Abstract: A system for MR Elastography of a sample, including ultrasound gel to sheath the sample, a vessel to accept the flow of the sample sheathed in ultrasound gel, a sensor array adapted to capture an ultrasound measurement and an MR measurement, wherein the sensor array including an ultrasound transmitter and an ultrasound receiver, and the sensor array is coupled to the vessel, and the vessel is capable of mechanical conductance between the ultrasound transducers, and the ultrasound gel, and a pump to create a pressure based flow of ultrasound fluid through the vessel and move the sample in proximity to the sensor array for capture of MR and ultrasound measurements of the sample as the sheathed sample passes by the sensor array.

Abstract: A system for MR Elastography of a sample, including ultrasound gel to sheath the sample, a vessel to accept the flow of the sample sheathed in ultrasound gel, a sensor array adapted to capture an ultrasound measurement and an MR measurement, wherein the sensor array including an ultrasound transmitter and an ultrasound receiver, and the sensor array is coupled to the vessel, and the vessel is capable of mechanical conductance between the ultrasound transducers, and the ultrasound gel, and a pump to create a pressure based flow of ultrasound fluid through the vessel and move the sample in proximity to the sensor array for capture of MR and ultrasound measurements of the sample as the sheathed sample passes by the sensor array.

Abstract: An apparatus for use in a magnetic resonance (MR) system for capturing an MR Elastography measurement of a biological lifeform may include a platform; a gel pad on a surface of the platform; and a sensor array. In some embodiments, the sensor array includes at least one ultrasound transducer, and at least one radiofrequency (RF) transmitter and receiver coil. The sensor array is at least partially embedded within the gel pad, and the gel pad is configured to provide mechanical impedance matching between the at least one ultrasound transducer and the biological lifeform. In some embodiments, a system includes the apparatus and an MR system, the MR system including an ultrasonic wave generator, an interface circuit, and a computing device. In some such embodiments, the ultrasonic wave generator is configured to generate one or more shear waves in the biological lifeform.

Abstract: An electronic device may receive information associated with another electronic device that is proximate to the electronic device. Then, the electronic device may identify the other electronic device based on an identifier (such as a Media Access Control address) that is included in the information that is associated with the other electronic device. Moreover, the electronic device may access a pattern of activity for a region that includes the electronic device, where the pattern of activity includes events and identifiers of one or more electronic devices in the region during the events. For example, the events may include reported criminal activity. Next, the electronic device may determine an association between the other electronic device and at least one of the events based on the pattern of activity. Furthermore, the electronic device may provide a notification based on the determined association.

Abstract: An electronic device may receive information associated with another electronic device that is proximate to the electronic device. Then, the electronic device may identify the other electronic device based on an identifier (such as a Media Access Control address) that is included in the information that is associated with the other electronic device. Moreover, the electronic device may access a pattern of activity for a region that includes the electronic device, where the pattern of activity includes events and identifiers of one or more electronic devices in the region during the events. For example, the events may include reported criminal activity. Next, the electronic device may determine an association between the other electronic device and at least one of the events based on the pattern of activity. Furthermore, the electronic device may provide a notification based on the determined association.

Abstract: A sensor mechanism in an environmental monitoring device provides sensor data that represents an environmental condition in an external environment that includes the environmental monitoring device. Then, a control mechanism in the environmental monitoring device determines, based on the sensor data, an alert associated with the environmental condition and/or the external environment. Moreover, an interface circuit in the environmental monitoring device provides, based on the alert, a service offer to an electronic device of an entity (such as a user or an owner of the environmental monitoring device, a tenant, a property owner and/or a property manager), where the service offer includes information associated with the environmental condition. Next, the environmental monitoring device receives, via the interface circuit, a response to the service offer from the electronic device, where the response authorizes a service based on the environmental condition.

Abstract: An apparatus for use in a magnetic resonance (MR) system for capturing an MR Elastography measurement of a biological lifeform may include a platform; a gel pad on a surface of the platform; and a sensor array. In some embodiments, the sensor array includes at least one ultrasound transducer, and at least one radiofrequency (RF) transmitter and receiver coil. The sensor array is at least partially embedded within the gel pad, and the gel pad is configured to provide mechanical impedance matching between the at least one ultrasound transducer and the biological lifeform. In some embodiments, a system includes the apparatus and an MR system, the MR system including an ultrasonic wave generator, an interface circuit, and a computing device. In some such embodiments, the ultrasonic wave generator is configured to generate one or more shear waves in the biological lifeform.

Abstract: An interface mechanism in a system receives an alert associated with an environment. In response to the alert, a control mechanism in the system identifies an environmental monitoring device within the environment, where the environmental monitoring device provides sensor data that represents an environmental condition in the environment. Moreover, the control mechanism: provides, via the interface mechanism, a service offer to an electronic device associated with an entity associated with the environment, where the service offer includes information associated with the environmental condition. After receiving a response from the electronic device that authorizes the service, the control mechanism provides, via the interface mechanism, a data request for the sensor data to the environmental monitoring device. Furthermore, after receiving the sensor data from the environmental monitoring device, the control mechanism provides the service to the entity based on the environmental condition.

Abstract: An interface mechanism in a system receives a service request for a service associated with an environment from an electronic device of an entity. In response to the service request, a control mechanism in the system identifies an environmental monitoring device within the environment, where the environmental monitoring device provides sensor data that represents an environmental condition in the environment, and the environmental monitoring device is associated with a second entity that is different from the entity and a third entity associated with the system. Moreover, the control mechanism provides, via the interface mechanism, a data request for the sensor data to the environmental monitoring device. Furthermore, in response to the data request, the interface mechanism receives the sensor data from the environmental monitoring device. Then, the control mechanism provides the service to the entity based on the environmental condition.

Abstract: A control mechanism in a system monitors inputs and outputs (such as sensor data representing one or more environmental conditions in one or more environments, sub-services in the services, and/or compensation) exchanged among components in combinations that provide the services in the environments, where the components in a given combination include at least one of: environmental monitoring devices in the environments and one or more of the partner electronic devices in the environments and/or service providers. Moreover, the control mechanism stores the monitored inputs and outputs, and analyzes the monitored inputs and outputs based on quality criteria and historical inputs and outputs exchanged within the combinations. Based on the analysis, the control mechanism identifies an instance in the inputs and the outputs of: incorrect sensor data and/or fraudulent compensation. Furthermore, the control mechanism performs a remedial action based on the identified instance.

Abstract: A computer that facilitates calibration of an environmental monitoring device is described. In particular, the computer may interact with an electronic device of a user of the environmental monitoring device to calibrate the environmental monitoring device. During the calibration, the computer provides user-interface information associated with a user interface that allows the user to select to select to monitor sound corresponding to an alarm output by a legacy device (such as a smoke detector) that is in an external environment that includes the environmental monitoring device. When the user selects to monitor a legacy device, the computer provides an instruction to the electronic device for the user to activate the legacy device. Then, the computer receives legacy-device information from the environmental monitoring device, specifying whether the legacy device was detected, a type of legacy device identified based on the monitored sound and/or a location of the legacy device.

Abstract: An electronic device may receive information associated with another electronic device that is proximate to the electronic device. Then, the electronic device may identify the other electronic device based on an identifier (such as a Media Access Control address) that is included in the information that is associated with the other electronic device. Moreover, the electronic device may access a pattern of activity for a region that includes the electronic device, where the pattern of activity includes events and identifiers of one or more electronic devices in the region during the events. For example, the events may include reported criminal activity. Next, the electronic device may determine an association between the other electronic device and at least one of the events based on the pattern of activity. Furthermore, the electronic device may provide a notification based on the determined association.

Abstract: A sensor mechanism in an environmental monitoring device provides sensor data that represents an environmental condition in an external environment that includes the environmental monitoring device. Then, a control mechanism in the environmental monitoring device generates subsets of the sensor data based on data privileges of different entities, where the data privileges of at least some of the entities are different from each other, and at least some of the corresponding subsets of the sensor data are different. For example, the data privileges may specify: different spatial extents in the external environment monitored by the sensor mechanism; and/or different types of information associated with the external environment. Next, an interface circuit in the environmental monitoring device provides the subsets of the sensor data to electronic devices associated with the entities.

Abstract: A controller electronic device selectively associates one or more monitoring electronic devices and a viewing electronic device, so that the viewing electronic device can selectively access content acquired by the one or more monitoring electronic devices, such as captured images and/or measured acoustic information corresponding to sound in environments. In particular, the controller electronic device may receive messages with timestamps and current locations of a monitoring electronic device that is associated with the viewing electronic device. Based on a duration of time the monitoring electronic device is at a fixed or an approximately fixed location, the controller electronic device may establish the associations. For example, a maximum distance associated with the associations may increase as the duration of time increases.

Abstract: A system that determines types of problems by monitoring connection disruptions and/or available connections is described. During operation, the system monitors communication within the system and with client devices, where the system includes environmental monitoring devices, a data subsystem, and a client subsystem, and where the environmental monitoring devices monitor and communicate information about environmental conditions in external environments that include the environmental monitoring devices. Then, the system determines the type, of problem in the system based on the disruptions in connections and/or the available connections that convey information during the communication within the system and with the client devices.

Abstract: A controller electronic device selectively associates one or more monitoring electronic devices and a viewing electronic device, so that the viewing electronic device can selectively access content acquired by the one or more monitoring electronic devices, such as captured images and/or measured acoustic information corresponding to sound in environments. In particular, the controller electronic device may receive messages with timestamps and current locations of a monitoring electronic device that is associated with the viewing electronic device. Based on a duration of time the monitoring electronic device is at a fixed or an approximately fixed location, the controller electronic device may establish the associations. For example, a maximum distance associated with the associations may increase as the duration of time increases.

Abstract: An electronic device executes a program module that sets an operating mode of the electronic device as a monitoring mode or a viewing mode. When the electronic device is in the monitoring mode, the electronic device at least selectively captures images and measures acoustic information corresponding to sound in an environment, and then communicates the images and the acoustic information to a second electronic device. Alternatively, when the electronic device is in the viewing mode, the electronic device at least selectively receives visual information and additional acoustic information from the second electronic device, presents the visual information on a display, and outputs additional sound corresponding to the additional acoustic information using an acoustic transducer. For example, the electronic device may be a previous model and/or may execute a previous version of an operating system.

Abstract: An electronic device executes a program module that determines whether a power supply in the electronic device provides power from an external power source or an internal power source. When the power supply provides power from the external power source, the electronic device may remain in a monitoring mode without transitioning to a power-saving mode when the electronic device is inactive. Note that in the monitoring mode the electronic device at least selectively captures images and measures acoustic information corresponding to sound in an environment, and then communicates the images and the acoustic information to a second electronic device. Alternatively, when the power supply provides power from the internal power source, the electronic device selectively provides an activity signal that keeps the electronic device in the monitoring mode without transitioning to the power-saving mode when the electronic device is inactive.

Abstract: A robotic logistics system is disclosed. The system includes multiple robots each having an image capture unit and a server communicatively coupled to the multiple robots. The server is configured to transmit a location of a first item to a first robot and the location of a second item to a second robot; track the positions of the first robot and the second robot; transmit a first image of the first item captured by the first robot to an operator device; receive a first verification signal from the operator device in response to the first image; transmit a second image of the second item captured by the second robot to the operator device; and receive a second verification signal from the operator device in response to the second image.

Abstract: An electronic device that monitors flow of a fluid in a vessel (such as a pipe) is described. This electronic device may be mounted on an exterior of the vessel using a mounting mechanism. For example, the mounting mechanism may be attached to the vessel using a clamp, and an impedance-matching material may provide mechanical coupling to the vessel. Moreover, during operation a sensor mechanism in the electronic device may measure flow of the fluid, and an integrated circuit in the electronic device may analyze the flow measurements. In particular, the sensor mechanism may measure flow using non-invasive techniques (e.g., using an ultrasound transducer, an acoustic sensor or a vibration sensor) without contact with the fluid. The sensor mechanism may also facilitate the analysis by determining an orientation of the sensor mechanism relative to a reference direction and/or a cross-sectional area of the flow.