Abstract: A first updating unit updates the state of access control of the data to be edited set up in the memory to an exclusive state in response to an exclusion request to the data to be edited. A second updating unit updates the state of access control of the data to be edited set up in the memory to an exclusion removal standby state in response to an exclusion removal request to the data to be edited in which the state of access control is in the exclusive state. A third updating unit updates the state of access control to all data to be edited from the exclusion removal standby state to an exclusion removal state when the data to be edited in which the state of access control is updated.

Abstract: The present invention aims to suppress the diffusion of p-type impurities (typically magnesium), included in a semiconductor region of a III-V compound semiconductor, into an adjoining different semiconductor region. A semiconductor device 10 of the present invention comprises a first semiconductor region 28 of gallium nitride (GaN) including p-type impurities that consist of magnesium, a second semiconductor region 34 of gallium nitride, and an impurity diffusion suppression layer 32 of silicon oxide (SiO2) located between the first semiconductor region 28 and the second semiconductor region 34.

Abstract: A wet image forming device includes a plurality of developer support members that support a developer including a toner and a carrier functioning as a toner transfer agent, a plurality of image support members, the outer peripheral surfaces of each contacting the plurality of developer support members, and which support an electrostatic latent image developed with toner included in the developer supported by the plurality of developer support members, an intermediate transfer member to which an image developed on each of the plurality of image support members is transferred, a transfer roller that is pressed into contact with each of the plurality of image support members through the intermediate transfer member, and one or more carrier removing members that remove the carrier and arranged between a first image support member that is one of the plurality of image support members and a second image support member that is located adjacent to the first image support member.

Abstract: Provided are a light-emitting portion 101 having a light-emitting member 104 and a light emergence surface 112a through which light from the light-emitting member 104 emerges, and a light-receiving portion 102 having a light incidence surface 122a through which the light from the light-emitting member 104 enters and a light-receiving member 105 that detects the light entering through the light incidence surface 122a. The light-emitting portion 101 and the light-receiving portion 102 can make relative movement between a measurement position in which the light emergence surface 112a and the light incidence surface 122a make contact with each other and a waiting position in which the light emergence surface 112a is away from the light incidence surface 122a. The light emergence surface 112a is a spherical surface protruding outward, and the light incidence surface 122a is planar in shape.

Abstract: A liquid-level detection device detects the liquid level in the developer storing container for storing liquid developer, and includes a first water wheel, a first rotation detection mechanism, and first liquid-level detection device. The first water wheel is disposed in the interior of the developer storing container, and is configured to be rotated by liquid developer to be supplied to the developer storing container. The first rotation detection mechanism is configured to detect a rotation state of the first water wheel. The first liquid-level detection device detects the liquid level of liquid developer based on a result detected by the rotation detection mechanism.

Abstract: A cleaning unit includes a traveling belt and a belt cleaning member. The traveling belt is formed in a loop and travels via the vicinity of the contact point between an image support member and an image support member cleaning member, and comes into contact with liquid developer stored in the cleaning unit. The belt cleaning member is in contact with the traveling belt and arranged in a position downstream of the contact point between the traveling belt and liquid developer stored in the cleaning unit, and upstream of the point at which the traveling belt passes the vicinity of the contact point between the image support member and the image support member cleaning member in the traveling direction of the traveling belt. The belt cleaning member is configured to remove liquid developer attached to the traveling belt.

Abstract: A concentration detection device includes a tubular member, a light-emitting member, and a light-receiving member. The tubular member includes a liquid developer inlet that inlets liquid developer, and a liquid developer outlet that discharges the liquid developer. A liquid channel through which liquid developer passes is formed in the interior of the tubular member. The light-emitting member is a member that is disposed on one end of the tubular member. The light-receiving member receives light emitted from the light-emitting member that detects concentration of the liquid developer that is inlet into the interior of the tubular member.

Abstract: A semiconductor element heat dissipating member is provided which has excellent heat dissipation characteristics and adhesion characteristics and enables production of a semiconductor device at a low cost. A semiconductor device using the same, and a method of producing the same are also provided. The semiconductor element heat dissipating member has a conductive substrate and an electrically insulating amorphous carbon film containing hydrogen, and the electrically insulating amorphous carbon film is formed at least on a region of the conductive substrate on which region a semiconductor element is to be mounted.

Abstract: A semiconductor device 10 comprises a heterojunction between a lower semiconductor layer 26 made of p-type gallium nitride and an upper semiconductor layer 28 made of n-type AlGaN, wherein the upper semiconductor layer 28 has a larger band gap than the lower semiconductor layer 26. The semiconductor device 10 further comprises a drain electrode 32 formed on a portion of a top surface of the upper semiconductor layer 28, a source electrode 34 formed on a different portion of the top surface of the upper semiconductor layer 28, and a gate electrode 36 electrically connected to the lower semiconductor layer 26. The semiconductor device 10 can operate as normally-off.

Abstract: Disclosed is a developing unit 6 including a tank containing a liquid toner, a pick-up roller 10 for drawing the liquid toner from the tank, an application roller 11 whose circumferential surface 11a is supplied with the liquid toner by the pick-up roller 10, and a developing roller 12 whose circumferential surface 12a is applied with the liquid toner by the application roller 11. The pick-up roller 10 and the application roller 11 are arranged in parallel to each other and circumferential surfaces 10a, 11a thereof are in contact with each other. The circumferential surfaces 10a, 11a of the pick-up roller 10 and the application roller 11 are formed with a plurality of grooves 13, 14, respectively, which extend continuously in the axial direction X1.

Abstract: A semiconductor device is provided with a drain electrode 22, a semiconductor base plate 32, an electric current regulation layer 42 covering a part of a surface of the semiconductor base plate 32 and leaving a non-covered surface 55 at the surface of the semiconductor base plate 32, a semiconductor layer 50 covering a surface of the electric current regulation layer 42, and a source electrode 62 formed at a surface of the semiconductor layer 50. A drift region 56, a channel forming region 54, and a source region 52 are formed within the semiconductor layer 50. The drain electrode 22 is connected to a first terminal of a power source, and the source electrode 62 is connected to a second terminal of the power source. With this semiconductor layer 50, it is possible to increase withstand voltage or reduce the occurrence of current leakage.

Abstract: A liquid volume detector for detecting the volume of a liquid in a container is provided with a liquid level detecting member which is arranged at a specified height position in the container and on which a load acts by the liquid when the liquid level in the container is located at the specified height position, and a first drive source connected to the liquid level detecting member for moving the liquid level detecting member.

Abstract: A seal member 264 prevents the leakage of toner to the side of a photosensitive drum 10 when cleaning the surface of the photosensitive drum 10 of a color printer 1, and has a contact portion 264a and a movement control portion 264b. The contact portion 264a, through which developer is unable to pass, is able to deform elastically in a direction, and to approach and to separate from the surface of the photosensitive drum 10, able to be in line contact with the surface of the photosensitive drum 10 such that developer is unable to pass between the surface of the photosensitive drum 10 and the contact portion 264a. The movement control portion 264b is connected to the contact portion 264a, and configured to control the movement of the seal member 264 with the rotation of the photosensitive drum 10 of the contact portion 264a.

Abstract: The semiconductor device has a stacked structure in which a p-GaN layer 32, an SI-GaN layer 62, and an AlGaN layer 34 are stacked, and has a gate electrode 44 that is formed at a top surface side of the AlGaN layer 34. A band gap of the AlGaN layer 34 is wider than a band gap of the p-GaN layer 32 and the SI-GaN layer 62. Moreover, impurity concentration of the SI-GaN layer 62 is less than 1×1017 cm?3. The semiconductor devices comprising III-V semiconductors that have a stable normally-off operation are realized.

Abstract: A detecting unit 210 detects a physical quantity generated from a revolving tire for each tire. An adaptive digital filter 222 extracts a specific signal for each tire from signals corresponding to the physical quantity detected by the detecting unit 210. A judging unit 230 judges that the tire is abnormal when a difference value between two signals extracted by the digital filter 222 exceeds a predetermined threshold.

Abstract: Of carrier liquids extracted by an carrier liquid extracting device from a liquid developer obtained by mixing together yellow, cyan, magenta, and black liquid developers, the carrier liquid of particularly high purity is recycled for concentration control of the yellow liquid developer and the carrier liquid of purity a little lower than the aforementioned purity is recycled for concentration control of the cyan, magenta, and black liquid developers. A carrier liquid extracted from the yellow liquid developer is recycled for the concentration control of the yellow liquid developer, and a carrier liquid extracted from the liquid developer obtained by mixing together the cyan, magenta, and black liquid developers is recycled for the concentration control of the cyan, magenta, and black liquid developers. This permits efficient use of carrier liquids to be recycled without having an influence on the image quality.

Abstract: To provide a PTT system that includes a plurality of PTT-capable mobile phones each including a display unit, and a server which mediates a PTT call between mobile phones out of the plurality of mobile phones. The server includes a storage unit, a retrieval unit, and a sending unit. The storage unit stores images of users of the plurality of mobile phones and phone identifiers of the plurality of mobile phones in correspondence with each other. The retrieval unit retrieves, from the storage unit, an image corresponding to a phone identifier of a mobile phone involved in the PTT call. The sending unit sends the retrieved image to at least one other mobile phone involved in the PTT call. A display unit in the at least one other mobile phone displays the image sent from the server.

Abstract: When the temperature of the liquid toner has fluctuated by T1 or more (Step S3: YES), the equation obtained by measuring the liquid toner is modified (Steps S4 through S7). This equation is obtained based on the output voltage value of the concentrated toner liquid sensor 27, which has the same specifications as those of the liquid toner sensor 24, and the output voltage value of the carrier liquid sensor 29, which has the same specifications as those of the liquid toner sensor 24 (S4 through S6). The output voltage value of the liquid toner sensor 24 is entered into the modified equation to calculate the toner solids content of the liquid toner of the storage tank 18 (Step S8). Control of the concentration of the liquid toner is carried out based on the calculated toner solids content (Step S9).

Abstract: A device for detecting an abnormality of a rotating body is constituted of: means for measuring various physical quantities of the rotating body in rotation; means for extracting a signal which is synchronized with the rotation of the rotating body from the data measured by the measuring means; means for determining a condition of the rotating body from the signal extracted by the extracting means; and abnormality warning means for giving warning of abnormality when a condition of the rotating body is determined to be abnormal by the determining means. With the device and method of detecting an abnormality of a rotating body, abnormalities of a rotating body, particularly a burst and a separation of the tread of a tire, are detected at an early stage, so that accident can be prevented.

Abstract: Disclosed is a developing unit 6 including a tank containing a liquid toner, a pick-up roller 10 for drawing the liquid toner from the tank, an application roller 11 whose circumferential surface 11a is supplied with the liquid toner by the pick-up roller 10, and a developing roller 12 whose circumferential surface 12a is applied with the liquid toner by the application roller 11. The pick-up roller 10 and the application roller 11 are arranged in parallel to each other and circumferential surfaces 10a, 11a thereof are in contact with each other. The circumferential surfaces 10a, 11a of the pick-up roller 10 and the application roller 11 are formed with a plurality of grooves 13, 14, respectively, which extend continuously in the axial direction X1.