Abstract: Provided are a system and method for distributing the digitization of a payment credential to an entity that does not have access to issuer master keys. In one example, the method includes receiving a personalization script for a payment credential, the personalization script generated by an issuer of the payment credential, generating tokenized payment information for the payment credential based on the received personalization script, wherein the tokenized payment information is generated by the digitization entity without having access to issuer master keys (IMKs) of the issuer of the payment credential, and transmitting the tokenized payment information for the payment credential to a digital wallet executing on a user device.

Abstract: A molten salt reactor is disclosed. In some embodiments, the molten salt reactor comprises a containment vessel; a molten salt chamber disposed within the containment vessel; a molten salt mixture disposed within the molten salt chamber; and a heat exchange system at least partially disposed within the molten salt chamber. In some embodiments, the molten salt reactor comprises one or more of a shutdown mechanism, a thermally activated failsafe mechanism, and/or a passive reactivity control system. The shutdown mechanism, for example, may be coupled with the molten salt chamber, the shutdown mechanism comprising a material that when inserted into the molten salt chamber will inhibit fission reactions within the molten salt mixture. The thermally activated failsafe mechanism, for example, may be coupled with the molten salt chamber, the thermally activated failsafe mechanism passively inhibits fission reactions within the molten salt mixture.

Abstract: Some embodiments include a method comprising: flowing a molten salt out of a molten salt reactor at a first temperature, heating the molten salt reactor to a second temperature above the melding point of the second salt mixture causing the second salt mixture to melt; flowing the second salt mixture out of the molten salt reactor; flowing a third salt mixture into the molten salt reactor; and cooling the molten salt reactor from the second temperature to a third temperature causing the third salt mixture to solidify on the interior surface of the housing. In some embodiments, the molten salt may include a first salt mixture comprising at least uranium. In some embodiments, the first temperature is a temperature above the melting point of the first salt mixture.

Abstract: A fluid process application bag includes a flexible film body having an opening, a port plate sealed around the opening of the flexible film body, a sensor fitting and a sensor contained within the sensor fitting. The port plate has a receptacle defining a passage in fluid communication with an interior of the flexible film body and the sensor fitting has a body portion seated within the passage of the receptacle and is coupled to the receptacle. The sensor has at least one probe communicating with the interior of the flexible film body. A collar includes first and second semi-circular members that are connected via a living hinge.

Abstract: A fluid process application bag includes a flexible film body having an opening, a port plate sealed around the opening of the flexible film body, a sensor fitting and a sensor contained within the sensor fitting. The port plate has a receptacle defining a passage in fluid communication with an interior of the flexible film body and the sensor fitting has a body portion seated within the passage of the receptacle and is coupled to the receptacle. The sensor has at least one probe communicating with the interior of the flexible film body.

Abstract: Some embodiments include a method comprising: flowing a molten salt out of a molten salt reactor at a first temperature, heating the molten salt reactor to a second temperature above the melding point of the second salt mixture causing the second salt mixture to melt; flowing the second salt mixture out of the molten salt reactor; flowing a third salt mixture into the molten salt reactor; and cooling the molten salt reactor from the second temperature to a third temperature causing the third salt mixture to solidify on the interior surface of the housing. In some embodiments, the molten salt may include a first salt mixture comprising at least uranium. In some embodiments, the first temperature is a temperature above the melting point of the first salt mixture.

Abstract: A system and method includes transmission of an ultrasound push pulse toward material along a first axis, the ultrasound push pulse associated with a first frequency, a first F number, and a first focal depth, determination of displacement of the material along the axis in response to the push pulse, transmission of a second ultrasound pulse toward the material along the first axis, the second ultrasound pulse associated with a second frequency, a second F number, and a second focal depth substantially similar to the first frequency, the first F number, and the first focal depth, respectively, reception of echo signals from the material in response to the second ultrasound pulse, beamforming of the echo signals based on the first F number and a fixed focus at the first focal depth, determination of a magnitude of the beamformed echo signals along the axis, determination of relative elasticity of the material along the axis based on the determined displacement of the material along the axis and the magnitude o

Abstract: For longitudinal monitoring of a patient using quantitative ultrasound (QUS), one or more indicators of region of interest (ROI) position relative to the patient and one or more images from a past QUS imaging for the patient are stored. The indicator is in addition to an image with the ROI. For subsequent QUS imaging of the patient, the indicator is used to position the ROI. In QUS monitoring, a same or fixed anatomy is monitored from examination-to-examination based on placement of the ROI using a displayed indicator for the previous placement.

Abstract: A fluid process application bag includes a flexible film body having an opening, a port plate sealed around the opening of the flexible film body, a sensor fitting and a sensor contained within the sensor fitting. The port plate has a receptacle defining a passage in fluid communication with an interior of the flexible film body and the sensor fitting has a body portion seated within the passage of the receptacle and is coupled to the receptacle. The sensor has at least one probe communicating with the interior of the flexible film body. A collar includes first and second semi-circular members that are connected via a living hinge.

Abstract: Fat fraction is estimated from shear wave propagation. Acoustic radiation force is used to generate a shear wave in tissue of interest. The attenuation, center frequency, bandwidth or other non-velocity characteristic of the shear wave is calculated and used to estimate the fat fraction.

Abstract: Some embodiments include a molten salt system comprising a reactor with a salt mixture. In some embodiments, the salt mixture includes uranium and a eutectic salt. The eutectic salt may include one or more of sodium fluoride, potassium fluoride, aluminum fluoride, zirconium fluoride, lithium fluoride, beryllium fluoride, rubidium fluoride, magnesium fluoride, calcium fluoride, sodium chloride, potassium chloride, aluminum chloride, zirconium chloride, lithium chloride, beryllium chloride, rubidium chloride, magnesium chloride, and calcium chloride. The eutectic salt may have a melting point less than about 800° C.

Abstract: Some embodiments include a method comprising: flowing a molten salt out of a molten salt reactor at a first temperature, heating the molten salt reactor to a second temperature above the melding point of the second salt mixture causing the second salt mixture to melt; flowing the second salt mixture out of the molten salt reactor; flowing a third salt mixture into the molten salt reactor; and cooling the molten salt reactor from the second temperature to a third temperature causing the third salt mixture to solidify on the interior surface of the housing. In some embodiments, the molten salt may include a first salt mixture comprising at least uranium. In some embodiments, the first temperature is a temperature above the melting point of the first salt mixture.

Abstract: A gate latch assembly including an actuating member, a moveable rod, and a strike plate. The actuating member transfers movement of a first handle to a second handle. The actuating member includes a cam surface which interacts with the moveable rod to transition the gate latch assembly from a locked configuration to an unlocked configuration. A biasing element biases the actuating member.

Abstract: A fluid process application bag includes a flexible film body having an opening, a port plate sealed around the opening of the flexible film body, a sensor fitting and a sensor contained within the sensor fitting. The port plate has a receptacle defining a passage in fluid communication with an interior of the flexible film body and the sensor fitting has a body portion seated within the passage of the receptacle and is coupled to the receptacle. The sensor has at least one probe communicating with the interior of the flexible film body.

Abstract: A fluid process application bag includes a flexible film body having an opening, a port plate sealed around the opening of the flexible film body, a sensor fitting and a sensor contained within the sensor fitting. The port plate has a receptacle defining a passage in fluid communication with an interior of the flexible film body and the sensor fitting has a body portion seated within the passage of the receptacle and is coupled to the receptacle. The sensor has at least one probe communicating with the interior of the flexible film body.

Abstract: Some embodiments include an chemical separation mechanism for a molten salt reactor where the molten salt may include fission products. In some embodiments, the chemical separation mechanism includes a molten salt receptacle with a molten salt disposed within, a solvent receptacle having a solvent disposed within; an electrode; and an electrode mechanism. In some embodiments, the electrode mechanism may be configured to submerse the electrode into the molten salt receptacle such that a chemical reaction occurs between the electrode and one or more of the fission products in the molten salt. In some embodiments, the electrode mechanism may submerse the electrode into the solvent receptacle such that a chemical reaction occurs resulting in one or more of the fission products being deposited into the solvent.

Abstract: Systems and methods are provided for utilizing an MRI image and real-time an ultrasound images to guide and/or restrict the movement of an ultrasound probe in position for collecting a biopsy core. A real-time ultrasound image is acquired and fused with pre-operative imaging modalities, such as an MRI image, to provide a three-dimensional model of the prostate. A multi-link robotic arm is provided with an end-effector and an ultrasound probe mounted thereto. Sensor information is used to track the ultrasound probe position with respect to the 3D model. The robotic arm allows for the implementation of a virtual remote center of motion (VRCM) about the transrectal probe tip, an adjustable compliant mode for the physician triggered movement of probe, a restrictive trajectory of joints of the robotic arm and active locking for stationary imaging of the prostate.

Abstract: Classification preprocessing is provided for medical ultrasound shear wave imaging. In response to stress, the displacement at one or more locations in a patient is measured. The displacement over time is a curve representing a shift in location. One or more characteristics of the curve, such as signal-to-noise ratio and maximum displacement, are used to classify the location. The location is classified as fluid or fluid tissue, solid tissue, or non-determinative. Subsequent shear imaging may provide shear information for locations of solid tissue and not at other locations.

Abstract: To accurately generate the three-dimensional ultrasound data and/or determine the position of the ultrasound scan relative to pre-operative data, a tracking sensor is releasably connected with the ultrasound probe. The connection positions the tracking sensor near a distal end of the probe for insertion into the patient. A needle guide may be similarly releasably connected with the probe and, at least in part, inserted into the patient.

Abstract: A system and method includes transmission of an ultrasound push pulse toward material along a first axis, the ultrasound push pulse associated with a first frequency, a first F number, and a first focal depth, determination of displacement of the material along the axis in response to the push pulse, transmission of a second ultrasound pulse toward the material along the first axis, the second ultrasound pulse associated with a second frequency, a second F number, and a second focal depth substantially similar to the first frequency, the first F number, and the first focal depth, respectively, reception of echo signals from the material in response to the second ultrasound pulse, beamforming of the echo signals based on the first F number and a fixed focus at the first focal depth, determination of a magnitude of the beamformed echo signals along the axis, determination of relative elasticity of the material along the axis based on the determined displacement of the material along the axis and the magnitude o