Abstract: A light detecting device includes a photoelectric conversion unit configured to generate a photoelectric charge, a first charge holding unit that includes a first capacitive element and holds the photoelectric charge generated by the photoelectric conversion unit, a second charge holding unit configured to hold the photoelectric charge transferred from the first charge holding unit, a first transistor arranged on a wiring connecting the first charge holding unit and the second charge holding unit to transfer the photoelectric charge held in the first charge holding unit to the second charge holding unit, and a second transistor configured to cause a pixel signal of a voltage value corresponding to a charge amount of the photoelectric charge held in the second charge holding unit to appear on a signal line.

Abstract: An apparatus appropriately corrects a defective pixel of a radiation image in a radiation imaging apparatus having a function of AEC, both when performing AEC and when not performing AEC, the apparatus selecting a defect map from a first image defect map in which a defective pixel (line), which is a group of defective linear pixels, is not included in a region of interest for detecting the dose of radiation in a pixel region in order to perform an AEC pertaining to stopping of irradiation of radiation, and a second image defect map in which a defective pixel (line) which is a group of defective linear pixels, is included in a region of interest, depending on whether or not an AEC is performed, and corrects the radiation image using the selected defect map.

Abstract: A pixel includes a photosensitive circuit, a sense node, a first transistor and a first capacitor. A first electrode of the first capacitor is connected to a control terminal of the first transistor. A second electrode of the first capacitor is to a node of application of a first control signal.

Abstract: The present disclosure relates to a medical imaging system having an X-ray source, a detector and a processing system. The the X-ray source is collimated to produce a diverging beam of radiation and transmits X-rays through an object. The detector includes detector pixels arranged in at least one row and is operative to receive the X-ray energy of the X-rays after having passed through the object. The processing system is programmed to select an initial height of the object with respect to the X-ray source plane and determine an initial time delayed summation (TDS) shift frequency based on the initial height. The processing system performs a first scan of the object based on the TDS shift frequency and determines a new height of the object based on a beam angle and an overlap of adjacent images. A new TDS shift frequency is determined based on the new height of the object if the initial height and the new height are not substantially same.

Abstract: In an embodiment a pixel arrangement includes at least one photodiode configured to convert electromagnetic radiation into a respective charge signal, a transfer gate between the photodiode and a capacitance for transferring the respective charge signal to the capacitance, a reset gate electrically coupled to the capacitance, the reset gate configured to reset the capacitance, an amplifier electrically connected to the capacitance and configured to generate, based on the respective charge signal and on a sensitivity mode, a respective amplified signal being a low sensitivity signal or a high sensitivity signal, respectively, wherein the low sensitivity signal and the high sensitivity signal are based on a common noise level, a first capacitor configured to store the high sensitivity signal, a second capacitor configured to store the low sensitivity signal, a first switch between an output terminal of the amplifier and the first capacitor and a second switch between the output terminal of the amplifier and the

Abstract: Advertisements are tailored not only to a person's profile but also to the context in which the person finds himself. Thus, for example a video-based advertisement may be reformatted or reprovisioned in audio format when the person is driving, while an audio-based advertisement may be reformatted or reprovisioned to video format in noisy conditions.

Abstract: According to one embodiment, the X-ray diagnosis apparatus includes an X-ray detector, X-ray diaphragm apparatus, and processing circuitry controlling the X-ray diaphragm apparatus to shield the X-rays from passing through a X-ray filter outside an aperture region or a partial region during a transition from first fluoroscopy employing an X-ray filter to second fluoroscopy employing diaphragm blades, generating a first and second fluoroscopic image during the first and second fluoroscopy respectively, generating a composite image during the second fluoroscopy by combining a non-ROI image of the first fluoroscopic image and a ROI image of the second fluoroscopic image, and displaying the first fluoroscopic image and the composite image on the display during the first and second fluoroscopy respectively.

Abstract: An imaging system includes radiation source that emits radiation that traverses an examination region and a portion of a subject therein and a detector array that detects radiation that traverses the examination region and the portion of the subject therein and generates a signal indicative thereof. A volume scan parameter recommender recommends at least one spectral scan parameter value for a volume scan of the portion of the subject based on a spectral decomposition of first and second 2D projections acquired by the radiation source and detector array. The first and second 2D projections have different spectral characteristics. A console employs the recommended at least one spectral scan parameter value to perform the volume scan of the portion of the subject.

Abstract: A method for conveying one or more predictive indicators of an imaging control parameter is provided. The method includes: obtaining an initial image acquisition via an imaging system based at least in part on an initial configuration of the imaging system; collecting data regarding the imaging control parameter during the initial image acquisition; and generating the one or more predictive indicators based at least in part on the collected data. Each of the one or more predictive indicators corresponds to a calculated value of the imaging control parameter associated with a potential configuration of the imaging system different from the initial configuration.

Abstract: Apparatus and methods are described including inserting a tool into a blood vessel, and, while the tool is within the blood vessel, acquiring an extraluminal image of the blood vessel. In the extraluminal image of the blood vessel, a location of a portion of the tool with respect to the blood vessel is detected automatically. In response to detecting the location of the portion of the tool, a target portion of the blood vessel that is in a vicinity of the portion of the tool is designated automatically. Using the extraluminal image, quantitative vessel analysis is performed on the target portion of the blood vessel. Other embodiments are also described.

Abstract: A catheter system is provided. The system includes a catheter having an elongated flexible body and one or more electroactive polymer actuators disposed along the elongated flexible body. The electroactive polymer actuators are adapted to cause a change in configuration of the elongated flexible body. The system also includes a controller adapted to transmit the control signal to the electroactive polymer actuators. The controller includes a memory storing a plurality of control signals corresponding to a plurality of predetermined configurations of the catheter and a user-interface coupled to the memory. The user-interface is configured to select one or more configurations from the plurality of predetermined configurations in response to user input.