Abstract: Provided is a heat-dissipating waterproof structure having both excellent heat dissipation ability and high waterproofness. A heat-dissipating waterproof structure (300) provided between a top part (203) of a casing (200) to accommodate a heat source (102) and the heat source (102) includes a water receiving part (301) that guides a liquid having entered into the casing (200) through an outlet (203A) provided in the top part (203) of the casing (200), and a water guide channel (302) that guides the liquid having been guided by the water receiving part (301) to be discharged to outside of a space where the heat source (102) is accommodated, and the water receiving part (301) has at least a sloping surface which gradually becomes higher the further it is from being immediately above the heat source (102).

Abstract: A mirror device includes a mirror including a main body portion having a reflection surface that reflects display light, and a rotating shaft protruding from a first side wall of the main body portion, and a driving member that includes a motor including an output shaft arranged parallel to the rotating shaft, and neighboring the rotating shaft in a direction orthogonal to a rotation axis line of the rotating shaft, a first gear portion coupled to the output shaft, and a second gear portion engaged with the first gear portion, and coupled to the rotating shaft, and rotates the mirror by transmitting rotation of the output shaft of the motor to the rotating shaft via the first gear portion and the second gear portion.

Abstract: A vehicle display device includes a housing including an opening, an image display device that outputs display light of an image, and a mirror that includes a main body including a reflective surface that reflects the display light toward the opening and is rotatable around a rotation axis. The mirror includes a first and a second ribs that extend along a first direction, and face each other in a second direction. The first rib is formed as a rib closest to a side of the upper end on the back surface, the second rib is formed as a rib closest to a side of the lower end on the back surface, and a central region between the first and the second ribs on the back surface is formed as a flat curved surface, at least a part of which extends from the first rib to the second rib.

Abstract: A contaminant detector includes a detection object that is inclined relative to a horizontal direction in a drainage unit for accumulation of discharged water and on which a contaminant is to be deposited and a detection unit configured to emit energy toward the detection object to detect a contamination state of the detection object. The detection unit includes a transmission and reception module configured to emit and receive energy, a calculation module configured to calculate an amount of energy received from the detection object by the transmission and reception module, and a determination module configured to determine, based on the amount of energy calculated by the calculation module, the contamination state of the detection object.

Abstract: Provided is a heat-dissipating waterproof structure having both excellent heat dissipation ability and high waterproofness. A heat-dissipating waterproof structure (300) provided between a top part (203) of a casing (200) to accommodate a heat source (102) and the heat source (102) includes a water receiving part (301) that guides a liquid having entered into the casing (200) through an outlet (203A) provided in the top part (203) of the casing (200), and a water guide channel (302) that guides the liquid having been guided by the water receiving part (301) to be discharged to outside of a space where the heat source (102) is accommodated, and the water receiving part (301) has at least a sloping surface which gradually becomes higher the further it is from being immediately above the heat source (102).

Abstract: A heat radiation structure (10) includes a casing (4) configured to accommodate a heating element (1), and a heat-sink type component (2) configured to directly or indirectly absorb heat from the heating element (1), contactlessly face the casing (4), and conduct the heat to the casing (4) via air existing in an internal space of the casing (4), wherein at least either the heat-sink type component (2) or the casing (4) is configured in such a way that, when heat is generated from the heating element (1), a distance between the heat-sink type component (2) and the casing (4) becomes nearer in a region of the internal space (3) in which temperature does not rise relatively easily than in a region of the internal space (3) in which temperature rises relatively easily.

Abstract: A case (2) includes a tubular body (6) extending vertically and a top plate (8) disposed at a top edge of the tubular body (6), the case being capable of accommodating a heat-generating element (5). Upward ventholes (16) for discharging the heated air (P), which is heated by the heat-generating element (5), to the outside are formed in the top plate 8. A partition wall (17) that protrudes downwardly from the top plate (8) is disposed between the upward ventholes (16) and the tubular body (6). An air accumulating part (20) surrounded by the tubular body (6), the top plate (8), and the partition wall (17) is formed.

Abstract: A case (2) includes a tubular body (6) extending vertically and a top plate (8) disposed at a top edge of the tubular body (6), the case being capable of accommodating a heat-generating element (5). Upward ventholes (16) for discharging the heated air (P), which is heated by the heat-generating element (5), to the outside are formed in the top plate 8. A partition wall (17) that protrudes downwardly from the top plate (8) is disposed between the upward ventholes (16) and the tubular body (6). An air accumulating part (20) surrounded by the tubular body (6), the top plate (8), and the partition wall (17) is formed.

Abstract: Provided is a heat-dissipating waterproof structure having both excellent heat dissipation ability and high waterproofness. A heat-dissipating waterproof structure (300) provided between a top part (203) of a casing (200) to accommodate a heat source (102) and the heat source(102) includes a water receiving part (301) that guides a liquid having entered into the casing (200) through an outlet (203A) provided in the top part (203) of the casing (200), and a water guide channel (302) that guides the liquid having been guided by the water receiving part (301) to be discharged to outside of a space where the heat source (102) is accommodated, and the water receiving part (301) has at least a sloping surface which gradually becomes higher the further it is from being immediately above the heat source (102).

Abstract: A heat radiation structure (10) includes a casing (4) configured to accommodate a heating element (1), and a heat-sink type component (2) configured to directly or indirectly absorb heat from the heating element (1), contactlessly face the casing (4), and conduct the heat to the casing (4) via air existing in an internal space of the casing (4), wherein at least either the heat-sink type component (2) or the casing (4) is configured in such a way that, when heat is generated from the heating element (1), a distance between the heat-sink type component (2) and the casing (4) becomes nearer in a region of the internal space (3) in which temperature does not rise relatively easily than in a region of the internal space (3) in which temperature rises relatively easily.

Abstract: An apparatus causes a server to execute an application program, and stores, in time series, position-information, obtained by an operation to an input device of the apparatus, on a figure representing a target of the operation on a screen shared between the server and the apparatus. Upon determining that the figure is moved by the operation in the same direction at a speed exceeding a threshold, the apparatus calculates, based on the position-information, first position-information indicating a position at which the figure is expected to be after a lapse of a first time from a current-time where the first time includes a time taken for communication between the apparatus and the server, and transmits the first position-information to the server. Upon receiving, from the server, information of an image on the screen which is obtained by executing the application program based on the first position-information, the apparatus displays the image.

Abstract: The image display control program described below is stored on a recording medium. The program causes a client computer to execute a process including, detecting a stopping signal indicating that operations performed on an image have been stopped, performing control so as not to display images based on image data packets that are received after the detection, opening a second communication port that is different from a first communication port that communicates the image data packets, when the stopping signal is detected, transmitting, to a server via the first communication port, the stopping signal and port identification information of the second communication port, receiving, via the second communication port, a current still image corresponding to the stopping of the operations that the server transmits in response to the stopping signal, and displaying the current still image after an image that has been displayed immediately before the stopping of the operation.

Abstract: An apparatus causes a server to execute an application program, and stores, in time series, position-information, obtained by an operation to an input device of the apparatus, on a figure representing a target of the operation on a screen shared between the server and the apparatus. Upon determining that the figure is moved by the operation in the same direction at a speed exceeding a threshold, the apparatus calculates, based on the position-information, first position-information indicating a position at which the figure is expected to be after a lapse of a first time from a current-time where the first time includes a time taken for communication between the apparatus and the server, and transmits the first position-information to the server. Upon receiving, from the server, information of an image on the screen which is obtained by executing the application program based on the first position-information, the apparatus displays the image.

Abstract: A remote screen display system including a server apparatus and a plurality of client terminal apparatuses, wherein the server apparatus includes a processor configured to transmit a first screen image to each of the plurality of client terminal apparatuses, the first screen image being updated according to processing of a program on the server apparatus, transmit, when an operation for a second screen image has been detected on one of the plurality of client terminal apparatuses, a command to make execute the detected operation to each of other terminal apparatuses different from the one of the plurality of client terminal apparatuses, and wherein each of the plurality of client terminal apparatuses includes a processor configured to generate or update the second screen image based on the command when receiving the command from the server apparatus, display the second screen image that is superimposed on the first screen image.

Abstract: An apparatus includes a transmitting unit that transmits data to terminal devices, and further includes a storage unit, an obtaining unit, a calculating unit, and a controlling unit. The storage unit stores time differences between times clocked by the terminal devices and a time clocked by the apparatus. The obtaining unit obtains information indicating a time the terminal devices have received the data. The calculating unit calculates delay amounts of paths to the terminal devices, by using a difference between a time the transmitting unit transmitted the data and the time indicated by the obtained information, and the stored time differences. The controlling unit identifies a delay amount difference in the calculated delay amounts, and controls a data amount transmitted/received to/from the terminal devices in accordance with the identified delay amount difference.

Abstract: The image display control program described below is stored on a recording medium. The program causes a client computer to execute a process including, detecting a stopping signal indicating that operations performed on an image have been stopped, performing control so as not to display images based on image data packets that are received after the detection, opening a second communication port that is different from a first communication port that communicates the image data packets, when the stopping signal is detected, transmitting, to a server via the first communication port, the stopping signal and port identification information of the second communication port, receiving, via the second communication port, a current still image corresponding to the stopping of the operations that the server transmits in response to the stopping signal, and displaying the current still image after an image that has been displayed immediately before the stopping of the operation.

Abstract: An apparatus transmits data to terminal devices. The apparatus includes a storage unit, a transmitting unit, an obtaining unit, a calculating unit, and a controlling unit. The storage unit stores time differences between times clocked by the terminal devices and a time clocked by the apparatus. The transmitting unit transmits the data to the terminal devices. The obtaining unit obtains information indicating a time the terminal device has received the data. The calculating unit calculates a delay amount of a path to the terminal device, by using a subtraction result between a time the transmitting unit transmitted the data and the time indicated by the obtained information, and the stored time difference. The controlling unit identifies a delay amount difference of the calculated delay amounts. The controlling unit further controls a data amount transmitted/received to/from the terminal devices in accordance with the identified delay amount difference.

Abstract: In a software management apparatus, a storage unit stores use order information that indicates in what order a plurality of pieces of software are used upon request from a first information processing apparatus. Based on the progress of software running on a plurality of second information processing apparatuses and the use order information stored in the storage unit, a prediction unit predicts which software the first information processing apparatus is expected to request in the next place. An installation unit installs the software predicted by the prediction unit on one of the second information processing apparatuses.

Abstract: A method for job management of a computer system, a job management system, and a computer-readable recording medium are provided. The method includes selecting, as a second job, a running job which is lower in priority than a first job and a number of computing nodes required for execution of which is not smaller than a deficient number of computing nodes due to execution of the first job when a number of free computing nodes in a cluster of the computer system is smaller than a number of computing nodes required for the first job, suspending all processes of the second job and executing the first job in the computing nodes which were used by the second job and the free computing nodes, and resuming execution of the second job after execution of the first job is completed.

Abstract: A charge management apparatus includes a module measuring a usage quantity of an information processing device when providing a user specified by user identifying information with a service based on an program specified by program identifying information on the information processing device specified by a device identifying information, a module measuring a usage quantity of the program when providing the service, a module calculating a device charge from a unit usage charge of the information processing device referred to based on the device identifying information and from a usage quantity of the information processing device, a module calculating a program charge from a unit usage charge of the program referred to based on the program identifying information and from a usage quantity of the program, and a module calculating a service charge for providing the service from the device charge and from the program charge.