Abstract:
Provided is a technique that enables voltages to be applied, with high precision, to an electrode layer for inhibition and removal of koge while suppressing increase in the size a substrate. A liquid ejection head substrate includes: electrothermal conversion elements that apply heat to a liquid; an upper electrode part in which a plurality of upper electrodes that protect the electrothermal conversion elements are formed at positions where the upper electrodes come into contact with the liquid; a counter electrode part which is provided to correspond to the upper electrode part and in which a plurality of counter electrodes are formed to be electrically connectable to the upper electrodes via the liquid; and a generation unit that generates a voltage to be applied to at least one of the upper electrode part and the counter electrode part.
Abstract:
A switch is configured to switch connection between a second terminal to which a data signal is input and a memory control signal of a memory element in accordance with a switching signal included in a data signal. In write to a memory element, the switching signal switches such that the switch connects the second terminal and the memory control signal of the memory element, and a pulse signal for the write to the memory element is input via the second terminal.
Abstract:
A switch is configured to switch connection between a second terminal to which a data signal is input and a memory control signal of a memory element in accordance with a switching signal included in a data signal. In write to a memory element, the switching signal switches such that the switch connects the second terminal and the memory control signal of the memory element, and a pulse signal for the write to the memory element is input via the second terminal.
Abstract:
According to the present invention, it is possible to provide an element substrate and a print head with which a decrease in yield and an increase in cost in a manufacturing process can be suppressed. For that purpose, a VH wiring line and a GNDH wiring line are provided in parallel in the same layer.
Abstract:
A capacitive force sensor 101 of the present invention includes a plurality of cells each including a lower electrode 104, a movable member that includes an upper electrode 107 and has flexibility, and a support 105b arranged to movably support the movable member and to form a gap 106 between the upper and the lower electrodes. The plural cells are grouped into elements each including one or more of the cells, and the one or more cells in a same element are electrically connected to each other.
Abstract:
A measuring device comprises a plurality of variable capacitors as sensor elements. The plurality of variable capacitors are provided with a drive circuit for each pair. The first electrodes of the two variable capacitors in each pair are electrically connected to each other. The drive circuit for each pair includes a bias supply for applying two AC bias voltages relatively 90° out of phase to the second electrodes respectively of the two variable capacitors to produce an output signal at the first electrodes connected to each other, a multiplier for multiplying the output signal by two AC signals relatively 90° out of phase to produce two multiplication signals, and an integrator for integrating the two multiplication signals for each cycle of the corresponding AC bias voltages to acquire two integration signals for the two variable capacitors.
Abstract:
A substrate includes a plurality of memory units each including an anti-fuse element and a switching element configured to switch application of a predetermined voltage to the anti-fuse element, a wiring to which the plurality of memory units are connected, a first electrode pad to which a voltage for supplying the predetermined voltage to the wiring is applied, and a second electrode pad to which a voltage for supplying the predetermined voltage to the wiring is applied.
Abstract:
A device, comprising a plurality of units arrayed in a predetermined direction, a first terminal configured to supply a voltage to the plurality of units, and a second terminal configured to supply a voltage to the plurality of units, wherein the plurality of units include a first unit including a memory element arranged between the first terminal and the second terminal, and a first transistor configured to perform write to the memory element, and a second unit including a second transistor arranged between the first terminal and the second terminal in correspondence with the first transistor of the first unit.