Abstract:
One example discloses a device for electromagnetic structural characterization, including: a controller having an electromagnetic transmitter output and a communications interface; wherein the controller is configured to send a signal over the electromagnetic transmitter output that causes an electromagnetic transmitter to generate a first electrical field (E1) and a first magnetic field (H1); wherein the controller configured to receive over the communications interface a second electric field (E2) and a second magnetic field (H2) received by an electromagnetic receiver; wherein the first electrical field and the first magnetic field correspond to when the electromagnetic transmitter is at a first location proximate to a structure and the second electrical field and the second magnetic field correspond to when the electromagnetic receiver is at a second location proximate to the structure; and wherein the controller is configured to calculate an impedance based on the electric and magnetic fields interacting with the structure.
Abstract:
One example discloses a fluid flow device, including: a drop chamber, having an interior, a fluid input, and a fluid output; a drop detector coupled to the drop chamber and configured to detect a fluid drop at the fluid input; a pressure sensor configured to monitor a pressure in the interior of the drop chamber; and a flow rate device configured to determine a fluid flow rate based on a number of fluid drops detected over a time period, and the pressure in the interior of the drop chamber.
Abstract:
Disclosed is an integrated circuit (100), comprising a semiconductor substrate (110) carrying a plurality of circuit elements; and a pressure sensor including a cavity (140) on said semiconductor substrate, said cavity comprising a pair of electrodes (120, 122) laterally separated from each other; and a flexible membrane (130) over and spatially separated from said electrodes such that said membrane interferes with a fringe field between said electrodes, said membrane comprising at least one aperture (132). A method of manufacturing such an IC is also disclosed.
Abstract:
One example discloses a segmented platform, including: a set of cells configured to receive a set of different items; a cell content circuit configured to map each different item to at least one of the cells; a set of visual indicators coupled to the set of cells; and a cell selector circuit configured to identify a selected item from the set of different items and activate a visual indicator from the set of visual indicators corresponding to a selected cell from the set of cells that is configured to contain the selected item.
Abstract:
One example discloses a liquid exposure sensing device, including: a first sensor configured to be coupled to a reference material; wherein the first sensor configured to generate a first signal in response to either a liquid phase and/or vapor phase of a substance passing through the reference material; a second sensor configured to be coupled to an exposed material; wherein the second sensor configured to generate a second signal in response to the liquid phase and/or vapor phase of the substance passing through the exposed material; and a controller coupled to the first and second sensors and configured to generate a liquid detection signal in response to a time delay between the first signal and the second signal that exceeds a threshold time delay.
Abstract:
One example discloses a fluid flow device, including: a drop chamber, having an interior, a fluid input, and a fluid output; a drop detector coupled to the drop chamber and configured to detect a fluid drop at the fluid input; a pressure sensor configured to monitor a pressure in the interior of the drop chamber; and a flow rate device configured to determine a fluid flow rate based on a number of fluid drops detected over a time period, and the pressure in the interior of the drop chamber.
Abstract:
One example discloses a segmented platform, including: a set of cells configured to receive a set of different items; a cell content circuit configured to map each different item to at least one of the cells; a set of visual indicators coupled to the set of cells; and a cell selector circuit configured to identify a selected item from the set of different items and activate a visual indicator from the set of visual indicators corresponding to a selected cell from the set of cells that is configured to contain the selected item.
Abstract:
Embodiments of a buffer device, an electronic system, and a method for operating a buffer device are disclosed. In an embodiment, a buffer device includes buffer bus connections, a peripheral bus interface connectable to a peripheral bus, a buffer memory module, and a buffer memory controller connected between the buffer bus connections, the peripheral bus interface, and the buffer memory module. Each of the buffer bus connections is connectable to a respective peripheral device. The buffer memory module comprises memory segments corresponding to the peripheral devices. The buffer memory controller is configured to control data communications between the buffer bus connections, the peripheral bus interface, and the buffer memory module.
Abstract:
As may be implemented with one or more embodiments herein, aspects of the disclosure are directed to an apparatus having one or more sensor circuits and a wound-characterization circuit that generates data that characterizes a condition of the wound based on physiological characteristics detected by the sensors. A wireless communication circuit wirelessly transmits the characterization data, which can be carried out while the wound is covered. In various implementations, an integration circuit (e.g., connecting circuitry and/or a chip) includes the wound-characterization circuit and the sensor circuit, and further couples to a wound dressing for sensing the different physiological characteristics of the wound while the wound dressing covers a portion of the wound from which the different physiological characteristics are sensed.