Abstract:
An exemplary ultrasonic image processing system includes an ultrasonic transmitting apparatus, an ultrasonic receiving apparatus, a front-end processing circuit and a computer. The front-end processing circuit is electrically coupled to an ultrasonic probe through the ultrasonic transmitting apparatus and the ultrasonic receiving apparatus respectively. The computer is electrically coupled to the front-end processing circuit. The computer includes a central processing unit (CPU) and a graphics processing unit (GPU). The system employs the CPU to control the operations of the ultrasonic transmitting apparatus and the ultrasonic receiving apparatus through the front-end processing circuit, so as to acquire ultrasound scanning data. The system further employs the GPU to perform an image reconstruction process on the acquired ultrasound scanning data by way of multi-thread process, so as to generate an image display data. Moreover, a corresponding ultrasonic image processing method is also disclosed.
Abstract:
An exemplary automatic ultrasonic scanning system and a scanning method of the same are disclosed. The automatic ultrasonic scanning system includes a multi-axis robot arm, an ultrasonic scan head disposed on the multi-axis robot arm, a control circuit for controlling the multi-axis robot arm, a three-dimensional image capturing apparatus and a computer. The computer senses a tested object through the three-dimensional image capturing apparatus, creates a three-dimensional shape of the tested object, and plans a three-dimensional scanning path according to the three-dimensional shape. According to the three-dimensional scanning path the computer further controls the multi-axis robot arm to perform a multi-axis motion through the control circuit, so as performs a three-dimensional scan on the tested object through the ultrasonic scan head, and constructs an ultrasonic image according to a reflected ultrasonic signal received by the ultrasonic scan head consequently.
Abstract:
An exemplary ultrasonic diagnostic system includes a portable ultrasonic diagnostic apparatus and a cloud computing system. The portable ultrasonic diagnostic apparatus includes an ultrasonic sensing unit, a front-end circuit, a data compression unit and a communication unit. The ultrasonic sensing unit is configured to sense a signal reflected from a measured object. The front-end circuit is configured to perform a pre-processing on an output of the ultrasonic sensing unit. The data compression unit is configured to receive an output of the front-end circuit and determine whether to perform a data compression process on the output of the front-end circuit according to a selected result. The communication unit is configured to receive an output of the data compression unit and further transmit the output of the data compression unit to the cloud computing system.
Abstract:
A photoacoustic imaging system comprising a coded laser emitting apparatus and a photoacoustic signal receiving apparatus is provided. The coded laser emitting apparatus comprises an encoding unit, a signal generating unit and a laser light source. The encoding unit is used for generating a coded signal. The signal generating unit is used for generating a modulated signal according to the coded signal. The laser light source is used for generating a laser pulse having a specific coded waveform according to the modulated signal. The photoacoustic signal receiving apparatus comprises a photoacoustic signal receiving unit and a decoding unit. The photoacoustic signal receiving unit is used for receiving a photoacoustic signal generated by an object having received the laser pulse and converts the photoacoustic signal into an electrical signal. The decoding unit is used for performing a decoding operation on the aforementioned electrical signal to generate a decoding result, so that a back-end circuit can construct a photoacoustic image according to the decoding result.
Abstract:
An exemplary ultrasonic diagnostic system includes a portable ultrasonic diagnostic apparatus and a cloud computing system. The portable ultrasonic diagnostic apparatus includes an ultrasonic sensing unit, a front-end circuit, a data compression unit and a communication unit. The ultrasonic sensing unit is configured to sense a signal reflected from a measured object. The front-end circuit is configured to perform a pre-processing on an output of the ultrasonic sensing unit. The data compression unit is configured to receive an output of the front-end circuit and determine whether to perform a data compression process on the output of the front-end circuit according to a selected result. The communication unit is configured to receive an output of the data compression unit and further transmit the output of the data compression unit to the cloud computing system.
Abstract:
A medical imaging system and a medical imaging method thereof are provided. The medical imaging method includes the following steps: acquiring an ultrasound image and a photoacoustic image; and overlapping the ultrasound image and the photoacoustic image to generate an overlapped image.
Abstract:
A wireless power transmission system includes a wireless power transmitting apparatus and a wireless power receiving apparatus. The wireless power transmitting apparatus includes a signal generator and an ultrasonic transmitting unit. The ultrasonic transmitting unit generates and outputs a focused ultrasonic wave according to a signal outputted from the signal generator. The wireless power receiving apparatus includes an ultrasonic receiving unit and a power conversion unit. The ultrasonic receiving unit receives the focused ultrasonic wave outputted from the wireless power transmitting apparatus and converts the focused ultrasonic wave into electrical power energy. The power conversion unit performs a power conversion on the electrical power energy and thereby provides the converted electrical power energy to a back-end circuit. The ultrasonic signal can also be encoded in the transmitting unit and subsequently decoded in the receiving unit as a means to remotely control the back-end circuit in the receiving unit.
Abstract:
An ultrasonic scanhead including an encoder, a pivot, a voice coil motor, and a transducer is provided. The encoder includes a fixed element and a rotary element. The rotary element is disposed at the fixed element and capable of rotating about a first axis. The pivot is through the encoder and capable of rotating with the rotary element. The pivot extends along a second axis and has a first end and a second end opposite to the first end. The voice coil motor includes a stator and a mover. The first end of the pivot is connected to the mover. The mover is capable of moving linearly along a third axis. The first axis, the second axis, and the third axis are substantially perpendicular to each other. The transducer is disposed at the second end of the pivot and capable of emitting an ultrasonic wave.