'Focus' p7 Searchterm 'Focus' found in 55 articles 4 terms [ • ] - 51 definitions [• ] Result Pages : •
EchoGen® is a fluorocarbon-based (dodecafluoropentane) third generation USCA. EchoGen® consists of microbubbles stabilized with surfactants in a phase shift colloid emulsion (perflenapent). EchoGen® requires no preparation, reconstitution, or refrigeration.
Perflenapent emulsion would represent a significant advance in contrast echocardiography caused by effective and long lasting opacification of the left ventricle and enhanced endocardial border delineation. The persistence of the contrast effect permits interrogation in multiple echocardiographic views, as well as the visualization and localization of myocardial perfusion deficits at rest by producing a negative contrast effect. October 12, 2000 Sonus Pharmaceuticals, Inc. announced a strategic decision to refocus the Company on the development of its drug delivery and blood substitute products. At the same time, Sonus has withdrawn the NDA (New Drug Application) and discontinued clinical activity for its ultrasound contrast product, EchoGen®. August 06, 2001 Sonus Pharmaceuticals, Inc. announced that it has entered into an agreement to sell its ultrasound contrast assets for $6.5 million to Amersham plc. As part of the agreement, Sonus has also assigned to Nycomed its interest in the ultrasound contrast patent license agreement entered into with Chugai Pharmaceutical Co. Ltd. and Molecular Biosystems Inc in January 2001.
Drug Information and Specification
RESEARCH NAME
QW3600
DEVELOPER
INDICATION -
DEVELOPMENT STAGE APPLICATION
Intravenous
TYPE
Microbubble
-
CHARGE
Negative
Dodecafluoropentane
MICROBUBBLE SIZE
-
PRESENTATION
-
STORAGE
Refrigerate 2−8 °C
PREPARATION
Finished product
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Environmental protection in ultrasound imaging involves adopting practices and technologies that minimize the environmental impact associated with the use of ultrasound equipment and disposables. Here are some key considerations: •
Energy Efficiency: Opt for energy-efficient ultrasound machines and equipment that are designed to minimize energy consumption. This helps reduce the overall environmental impact associated with power usage. •
Digitalization and Paper Reduction: Embrace digital imaging and archiving systems to reduce reliance on paper. Storing images and reports electronically minimizes paper consumption, printing supplies, and physical storage space. •
Waste Management: Implement proper waste management practices for ultrasound-related disposables, such as ultrasound gel bottles, probe covers, and cleaning materials. Follow local regulations for the disposal of medical waste and prioritize recycling and responsible disposal methods. •
Equipment Lifespan and Disposal: Choose ultrasound equipment known for its durability and longevity. Maximizing the lifespan of equipment reduces the frequency of replacements, minimizing electronic waste generation. When disposing of old equipment, ensure proper recycling and disposal in accordance with local regulations. •
Education and Awareness: Promote education and awareness among ultrasound professionals about environmentally conscious practices. Encourage staff to adopt energy-saving habits, such as turning off equipment when not in use, and emphasize the importance of responsible waste management. Develop standardized and optimized examination protocols to minimize the duration and number of ultrasound scans required per patient. This helps reduce the energy consumption associated with prolonged imaging sessions and decreases the overall environmental impact. By focusing on energy efficiency, digitalization, waste management, equipment lifespan, and education, healthcare facilities can make significant strides towards reducing their carbon footprint and the environmental impact of ultrasound imaging practices. See also Ultrasound System Performance, Equipment Preparation, Ultrasound Accessories and Supplies and Sonographer. •
From ESAOTE S.p.A.; 'The wide range of OB/GYN and general ultrasound applications defines the Falco as an all-around ultrasound system, perfectly suited for health care practitioners worldwide. Although it is a compact and portable system, the Falco is equipped with the latest in imaging software, including Esaote's CRII Technology, Total Image Focus and Fine Line Processing.' •
From Fukuda Denshi Co., Ltd.; 'Fully software controlled Image Processing (F-XT technology) Color Doppler & Power Doppler display available Autofocus function for transmission High-resolution SVGA display Cine memory with 128 frames Wide band Probe for multi frequency function 6-step STC adjustment DICOM-compatible Ethernet port 3.5-inch 640MB drive for image filing' •
Fetal ultrasound is a safe and non-invasive imaging technique used to visualize and monitor the development of a fetus during pregnancy. It employs high-frequency sound waves to create detailed images of the baby, the placenta, and the uterus. Fetal ultrasound provides valuable information about the baby's growth, organ development, and overall well-being. It is commonly used to determine gestational age, assess fetal anatomy, detect abnormalities, and monitor fetal movements and heart rate. This essential tool enables healthcare professionals to ensure the optimal health of both the mother and the baby throughout the pregnancy. The FDA (Food and Drug Administration) has established regulations governing ultrasound usage, including specific guidelines for fetal ultrasound examinations. These regulations permit an eight-fold increase in ultrasound intensity for fetal scans. They place considerably responsibility on the user to understand the output measurements, the mechanical index (MI), the thermal index (TI) and to use them in their scanning. The primary safety concern in prenatal diagnostic imaging is temperature rise. It is known that hyperthermia is teratogenic. The efforts of investigators have concentrated on defining the temperature increases and exposure times which may give rise to biological effects and on determining the ultrasound levels which might, in turn, lead to those temperature rises. In fetal ultrasound, the highest temperature increase would be expected to occur at bone and the thermal index with bone at/near the focus (TIB) would give the 'worst case' conditions. The mechanical index and thermal index must be displayed if the ultrasound system is capable of exceeding an index of 1. The displayed indices are based on the manufacturer's experimental and modeled data. However, an independent study has demonstrated significant discrepancies over declared spatial peak time averaged intensity (I-SPTA) output of up to 400%. See also ALARA Principle, Pregnancy Ultrasound and Doppler Fluximetry in Pregnancy. Further Reading: Basics:
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