Abstract:
A voice input-output device includes a voice input section and a voice output section. The voice input section includes a microphone unit, the microphone unit including a housing that has an inner space, a partition member that is provided in the housing and divides the inner space into a first space and a second space, the partition member being at least partially formed of a diaphragm, and an electrical signal output circuit that outputs an electrical signal that is the first voice signal based on vibrations of the diaphragm, a first through-hole through which the first space communicates with an outer space of the housing and a second through-hole through which the second space communicates with the outer space being formed in the housing. The voice output section includes: an ambient noise detection section that detects ambient noise during a call based on the first voice signal; and a volume control section that controls volume of the speaker based on a degree of the detected ambient noise.
Abstract:
A switching element 100 includes an insulating substrate 10, a first electrode 20 provided on the insulating substrate 10, a second electrode 30 provided on the insulating substrate 10, and an interelectrode gap 40 provided between the first electrode 20 and the second electrode 30, a distance G between the first electrode 20 and the second electrode 30 being 0 nm
Abstract:
This display (1) includes a housing (21), a display portion (62), a substrate (41) mounted on an inner surface of the housing and provided with a capacitive switch (411), and a substrate fixing member (51) having a first pressing portion (511) pressing a position, corresponding to the capacitive switch, of a surface of the substrate opposite to the side provided with the capacitive switch, while the substrate fixing member is formed to fix the substrate to the housing in a state pressing the substrate so that the capacitive switch and the inner surface of the housing are in close contact with each other.
Abstract:
A voice input device, a method for manufacturing the same, and an information processing system are provided. The voice input device has a function of removing a noise component and includes a first microphone 710-1 that includes a first vibrating membrane, a second microphone 710-2 that includes a second vibrating membrane, and a differential signal generation section 720 that generates a differential signal that represents a difference between a first voltage signal and a second voltage signal. The first and second vibrating membranes are disposed so that a noise intensity ratio is smaller than an input voice intensity ratio that represents the ratio to intensity of an input voice component. The differential signal generation section 720 includes a gain section 760 that applies a predetermined gain to the first voltage signal and a differential signal output section 740 that generates and outputs a differential signal between the first voltage signal, to which the predetermined gain is applied by the gain section, and the second voltage signal.
Abstract:
Disclosed is a fabrication method of an element (1) with nanogap electrodes including a first electrode (20), a second electrode (60) provided above the first electrode, and a gap (70) provided between the first electrode and the second electrode, the gap being in an order of nanometer to allow resistive state to be switched by applying a predetermined voltage between the first electrode and the second electrode, the method comprising: forming the first electrode (20); forming a spacer (30) on an upper surface of the first electrode; forming the second electrode (60) in contact with an upper surface of the spacer; and removing the spacer (30) to form the gap (70).
Abstract:
Disclosed is a memory cell array (10) including word lines (WL), first bit lines (BL1) and second bit lines (BL2) respectively connected to memory cells (100), wherein each memory cell (100) includes a MOS transistor (110) and a nanogap element (120) having first and second conductive layers and a gap in which a resistance value changes by applying a predetermined voltage, and data is written by specifying the first bit line to connect it to a ground, specifying the word line and supplying a write voltage to the second bit lines, and read by specifying the word line, and specifying the first bit line to supply a read voltage lower than the write voltage to the second bit lines, and the word line is specified when the voltage of the word line becomes a gate threshold value voltage or more and a sum of a drive voltage and the gate threshold value voltage or less.
Abstract:
Disclosed is an electrochromic display device (100) comprising: a first substrate (10); a first electrode (20); a second substrate (30); a second electrode (40); and an electrochromic composition layer (50), wherein the device is of a passive matrix drive where the device performs a display by an energization between the electrodes, and performs a erasion of the display, wherein the first electrode comprises electrodes, the second electrode comprises a plurality of transparent display electrodes, a pixel is formed where the electrodes are in a grade separated crossing, at least a surface of the electrodes is respectively oxidized, the electrochromic composition layer (50) comprising insulative partition walls (51) and an electrochromic composition (52) including a supporting electrolyte, a polar solvent, and a leuco dye, and wherein the device displays a selected pixel by applying a voltage of a first potential difference, and applies the voltage of a second potential difference so as not to cause any energization. Adsorbents (53) adsorbing the leuco dyes at the time of energizations for the erasions between the first electrode (20) and the second electrode (40) are added to the electrochromic composition (52).
Abstract:
An enzyme electrode having excellent sensitivity, excellent stability, and a longer operating life, and an enzyme sensor using the enzyme electrode are provided. The enzyme electrode includes an electrode 2, a mesoporous silica material 3 formed on the electrode 2, and enzyme 4 immobilized in a small cavity of the mesoporous silica material 3. The size of the small cavity of the mesoporous silica material 3 is set to be 0.5 to 2.0 times the size of the enzyme 4.