low temperature sealing --- tin --- electrochemical migration --- dendrite --- inhibitor --- heat dissipation --- interfacial heat transfer --- SLID --- Cu/Ga --- low temperature bonding --- thermal interface material (TIM) --- spray-deposited Al-Cu-Li alloy --- GTAW --- welded joint --- performance analysis --- heat resistant steels --- post-weld heat treatment --- mechanical properties --- stainless steels --- weldability --- aggressive environments --- marine environments --- heat input --- laser welding --- amorphous alloy --- weld quality --- three-dimensional metal waveguide components --- ultrasonic welding --- electron backscattered diffraction (EBSD) --- finite element method --- recrystallization --- civil engineering --- mechanical engineering --- transport --- smart city --- micro-jet welding --- mechanical resistance --- mini-specimen --- fracture --- fatigue limit --- laser cladding --- cryogenic conditions --- Fe-based coatings --- fiber laser --- molybdenum alloy --- welding --- status --- progress --- high-energy ball milling --- soldering --- joining --- microstructure --- interface --- Kovar alloy --- DM305 electronic glass --- glass solder --- low temperature sealing --- tin --- electrochemical migration --- dendrite --- inhibitor --- heat dissipation --- interfacial heat transfer --- SLID --- Cu/Ga --- low temperature bonding --- thermal interface material (TIM) --- spray-deposited Al-Cu-Li alloy --- GTAW --- welded joint --- performance analysis --- heat resistant steels --- post-weld heat treatment --- mechanical properties --- stainless steels --- weldability --- aggressive environments --- marine environments --- heat input --- laser welding --- amorphous alloy --- weld quality --- three-dimensional metal waveguide components --- ultrasonic welding --- electron backscattered diffraction (EBSD) --- finite element method --- recrystallization --- civil engineering --- mechanical engineering --- transport --- smart city --- micro-jet welding --- mechanical resistance --- mini-specimen --- fracture --- fatigue limit
Choose an application
The landscape of minimally invasive urological intervention is changing. A lot of new innovations and technological developments have happened over the last 3 decades. Laparoscopy and robotic surgery have revolutionised kidney and prostate cancer treatment, with more minimally invasive procedures now being carried out than ever before. At the same time, technological advancements and the use of laser have changed the face of endourology. Several new innovative treatments are now commonplace for benign prostate enlargement (BPE). Management of prostate cancer now involves procedures such as robotic prostatectomy, brachytherapy, radiotherapy, cryotherapy and HIFU. Robotic partial nephrectomy and cryotherapy have changed the face of renal cancer. En-bloc resection of bladder cancer is challenging the traditional management of non-muscle invasive bladder cancer and becoming commonplace, while robotic cystectomy is also gaining popularity for muscle invasive bladder cancer. Newer surgical intervention related to BPE includes laser (holmium, thulium and green light), water-based treatment (Rezum, Aquablation) and other minimally invasive procedures such as prostate artery embolisation (PAE) and Urolift. Endourological procedures have incorporated newer laser types and settings such as moses technology, disposable ureteroscopes (URS) and minimisation of percutaneous nephrolithotomy (PCNL) instruments. All these technological innovations and improvements have led to shorter hospital stay, reduced cost, potential reduction in complications and improvement in the quality of life (QoL).
Medicine --- Surgery --- partial nephrectomy --- single site surgery --- sutureless --- CEUS --- contrast-enhanced ultrasound --- renal ultrasound --- image quality --- small renal mass (3–5) --- kidney stones --- metabolic syndrome --- urolithiasis --- nephrolithiasis --- kidney calculi --- diabetes mellitus --- acute kidney injury --- percutaneous nephrolithotomy --- urology --- artificial intelligence --- machine learning --- urinary incontinence --- kidney stone disease --- fertility --- reproductive urology --- renal cell carcinoma --- hydronephrosis --- urinary reflux --- endourology --- pediatric urology --- prostate cancer --- bladder cancer --- nephrostomy --- quality of life --- survival --- decision making --- ureteroscopy --- laser --- RIRS --- Moses --- holmium --- mineral water --- mineral composition --- drinking water --- still water --- sparkling water --- Ho:YAG laser --- thulium fiber laser --- laser fiber --- lithotripsy --- chronic prostatitis --- chronic pelvic pain syndrome --- extracorporeal shockwave therapy --- ESWT --- NIH-CPSI --- EHS --- IIEF-5 --- QoL --- urosepsis --- laser lithotripsy --- predictor factors --- PCNL --- renal tumour --- AI --- TFL
Choose an application
In this book, you will find information on new materials and new welding technologies. Problems related to the welding of difficult-to-weld materials are considered and solved. The latest welding technologies and processes are presented. This book provides an opportunity to learn about the latest trends and developments in the welding industry. Enjoy reading.
Technology: general issues --- laser cladding --- cryogenic conditions --- Fe-based coatings --- fiber laser --- molybdenum alloy --- welding --- status --- progress --- high-energy ball milling --- soldering --- joining --- microstructure --- interface --- Kovar alloy --- DM305 electronic glass --- glass solder --- low temperature sealing --- tin --- electrochemical migration --- dendrite --- inhibitor --- heat dissipation --- interfacial heat transfer --- SLID --- Cu/Ga --- low temperature bonding --- thermal interface material (TIM) --- spray-deposited Al-Cu-Li alloy --- GTAW --- welded joint --- performance analysis --- heat resistant steels --- post-weld heat treatment --- mechanical properties --- stainless steels --- weldability --- aggressive environments --- marine environments --- heat input --- laser welding --- amorphous alloy --- weld quality --- three-dimensional metal waveguide components --- ultrasonic welding --- electron backscattered diffraction (EBSD) --- finite element method --- recrystallization --- civil engineering --- mechanical engineering --- transport --- smart city --- micro-jet welding --- mechanical resistance --- mini-specimen --- fracture --- fatigue limit
Choose an application
The landscape of minimally invasive urological intervention is changing. A lot of new innovations and technological developments have happened over the last 3 decades. Laparoscopy and robotic surgery have revolutionised kidney and prostate cancer treatment, with more minimally invasive procedures now being carried out than ever before. At the same time, technological advancements and the use of laser have changed the face of endourology. Several new innovative treatments are now commonplace for benign prostate enlargement (BPE). Management of prostate cancer now involves procedures such as robotic prostatectomy, brachytherapy, radiotherapy, cryotherapy and HIFU. Robotic partial nephrectomy and cryotherapy have changed the face of renal cancer. En-bloc resection of bladder cancer is challenging the traditional management of non-muscle invasive bladder cancer and becoming commonplace, while robotic cystectomy is also gaining popularity for muscle invasive bladder cancer. Newer surgical intervention related to BPE includes laser (holmium, thulium and green light), water-based treatment (Rezum, Aquablation) and other minimally invasive procedures such as prostate artery embolisation (PAE) and Urolift. Endourological procedures have incorporated newer laser types and settings such as moses technology, disposable ureteroscopes (URS) and minimisation of percutaneous nephrolithotomy (PCNL) instruments. All these technological innovations and improvements have led to shorter hospital stay, reduced cost, potential reduction in complications and improvement in the quality of life (QoL).
partial nephrectomy --- single site surgery --- sutureless --- CEUS --- contrast-enhanced ultrasound --- renal ultrasound --- image quality --- small renal mass (3–5) --- kidney stones --- metabolic syndrome --- urolithiasis --- nephrolithiasis --- kidney calculi --- diabetes mellitus --- acute kidney injury --- percutaneous nephrolithotomy --- urology --- artificial intelligence --- machine learning --- urinary incontinence --- kidney stone disease --- fertility --- reproductive urology --- renal cell carcinoma --- hydronephrosis --- urinary reflux --- endourology --- pediatric urology --- prostate cancer --- bladder cancer --- nephrostomy --- quality of life --- survival --- decision making --- ureteroscopy --- laser --- RIRS --- Moses --- holmium --- mineral water --- mineral composition --- drinking water --- still water --- sparkling water --- Ho:YAG laser --- thulium fiber laser --- laser fiber --- lithotripsy --- chronic prostatitis --- chronic pelvic pain syndrome --- extracorporeal shockwave therapy --- ESWT --- NIH-CPSI --- EHS --- IIEF-5 --- QoL --- urosepsis --- laser lithotripsy --- predictor factors --- PCNL --- renal tumour --- AI --- TFL
Choose an application
Machine learning is extending its applications in various fields, such as image processing, the Internet of Things, user interface, big data, manufacturing, management, etc. As data are required to build machine learning networks, sensors are one of the most important technologies. In addition, machine learning networks can contribute to the improvement in sensor performance and the creation of new sensor applications. This Special Issue addresses all types of machine learning applications related to sensors and imaging. It covers computer vision-based control, activity recognition, fuzzy label classification, failure classification, motor temperature estimation, the camera calibration of intelligent vehicles, error detection, color prior model, compressive sensing, wildfire risk assessment, shelf auditing, forest-growing stem volume estimation, road management, image denoising, and touchscreens.
star image --- image denoising --- reinforcement learning --- maximum likelihood estimation --- mixed Poisson–Gaussian likelihood --- machine learning-based classification --- non-uniform foundation --- stochastic analysis --- vehicle–pavement–foundation interaction --- forest growing stem volume --- coniferous plantations --- variable selection --- texture feature --- random forest --- red-edge band --- on-shelf availability --- semi-supervised learning --- deep learning --- image classification --- machine learning --- explainable artificial intelligence --- wildfire --- risk assessment --- Naïve bayes --- transmission-line corridors --- image encryption --- compressive sensing --- plaintext related --- chaotic system --- convolutional neural network --- color prior model --- object detection --- piston error detection --- segmented telescope --- BP artificial neural network --- modulation transfer function --- computer vision --- intelligent vehicles --- extrinsic camera calibration --- structure from motion --- convex optimization --- temperature estimation --- BLDC --- electric machine protection --- touchscreen --- capacitive --- display --- SNR --- stylus --- laser cutting --- quality monitoring --- artificial neural network --- burr formation --- cut interruption --- fiber laser --- semi-supervised --- fuzzy --- noisy --- real-world --- plankton --- marine --- activity recognition --- wearable sensors --- imbalanced activities --- sampling methods --- path planning --- Q-learning --- neural network --- YOLO algorithm --- robot arm --- target reaching --- obstacle avoidance
Choose an application
In this book, you will find information on new materials and new welding technologies. Problems related to the welding of difficult-to-weld materials are considered and solved. The latest welding technologies and processes are presented. This book provides an opportunity to learn about the latest trends and developments in the welding industry. Enjoy reading.
laser cladding --- cryogenic conditions --- Fe-based coatings --- fiber laser --- molybdenum alloy --- welding --- status --- progress --- high-energy ball milling --- soldering --- joining --- microstructure --- interface --- Kovar alloy --- DM305 electronic glass --- glass solder --- low temperature sealing --- tin --- electrochemical migration --- dendrite --- inhibitor --- heat dissipation --- interfacial heat transfer --- SLID --- Cu/Ga --- low temperature bonding --- thermal interface material (TIM) --- spray-deposited Al-Cu-Li alloy --- GTAW --- welded joint --- performance analysis --- heat resistant steels --- post-weld heat treatment --- mechanical properties --- stainless steels --- weldability --- aggressive environments --- marine environments --- heat input --- laser welding --- amorphous alloy --- weld quality --- three-dimensional metal waveguide components --- ultrasonic welding --- electron backscattered diffraction (EBSD) --- finite element method --- recrystallization --- civil engineering --- mechanical engineering --- transport --- smart city --- micro-jet welding --- mechanical resistance --- mini-specimen --- fracture --- fatigue limit
Listing 1 - 10 of 14 | << page >> |
Sort by
|