US20190289242A1 - Electronic apparatus and method for conditionally providing image processing by an external apparatus - Google Patents
Electronic apparatus and method for conditionally providing image processing by an external apparatus Download PDFInfo
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- US20190289242A1 US20190289242A1 US16/427,506 US201916427506A US2019289242A1 US 20190289242 A1 US20190289242 A1 US 20190289242A1 US 201916427506 A US201916427506 A US 201916427506A US 2019289242 A1 US2019289242 A1 US 2019289242A1
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
- H04N23/60—Control of cameras or camera modules
- H04N23/66—Remote control of cameras or camera parts, e.g. by remote control devices
- H04N23/661—Transmitting camera control signals through networks, e.g. control via the Internet
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- G06K9/4604—
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- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06T—IMAGE DATA PROCESSING OR GENERATION, IN GENERAL
- G06T7/00—Image analysis
- G06T7/10—Segmentation; Edge detection
- G06T7/13—Edge detection
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N1/00—Scanning, transmission or reproduction of documents or the like, e.g. facsimile transmission; Details thereof
- H04N1/00127—Connection or combination of a still picture apparatus with another apparatus, e.g. for storage, processing or transmission of still picture signals or of information associated with a still picture
- H04N1/00204—Connection or combination of a still picture apparatus with another apparatus, e.g. for storage, processing or transmission of still picture signals or of information associated with a still picture with a digital computer or a digital computer system, e.g. an internet server
- H04N1/00244—Connection or combination of a still picture apparatus with another apparatus, e.g. for storage, processing or transmission of still picture signals or of information associated with a still picture with a digital computer or a digital computer system, e.g. an internet server with a server, e.g. an internet server
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
- H04N23/60—Control of cameras or camera modules
- H04N23/63—Control of cameras or camera modules by using electronic viewfinders
- H04N23/631—Graphical user interfaces [GUI] specially adapted for controlling image capture or setting capture parameters
- H04N23/632—Graphical user interfaces [GUI] specially adapted for controlling image capture or setting capture parameters for displaying or modifying preview images prior to image capturing, e.g. variety of image resolutions or capturing parameters
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
- H04N23/60—Control of cameras or camera modules
- H04N23/667—Camera operation mode switching, e.g. between still and video, sport and normal or high- and low-resolution modes
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
- H04N23/80—Camera processing pipelines; Components thereof
- H04N23/84—Camera processing pipelines; Components thereof for processing colour signals
- H04N23/88—Camera processing pipelines; Components thereof for processing colour signals for colour balance, e.g. white-balance circuits or colour temperature control
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- H04N5/23206—
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- H04N5/23241—
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- H04N5/23245—
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- H04N5/23293—
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N5/00—Details of television systems
- H04N5/44—Receiver circuitry for the reception of television signals according to analogue transmission standards
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- H04N9/735—
Definitions
- the present invention relates to an electronic apparatus.
- a prior art digital camera system is per se known that transmits an image capture signal from an imaging element (so-called RAW data) to a server, and image processing is performed upon this image capture signal by an image processing unit that is provided in the server (for example, refer to Patent Document #1).
- Patent Document #1 Japanese Laid-Open Patent Publication 2003-87618.
- an electronic apparatus comprises: a processing unit that processes an image capture signal captured by an image capturing unit; a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus; and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a capture setting for the image capturing unit.
- the communication unit transmits information related to details of the processing by the processing unit to the external apparatus.
- the communication unit transmits information specifying at least one of a specification and parameters of the processing unit to the external apparatus.
- the electronic apparatus may further comprise a recording unit that records a movie image and a still image upon a recording medium; and the determination unit may transmit the image capture signal to the external apparatus when the recording unit is to record the movie image upon the recording medium.
- the electronic apparatus may further comprise a setting unit that is capable of setting the image capturing unit to a movie image mode and to a still image mode; and the determination unit may transmit the image capture signal to the external apparatus when the movie image mode is set by the setting unit.
- the electronic apparatus may further comprise a display unit that displays an image processed by the external apparatus as a live view.
- an electronic apparatus comprises: a processing unit that processes an image capture signal captured by an image capturing unit; a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus; and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a state of generation of heat from at least one of the image capturing unit and the processing unit.
- the determination unit determines whether or not to transmit the image capture signal to the external apparatus, according to a state of generation of heat from the communication unit.
- the electronic apparatus may further comprise a temperature detection unit that detects the temperature of at least one of the image capturing unit, the processing unit, and the communication unit.
- the electronic apparatus may further comprise a recording unit that records a movie image and a still image upon a recording medium; and the determination unit may transmit the image capture signal to the external apparatus when the recording unit is to record the movie image upon the recording medium.
- an electronic apparatus comprise: a processing unit that processes an image capture signal captured by an image capturing unit; a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus; and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a state of generation of heat from the communication unit.
- the electronic apparatus may further comprise a temperature detection unit that detects the temperature of the communication unit.
- the communication unit transmits the image capture signal and information related to the processing unit to the external apparatus.
- FIG. 1 is a block diagram showing the structure of a photography system according to a first embodiment of the present invention
- FIG. 2 is a flow chart showing live view processing executed by a first control unit 21 ;
- FIG. 3 is a flow chart showing live view processing executed by a first control unit 21 according to a second embodiment
- FIG. 4 is a time chart showing changeovers between a first ASIC 14 and a second ASIC 102 along with changes of temperature of an imaging element 12 ;
- FIG. 5 is a figure showing an example in which a plurality of cameras are connected to a single server 100 .
- FIG. 1 is a block diagram showing the structure of a photography system according to a first embodiment of the present invention.
- This photography system 1 comprises a camera 10 and a server 100 .
- the camera 10 and the server 100 are connected together via a network 80 , such as for example a LAN or a WAN, and are capable of performing mutual data communication in both directions.
- a network 80 such as for example a LAN or a WAN
- the camera 10 is a so-called integrated lens type digital camera that obtains image data by capturing an image of a photographic subject that has been focused by an optical system 11 consisting of a plurality of lens groups with an imaging element 12 that may, for example, be a CMOS or a CCD or the like.
- the camera 10 comprises an A/D converter 13 , a first ASIC 14 , a display unit 15 , a recording medium 16 , an operation unit 17 , a first memory 18 , a first communication unit 19 , a temperature sensor 20 , and a first control unit 21 .
- the A/D converter 13 converts an analog image signal outputted from the imaging element 12 to a digital image signal.
- the first ASIC 14 is a circuit that performs image processing of various kinds (for example, color interpolation processing, tone conversion processing, image compression processing, or the like) upon the digital image signal outputted by the A/D converter 13 . And the first ASIC 14 outputs the digital signal upon which it has performed the image processing described above to the display unit 15 and/or to the recording medium 16 .
- the imaging element 12 and the first ASIC 14 are disposed close to one another within the casing of the camera 10 , and the processing load upon the imaging element 12 and upon the first ASIC 14 increases during capture of a movie image or during image processing of a movie image, and accordingly the amount of heat generated raises the temperature of the imaging element 12 and the temperature of the first ASIC 14 .
- the display unit 15 is a display device that comprises, for example, a liquid crystal panel or the like, and displays images (still images and moving images) on the basis of digital image signals outputted by the first ASIC 14 , and operating menu screens of various types and so on.
- the recording medium 16 is a transportable type recording medium such as, for example, an SD card (registered trademark) or the like, and records image files on the basis of digital image signals outputted by the first ASIC 14 .
- the operation unit 17 includes various operation members, such as a release switch for commanding preparatory operation for photography and photographic operation, a touch panel upon which settings of various types are established, a mode dial that selects the photographic mode, and so on.
- the operation unit 17 When the user operates these operation members, the operation unit 17 outputs operating signals corresponding to these operations to the first control unit 21 . It should be understood that it would be acceptable to arrange for commands for photographing a still image and a movie image to be issued with the release switch, or alternatively a dedicated movie image capture switch may be provided. Moreover, the mode dial of this embodiment is capable of setting at least one of a plurality of still image modes and a movie image mode.
- the first memory 18 is a non-volatile semiconductor memory such as, for example, a flash memory or the like, and the first control unit 21 stores therein in advance a control program and control parameters and so on so that the first control unit 21 controls the camera 10 .
- the first communication unit 19 is a communication circuit that performs data communication to and from the server 100 via the network 80 , for example by wireless communication.
- the temperature sensor 20 is provided in the neighborhood of the imaging element 12 , and detects the temperature of the imaging element 12 (in other words, the state of heat generation by the imaging element 12 ).
- the first control unit 21 comprises a microprocessor, memory, and peripheral circuitry not shown in the figures, and provides overall control for the camera 10 by reading in and executing a predetermined control program from the first memory 18 .
- the server 100 comprises a second communication unit 101 , a second ASIC 102 , a second memory 104 , and a second control unit 106 .
- the second communication unit 101 is a communication circuit that performs data communication to and from the camera 10 via the network 80 , for example by wireless communication.
- the second ASIC 102 is a circuit that performs image processing similar to that performed by the first ASIC 14 .
- the second memory 104 is a non-volatile semiconductor memory such as, for example, a flash memory or the like, and stores therein in advance a control program and control parameters and so on so that the second control unit 106 controls the server 100 .
- this second memory 104 also is capable of storing image data upon which image processing of various types has been performed by the second ASIC 102 .
- live view display performed by this camera 10 will be explained.
- the first control unit 21 performs so-called live view display upon the display unit 15 .
- the first control unit 21 captures an image of the photographic subject with the imaging element 12 , and outputs a digital image signal corresponding to this photographic subject image to the A/D converter 13 .
- the first ASIC 14 changes the processing for live view display according to whether the mode dial is set for photography of a still image or for photography of a movie image.
- the imaging element 12 and the first ASIC 14 generate a live view image having the same resolution as the recording size for the movie image.
- the amount of heat generated by the imaging element 12 and the first ASIC 14 becomes greater during live view in the movie image mode, than during live view in a still image mode.
- the first control unit 21 determines whether to control the first ASIC 14 within the camera 10 to process this digital image signal, or to control the second ASIC 102 within the server 100 to perform this processing. And if the first control unit 21 has determined that the first ASIC 14 is to be controlled to process this digital image signal, then image data that has been produced by the first ASIC 14 performing various types of image processing upon the digital image signal (i.e. a live view image) is displayed upon the display unit 15 .
- the first control unit 21 transmits the digital image signal that has been outputted by the A/D converter 13 to the server 100 via the first communication unit 19 .
- the second control unit 106 within the server 100 causes the second ASIC 102 to perform processing upon this received digital image signal.
- the second ASIC 102 generates image data (i.e. a live view image) by performing image processing of various types upon this digital image signal.
- the second control unit 106 transmits this image data (i.e. the live view image) that has been generated by the second ASIC 102 to the camera 10 via the second communication unit 101 .
- the first control unit 21 within the camera 10 displays the live view image upon the display unit 15 .
- FIG. 2 is a flow chart showing the live view processing executed by the first control unit 21 ; in this embodiment, the processing shown in this flow chart is started in the case of live view in the movie image mode.
- the first control unit 21 determines whether or not it is possible to perform wireless communication with the first communication unit 19 . If the state is such that wireless communication with the first communication unit 19 is possible, then the flow of control proceeds to step S 02 .
- step S 02 the first control unit 21 makes a decision as to whether or not the temperature of the imaging element 12 , which has been detected with the temperature sensor 20 , is less than or equal to a predetermined threshold value (for example 70° C.). If the temperature of the imaging element 12 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S 03 .
- the first control unit 21 makes a decision as to whether or not the amount of image processing (i.e. the amount of calculation) required in order to generate image data (i.e. a live view image) will be greater than or equal to a predetermined threshold value. If the amount of image processing is greater than or equal to the predetermined threshold value, then the flow of control proceeds to step S 04 . It should be understood that it would also be acceptable to arrange for the predetermined threshold value to be set in five ° C. steps, as appropriate.
- step S 04 by wireless communication via the first communication unit 19 , the first control unit 21 transmits a portion of the digital image signal outputted from the A/D converter 13 to the server 100 . And in the next step S 05 the first ASIC 14 of the camera 10 and the second ASIC 102 of the server 100 share the image processing upon the digital image signal between one another.
- the first control unit 21 displays the image data (i.e. the live view image) upon the display unit 15 at a rate of sixty frames per second, then, among the digital image signals outputted from the A/D converter 13 at the rate of sixty times per second, the first control unit 21 may output the odd numbered frames to the first ASIC 14 , and may transmit the even numbered frames to the server 100 via the first communication unit 100 . And in this case it is suggested that the first ASIC 14 should perform image processing upon the odd numbered frames, while the second ASIC 102 performs image processing upon the image numbered frames.
- step S 03 the amount of image processing is less than the predetermined threshold value and if in step S 02 the temperature of the imaging element 12 is less than the predetermined threshold value, then the flow of control is transferred to step S 06 .
- the first control unit 21 transmits the digital image signal outputted from the A/D converter 13 to the server 100 by wireless communication via the first communication unit 19 .
- step S 07 the second ASIC 102 of the server 100 performs image processing upon the digital image signal received via the second communication unit 101 , and thereby generates image data (i.e. a live view image).
- step S 01 If in step S 01 , due to some reason such as, for example, the camera 10 being a long way away from the base station for wireless communication or the like, a state becomes established in which wireless communication between the camera 10 and the server 100 is not possible, then the flow of control is transferred to step S 08 .
- the first control unit 21 makes a decision as to whether or not the temperature of the imaging element 12 detected by the temperature sensor 20 is less than or equal to a predetermined threshold value. If the temperature of the imaging element 12 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S 09 .
- the first control unit 21 inputs the digital image signal outputted from the A/D converter 13 to the first ASIC 14 , and generates image data (i.e. a live view image) by performing image processing upon this digital image signal with the first ASIC 14 .
- step S 10 the first control unit changes over from live view in the movie image mode to live view in a still image mode, thus alleviating the amount of processing by the imaging element 12 and the first ASIC 14 .
- the first control unit 21 determines whether or not to transmit the digital image signal to the server 100 by referring to three operational states of the camera 10 , i.e. whether or not wireless communication with the first communication unit 19 is possible, the temperature of the imaging element 12 as detected by the temperature sensor 20 , and the amount of image processing (i.e. the image processing load or the amount of calculation) to be performed by the first ASIC 14 .
- the first communication unit 21 causes the second ASIC 102 in the server 100 to perform processing of the digital image signal outputted from the A/D converter 13 . Since, due to this, the burden of calculation upon the first ASIC 14 is reduced and the amount of heat generated by the first ASIC 14 decreases, accordingly rise of the temperature of the imaging element 12 is suppressed.
- the photography system according to the second embodiment has a similar structure to that of the photography system according to the first embodiment, with the exception that a temperature sensor not shown in the figures is provided in the neighborhood of the first communication unit 19 .
- This temperature sensor not shown in the figures detects the temperature of the first communication unit 19 .
- the amount of heat generated by the first communication unit 19 increases as the amount of communication (i.e. the amount of data communicated) increases, and this generated heat is supplied to the imaging element 12 which is provided within the same casing according to the amount of communication
- the first control unit 21 of this embodiment determines whether or not to transmit the digital image signal to the server 100 by further referring to the temperature of the first communication unit 19 as detected by a temperature sensor not shown in the figures.
- FIG. 3 is a flow chart showing the live view processing executed by the first control unit 21 according to this second embodiment.
- the first control unit 21 determines whether or not it is possible to perform wireless communication with the first communication unit 19 . If the situation is such that wireless communication with the first communication unit 19 is possible, then the flow of control proceeds to step S 12 .
- step S 12 the first control unit 21 makes a decision as to whether or not the temperature of the imaging element 12 , which has been detected with the temperature sensor 20 , is less than or equal to a predetermined threshold value. If the temperature of the imaging element 12 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S 13 .
- step S 13 the first control unit 21 makes a decision as to whether or not the amount of image processing (i.e. the amount of calculation) required in order to generate image data (i.e. a live view image) will be greater than or equal to a predetermined threshold value. If the amount of image processing is greater than or equal to the predetermined threshold value, then the flow of control proceeds to step S 14 .
- the amount of image processing i.e. the amount of calculation
- step S 14 by wireless communication via the first communication unit 19 , the first control unit 21 transmits a portion of the digital image signal outputted from the A/D converter 13 to the server 100 . And in the next step S 05 the first ASIC 14 of the camera 10 and the second ASIC 102 of the server 100 share the image processing upon the digital image signal between one another.
- step S 13 the amount of image processing is less than the predetermined threshold value and if in step S 12 the temperature of the imaging element 12 is less than the predetermined threshold value, then the flow of control is transferred to step S 16 .
- the first control unit 21 makes a decision as to whether or not the temperature of the first communication unit 19 , which has been detected with the temperature sensor not shown in the figures, is less than or equal to a predetermined threshold value (for example, 60° C.). If the temperature of the first communication unit 19 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S 17 .
- a predetermined threshold value for example, 60° C.
- step S 17 the first control unit 21 transmits the digital image signal outputted from the A/D converter 13 to the server 100 by wireless communication via the first communication unit 19 . And then in step S 18 the second ASIC 102 of the server 100 performs image processing upon the digital image signal that has been received via the second communication unit 101 , and thereby generates image data (i.e. a live view image).
- step S 16 If in step S 16 the temperature of the first communication unit 19 is greater than the predetermined threshold value, then the flow of control proceeds to step S 14 .
- step S 14 and step S 15 the first control unit 21 transmits a portion of the digital image signal outputted from the A/D converter 13 to the server 100 by wireless communication via the first communication unit 19 , and image processing is performed by being shared between the first ASIC 14 of the camera 10 and the second ASIC 102 of the server 100 .
- This is a preventative measure in case the temperature of the first communication unit 19 should become too high.
- the threshold value for the temperature of the first communication unit 19 may be set in five ° C. steps, as appropriate.
- steps S 14 and S 15 if the temperature of the first communication unit 19 becomes greater than or equal to a prescribed value, it may also be arranged for the control unit 21 to stop transmitting the digital image to the server 100 with the first communication unit 19 , and the first ASIC 14 to perform image processing.
- step S 11 which is performed when the system is in a state in which wireless communication between the camera 10 and the server 100 is not possible is the same as the processing of the steps S 08 through S 10 of FIG. 2 explained in connection with the first embodiment, and accordingly explanation thereof is omitted.
- the photography system according to the third embodiment has a structure corresponding to that of the photography system according to the first embodiment, but with the temperature sensor 20 eliminated.
- the first control unit 21 performs image processing with the first ASIC 14 , while, during movie image photography in the movie image photographic mode, image processing is performed by the second ASIC 102 of the server 100 . Since in this manner, in this third embodiment, the first control unit 21 determines according to the photographic mode whether image processing should be performed by the first ASIC 14 or by the second ASIC 102 , accordingly it is possible to simplify the structure and the control of the photography system.
- the live view image generated by the first ASIC 14 is outputted to the display unit 15 almost in real time
- the live view image generated by the second ASIC 102 needs to be sent via wireless communication by the first communication unit 19 and the second communication unit 101 , so that some delay inevitably occurs.
- the first control unit 21 it will be acceptable to arrange for the first control unit 21 to buffer the live view image outputted by the first ASIC 14 and the live view image received by the first communication unit 19 in a memory not shown in the figures, so that the display of the live view image is always delayed by a constant time interval (for example 0.5 seconds). Due to this, the live view image that is displayed upon the display unit 15 continues to be shown smoothly, even if a delay occurs in the transmission of the live view image that is transmitted from the server 100 .
- FIG. 4 is a time chart showing several changeovers between the first ASIC 14 and the second ASIC 102 along with changes of temperature of the imaging element 12 . It should be understood that in FIG. 4 , in order to simplify the explanation, it is supposed that the first ASIC 14 and the second ASIC 102 do not share the image processing between them, as in steps S 04 and S 05 of FIG. 2 .
- Image processing by the first ASIC 14 is started at the time point t1, so that live view display upon the display unit 15 starts. Subsequent to the time point t1, the first ASIC 14 generates heat by repeatedly executing image processing, so that the temperature of the imaging element 12 rises. And thereafter, at the time point t2, the temperature of the imaging element 12 as detected by the temperature sensor 20 becomes greater than the threshold value.
- the first control unit 21 starts transmission of the digital image signal outputted from the A/D converter 13 to the server 100 at this time point, the first control unit 21 causes the first ASIC 14 to execute in parallel the image processing. And at the time point t3, at which point a time interval has elapsed that is sufficient for absorbing the delay accompanying wireless communication, the first control unit 21 stops image processing by the first ASIC 14 .
- the first control unit 21 resumes image processing by the first ASIC 14 , transmission of the digital image signal to the server 100 is still performed in parallel therewith, in a similar manner to the case at the time point t2. And then at the time point t5, when a fixed time period has elapsed, the first control unit 21 stops the transmission of the digital image signal to the first control unit 21 .
- FIG. 1 a photography system was shown in which the single camera 10 and the single server 100 were connected together by the network 80 , it would also be possible for a plurality of cameras to be connected to a single server, and it would also be possible for a plurality of servers and a plurality of cameras to be connected together.
- FIG. 5 shows an example in which a plurality of cameras (a camera 10 , a camera 30 , and a camera 50 ) are connected to a single server 100 .
- each of the camera 10 , the camera 30 , and the camera 50 creates different photographic image data by performing photographic processing.
- the details of the image processing that each of a first ASIC 14 comprised in the camera 10 , a third ASIC 34 comprised in the camera 30 , and a fifth ASIC 54 comprised in the camera 50 can perform are different. Accordingly, even if the same analog image signals are outputted from their corresponding imaging elements 12 , the image data generated by the first ASIC 14 , the image data generated by the third ASIC 34 , and the image data generated by the fifth ASIC 54 will differ from one another, for example in hue and/or texture and so on.
- the server 100 shown in FIG. 5 comprises, in addition to a second ASIC 102 that is capable of performing image processing equivalent to that performed by the first ASIC 14 , a fourth ASIC 112 that is capable of performing image processing equivalent to that performed by the third ASIC 34 and a sixth ASIC 122 that is capable of performing image processing equivalent to that performed by the fifth ASIC 54 .
- the image data that has been generated due to image processing by the fourth ASIC 112 is approximately the same as the image data that has been generated due to image processing by the third ASIC 34 .
- the control unit of each of the cameras transmits information related to the details of the image processing executed by its ASIC to the server 10 .
- This information may be, for example, the name of the camera type, and/or information specifying the specification of its ASIC (color, white balance, texture, and so on), and/or parameters or the like of the image processing executed by its ASIC.
- the second control unit 106 determines which ASIC is to be used for performing processing upon the digital image signal that have been received along with this information. For example, if a digital image signal has been received from the camera 30 , the second control unit 106 may cause processing thereof to be performed by the fourth ASIC 112 .
- the temperature sensor 20 was provided in the neighborhood of the imaging element 12 , and the first control unit 21 determined whether or not it was possible to transmit the digital image signal on the basis of the temperature of the imaging element 12 as detected by this temperature sensor 20 , it would also be acceptable to arrange to provide the temperature sensor 20 in the neighborhood of the first ASIC 14 , and to determine whether or not it is possible to transmit the digital image signal, not on the basis of the temperature of the imaging element 12 , but rather on the basis of the temperature of the first ASIC 14 . The same variation would be possible in the case of the second embodiment.
- the device that is provided exterior to the camera 10 and that receives the digital image signal from the camera 10 and performs image processing thereof could be some type of external apparatus other than a server 100 ; for example, it could be a portable type electronic apparatus such as a personal computer or a so-called smart phone, or a tablet-type (slate-type) computer or the like.
- the present invention is not limited to this type of embodiment.
- a single lens reflex type digital camera it would also be possible to provide a live view button or switch that performs live view display, and in this case it could be set to movie image live view or to still image live view. It would also be possible to apply the first embodiment to this case as well.
- 1 photography system; 10 , 30 , 50 : cameras; 11 : optical system; 12 : imaging element; 13 : A/D converter; 14 : first ASIC; 15 : display unit; 16 : recording medium; 17 : operation unit; 18 : first memory; 19 : first communication unit; 20 : temperature sensor; 21 : first control unit; 80 : network; 100 : server; 101 : second communication unit; 102 : second ASIC; 104 : second memory; 106 : second control unit.
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Abstract
An electronic apparatus includes a processing unit that processes an image capture signal captured by an image capturing unit, a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus, and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a capture setting for the image capturing unit.
Description
- This application is a continuation of U.S. patent application Ser. No. 16/204,163 filed Nov. 29, 2018 which is a divisional of U.S. patent application Ser. No. 15/645,095 filed Jul. 10, 2017 which is a continuation application of U.S. patent application Ser. No. 14/768,924, filed on Nov. 6, 2015, which in turn is a National Phase Application of PCT/JP2013/071711, filed on Aug. 9, 2013, and claims priority to Japanese Patent Application No. 2013-039128, filed on Feb. 28, 2013, the above applications being hereby incorporated by reference in their entirety.
- The present invention relates to an electronic apparatus.
- A prior art digital camera system is per se known that transmits an image capture signal from an imaging element (so-called RAW data) to a server, and image processing is performed upon this image capture signal by an image processing unit that is provided in the server (for example, refer to Patent Document #1).
- Patent Document #1: Japanese Laid-Open Patent Publication 2003-87618.
- With the prior art technique, there has been the problem that the convenience of use of the camera is poor, since the image processing is always performed by the server.
- According to the 1st aspect of the present invention, an electronic apparatus comprises: a processing unit that processes an image capture signal captured by an image capturing unit; a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus; and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a capture setting for the image capturing unit.
- According to the 2nd aspect of the present invention, it is preferred that in the electronic apparatus according to the 1st aspect, the communication unit transmits information related to details of the processing by the processing unit to the external apparatus.
- According to the 3rd aspect of the present invention, it is preferred that in the electronic apparatus according to the 2nd aspect, the communication unit transmits information specifying at least one of a specification and parameters of the processing unit to the external apparatus.
- According to the 4th aspect of the present invention, the electronic apparatus according to any one of the 1st through 3rd aspects may further comprise a recording unit that records a movie image and a still image upon a recording medium; and the determination unit may transmit the image capture signal to the external apparatus when the recording unit is to record the movie image upon the recording medium.
- According to the 5th aspect of the present invention, the electronic apparatus according to any one of the 1st through 4th aspects may further comprise a setting unit that is capable of setting the image capturing unit to a movie image mode and to a still image mode; and the determination unit may transmit the image capture signal to the external apparatus when the movie image mode is set by the setting unit.
- According to the 6th aspect of the present invention, the electronic apparatus according to the 5th aspect may further comprise a display unit that displays an image processed by the external apparatus as a live view.
- According to the 7th aspect of the present invention, an electronic apparatus comprises: a processing unit that processes an image capture signal captured by an image capturing unit; a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus; and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a state of generation of heat from at least one of the image capturing unit and the processing unit.
- According to the 8th aspect of the present invention, it is preferred that in the electronic apparatus according to the 7th aspect, the determination unit determines whether or not to transmit the image capture signal to the external apparatus, according to a state of generation of heat from the communication unit.
- According to the 9th aspect of the present invention, the electronic apparatus according to the 7th or 8th aspect may further comprise a temperature detection unit that detects the temperature of at least one of the image capturing unit, the processing unit, and the communication unit.
- According to the 10th aspect of the present invention, the electronic apparatus according to any one of the 7th through 9th may further comprise a recording unit that records a movie image and a still image upon a recording medium; and the determination unit may transmit the image capture signal to the external apparatus when the recording unit is to record the movie image upon the recording medium.
- According to the 11th aspect of the present invention, an electronic apparatus comprise: a processing unit that processes an image capture signal captured by an image capturing unit; a communication unit that is capable of transmitting the image capture signal captured by the image capturing unit to an external apparatus; and a determination unit that determines whether or not to transmit the image capture signal to the external apparatus, according to a state of generation of heat from the communication unit.
- According to the 12th aspect of the present invention, the electronic apparatus according to the 11th aspect may further comprise a temperature detection unit that detects the temperature of the communication unit.
- According to the 13th aspect of the present invention, it is preferred that in the electronic apparatus according to the 11th or 12th aspect, the communication unit transmits the image capture signal and information related to the processing unit to the external apparatus.
- According to the present invention, it is possible to provide an electronic apparatus whose convenience of use is good.
-
FIG. 1 is a block diagram showing the structure of a photography system according to a first embodiment of the present invention; -
FIG. 2 is a flow chart showing live view processing executed by afirst control unit 21; -
FIG. 3 is a flow chart showing live view processing executed by afirst control unit 21 according to a second embodiment; -
FIG. 4 is a time chart showing changeovers between afirst ASIC 14 and asecond ASIC 102 along with changes of temperature of animaging element 12; and -
FIG. 5 is a figure showing an example in which a plurality of cameras are connected to asingle server 100. -
FIG. 1 is a block diagram showing the structure of a photography system according to a first embodiment of the present invention. Thisphotography system 1 comprises acamera 10 and aserver 100. Thecamera 10 and theserver 100 are connected together via anetwork 80, such as for example a LAN or a WAN, and are capable of performing mutual data communication in both directions. - The
camera 10 is a so-called integrated lens type digital camera that obtains image data by capturing an image of a photographic subject that has been focused by anoptical system 11 consisting of a plurality of lens groups with animaging element 12 that may, for example, be a CMOS or a CCD or the like. Thecamera 10 comprises an A/D converter 13, afirst ASIC 14, adisplay unit 15, arecording medium 16, anoperation unit 17, afirst memory 18, afirst communication unit 19, atemperature sensor 20, and afirst control unit 21. - The A/
D converter 13 converts an analog image signal outputted from theimaging element 12 to a digital image signal. Thefirst ASIC 14 is a circuit that performs image processing of various kinds (for example, color interpolation processing, tone conversion processing, image compression processing, or the like) upon the digital image signal outputted by the A/D converter 13. And thefirst ASIC 14 outputs the digital signal upon which it has performed the image processing described above to thedisplay unit 15 and/or to therecording medium 16. Theimaging element 12 and thefirst ASIC 14 are disposed close to one another within the casing of thecamera 10, and the processing load upon theimaging element 12 and upon thefirst ASIC 14 increases during capture of a movie image or during image processing of a movie image, and accordingly the amount of heat generated raises the temperature of theimaging element 12 and the temperature of thefirst ASIC 14. - The
display unit 15 is a display device that comprises, for example, a liquid crystal panel or the like, and displays images (still images and moving images) on the basis of digital image signals outputted by thefirst ASIC 14, and operating menu screens of various types and so on. And therecording medium 16 is a transportable type recording medium such as, for example, an SD card (registered trademark) or the like, and records image files on the basis of digital image signals outputted by thefirst ASIC 14. Furthermore, theoperation unit 17 includes various operation members, such as a release switch for commanding preparatory operation for photography and photographic operation, a touch panel upon which settings of various types are established, a mode dial that selects the photographic mode, and so on. When the user operates these operation members, theoperation unit 17 outputs operating signals corresponding to these operations to thefirst control unit 21. It should be understood that it would be acceptable to arrange for commands for photographing a still image and a movie image to be issued with the release switch, or alternatively a dedicated movie image capture switch may be provided. Moreover, the mode dial of this embodiment is capable of setting at least one of a plurality of still image modes and a movie image mode. - The
first memory 18 is a non-volatile semiconductor memory such as, for example, a flash memory or the like, and thefirst control unit 21 stores therein in advance a control program and control parameters and so on so that thefirst control unit 21 controls thecamera 10. Thefirst communication unit 19 is a communication circuit that performs data communication to and from theserver 100 via thenetwork 80, for example by wireless communication. And thetemperature sensor 20 is provided in the neighborhood of theimaging element 12, and detects the temperature of the imaging element 12 (in other words, the state of heat generation by the imaging element 12). - The
first control unit 21 comprises a microprocessor, memory, and peripheral circuitry not shown in the figures, and provides overall control for thecamera 10 by reading in and executing a predetermined control program from thefirst memory 18. - The
server 100 comprises asecond communication unit 101, asecond ASIC 102, asecond memory 104, and asecond control unit 106. Thesecond communication unit 101 is a communication circuit that performs data communication to and from thecamera 10 via thenetwork 80, for example by wireless communication. And thesecond ASIC 102 is a circuit that performs image processing similar to that performed by thefirst ASIC 14. - The
second memory 104 is a non-volatile semiconductor memory such as, for example, a flash memory or the like, and stores therein in advance a control program and control parameters and so on so that thesecond control unit 106 controls theserver 100. In addition to the control program and the control parameters and so on mentioned above, thissecond memory 104 also is capable of storing image data upon which image processing of various types has been performed by thesecond ASIC 102. - Next, live view display performed by this
camera 10 will be explained. When the power supply of thecamera 10 is in the ON state, thefirst control unit 21 performs so-called live view display upon thedisplay unit 15. When performing this live view display, thefirst control unit 21 captures an image of the photographic subject with theimaging element 12, and outputs a digital image signal corresponding to this photographic subject image to the A/D converter 13. It should be understood that, as previously described, with the mode dial of this embodiment, it is possible to establish any one of a plurality of settings for still image photography, and to establish a setting for movie image photography. Thefirst ASIC 14 changes the processing for live view display according to whether the mode dial is set for photography of a still image or for photography of a movie image. In concrete terms, by contrast to the case of live viewing in a still image mode in which the live view image is generated by thinning out the image captured by theimaging element 12 so that the amount of calculation by thefirst ASIC 14 is reduced, in the case of live viewing in the moving image mode theimaging element 12 and thefirst ASIC 14 generate a live view image having the same resolution as the recording size for the movie image. In other words, in this embodiment, the amount of heat generated by theimaging element 12 and thefirst ASIC 14 becomes greater during live view in the movie image mode, than during live view in a still image mode. - On the basis of the operational state of the camera 10 (i.e. whether the live viewing is in a still image mode or is in the movie image mode), the
first control unit 21 determines whether to control thefirst ASIC 14 within thecamera 10 to process this digital image signal, or to control thesecond ASIC 102 within theserver 100 to perform this processing. And if thefirst control unit 21 has determined that thefirst ASIC 14 is to be controlled to process this digital image signal, then image data that has been produced by thefirst ASIC 14 performing various types of image processing upon the digital image signal (i.e. a live view image) is displayed upon thedisplay unit 15. - On the other hand, if the
first control unit 21 has determined that thesecond ASIC 102 is to be controlled to process the digital image signal, then thefirst control unit 21 transmits the digital image signal that has been outputted by the A/D converter 13 to theserver 100 via thefirst communication unit 19. And, upon receipt of this digital image signal via thesecond communication unit 101, thesecond control unit 106 within theserver 100 causes thesecond ASIC 102 to perform processing upon this received digital image signal. Thesecond ASIC 102 generates image data (i.e. a live view image) by performing image processing of various types upon this digital image signal. And thesecond control unit 106 transmits this image data (i.e. the live view image) that has been generated by thesecond ASIC 102 to thecamera 10 via thesecond communication unit 101. Upon receipt of this image data (i.e. the live view image) via thefirst control unit 21, thefirst control unit 21 within thecamera 10 displays the live view image upon thedisplay unit 15. -
FIG. 2 is a flow chart showing the live view processing executed by thefirst control unit 21; in this embodiment, the processing shown in this flow chart is started in the case of live view in the movie image mode. In a first step S01, thefirst control unit 21 determines whether or not it is possible to perform wireless communication with thefirst communication unit 19. If the state is such that wireless communication with thefirst communication unit 19 is possible, then the flow of control proceeds to step S02. - In step S02, the
first control unit 21 makes a decision as to whether or not the temperature of theimaging element 12, which has been detected with thetemperature sensor 20, is less than or equal to a predetermined threshold value (for example 70° C.). If the temperature of theimaging element 12 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S03. In this step S03, thefirst control unit 21 makes a decision as to whether or not the amount of image processing (i.e. the amount of calculation) required in order to generate image data (i.e. a live view image) will be greater than or equal to a predetermined threshold value. If the amount of image processing is greater than or equal to the predetermined threshold value, then the flow of control proceeds to step S04. It should be understood that it would also be acceptable to arrange for the predetermined threshold value to be set in five ° C. steps, as appropriate. - In step S04, by wireless communication via the
first communication unit 19, thefirst control unit 21 transmits a portion of the digital image signal outputted from the A/D converter 13 to theserver 100. And in the next step S05 thefirst ASIC 14 of thecamera 10 and thesecond ASIC 102 of theserver 100 share the image processing upon the digital image signal between one another. - As a method of sharing the image processing by the
first ASIC 14 and thesecond ASIC 102, it may be suggested repeatedly to perform changeover processing to thesecond ASIC 102, after processing by thefirst ASIC 14 has been performed for some fixed time period. Alternatively, if thefirst control unit 21 displays the image data (i.e. the live view image) upon thedisplay unit 15 at a rate of sixty frames per second, then, among the digital image signals outputted from the A/D converter 13 at the rate of sixty times per second, thefirst control unit 21 may output the odd numbered frames to thefirst ASIC 14, and may transmit the even numbered frames to theserver 100 via thefirst communication unit 100. And in this case it is suggested that thefirst ASIC 14 should perform image processing upon the odd numbered frames, while thesecond ASIC 102 performs image processing upon the image numbered frames. - On the other hand, if in step S03 the amount of image processing is less than the predetermined threshold value and if in step S02 the temperature of the
imaging element 12 is less than the predetermined threshold value, then the flow of control is transferred to step S06. In this step S06, thefirst control unit 21 transmits the digital image signal outputted from the A/D converter 13 to theserver 100 by wireless communication via thefirst communication unit 19. And then in step S07 thesecond ASIC 102 of theserver 100 performs image processing upon the digital image signal received via thesecond communication unit 101, and thereby generates image data (i.e. a live view image). - If in step S01, due to some reason such as, for example, the
camera 10 being a long way away from the base station for wireless communication or the like, a state becomes established in which wireless communication between thecamera 10 and theserver 100 is not possible, then the flow of control is transferred to step S08. In this step S08, thefirst control unit 21 makes a decision as to whether or not the temperature of theimaging element 12 detected by thetemperature sensor 20 is less than or equal to a predetermined threshold value. If the temperature of theimaging element 12 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S09. In this step S09, thefirst control unit 21 inputs the digital image signal outputted from the A/D converter 13 to thefirst ASIC 14, and generates image data (i.e. a live view image) by performing image processing upon this digital image signal with thefirst ASIC 14. - On the other hand, if the temperature of the
imaging element 12 is greater than the predetermined threshold value, then the flow of control is transferred to step S10. In this step S10, the first control unit changes over from live view in the movie image mode to live view in a still image mode, thus alleviating the amount of processing by theimaging element 12 and thefirst ASIC 14. - As described above, in the live view image generation processing, the
first control unit 21 determines whether or not to transmit the digital image signal to theserver 100 by referring to three operational states of thecamera 10, i.e. whether or not wireless communication with thefirst communication unit 19 is possible, the temperature of theimaging element 12 as detected by thetemperature sensor 20, and the amount of image processing (i.e. the image processing load or the amount of calculation) to be performed by thefirst ASIC 14. - If wireless communication can be performed (i.e. if an affirmative decision is reached in step S01), then the
first communication unit 21 causes thesecond ASIC 102 in theserver 100 to perform processing of the digital image signal outputted from the A/D converter 13. Since, due to this, the burden of calculation upon thefirst ASIC 14 is reduced and the amount of heat generated by thefirst ASIC 14 decreases, accordingly rise of the temperature of theimaging element 12 is suppressed. - The photography system according to the second embodiment has a similar structure to that of the photography system according to the first embodiment, with the exception that a temperature sensor not shown in the figures is provided in the neighborhood of the
first communication unit 19. This temperature sensor not shown in the figures detects the temperature of thefirst communication unit 19. In a similar manner to the case with thefirst ASIC 14, the amount of heat generated by thefirst communication unit 19 increases as the amount of communication (i.e. the amount of data communicated) increases, and this generated heat is supplied to theimaging element 12 which is provided within the same casing according to the amount of communication - In live view image generation processing, in addition to referring to three operational states of the
camera 10, i.e. to whether or not wireless communication with thefirst communication unit 19 is possible, to the temperature of theimaging element 12 as detected by thetemperature sensor 20, and to the amount of image processing (i.e. the image processing load or the amount of calculation) to be performed by thefirst ASIC 14, thefirst control unit 21 of this embodiment determines whether or not to transmit the digital image signal to theserver 100 by further referring to the temperature of thefirst communication unit 19 as detected by a temperature sensor not shown in the figures. -
FIG. 3 is a flow chart showing the live view processing executed by thefirst control unit 21 according to this second embodiment. In a first step S11, thefirst control unit 21 determines whether or not it is possible to perform wireless communication with thefirst communication unit 19. If the situation is such that wireless communication with thefirst communication unit 19 is possible, then the flow of control proceeds to step S12. - In step S12, the
first control unit 21 makes a decision as to whether or not the temperature of theimaging element 12, which has been detected with thetemperature sensor 20, is less than or equal to a predetermined threshold value. If the temperature of theimaging element 12 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S13. In this step S13, thefirst control unit 21 makes a decision as to whether or not the amount of image processing (i.e. the amount of calculation) required in order to generate image data (i.e. a live view image) will be greater than or equal to a predetermined threshold value. If the amount of image processing is greater than or equal to the predetermined threshold value, then the flow of control proceeds to step S14. - In step S14, by wireless communication via the
first communication unit 19, thefirst control unit 21 transmits a portion of the digital image signal outputted from the A/D converter 13 to theserver 100. And in the next step S05 thefirst ASIC 14 of thecamera 10 and thesecond ASIC 102 of theserver 100 share the image processing upon the digital image signal between one another. - On the other hand, if in step S13 the amount of image processing is less than the predetermined threshold value and if in step S12 the temperature of the
imaging element 12 is less than the predetermined threshold value, then the flow of control is transferred to step S16. In this step S16, thefirst control unit 21 makes a decision as to whether or not the temperature of thefirst communication unit 19, which has been detected with the temperature sensor not shown in the figures, is less than or equal to a predetermined threshold value (for example, 60° C.). If the temperature of thefirst communication unit 19 is less than or equal to the predetermined threshold value, then the flow of control proceeds to step S17. In this step S17, thefirst control unit 21 transmits the digital image signal outputted from the A/D converter 13 to theserver 100 by wireless communication via thefirst communication unit 19. And then in step S18 thesecond ASIC 102 of theserver 100 performs image processing upon the digital image signal that has been received via thesecond communication unit 101, and thereby generates image data (i.e. a live view image). - If in step S16 the temperature of the
first communication unit 19 is greater than the predetermined threshold value, then the flow of control proceeds to step S14. In step S14 and step S15, as already explained, thefirst control unit 21 transmits a portion of the digital image signal outputted from the A/D converter 13 to theserver 100 by wireless communication via thefirst communication unit 19, and image processing is performed by being shared between thefirst ASIC 14 of thecamera 10 and thesecond ASIC 102 of theserver 100. This is a preventative measure in case the temperature of thefirst communication unit 19 should become too high. It should be understood that the threshold value for the temperature of thefirst communication unit 19 may be set in five ° C. steps, as appropriate. - Moreover, instead of steps S14 and S15, if the temperature of the
first communication unit 19 becomes greater than or equal to a prescribed value, it may also be arranged for thecontrol unit 21 to stop transmitting the digital image to theserver 100 with thefirst communication unit 19, and thefirst ASIC 14 to perform image processing. - It should be understood that, since the processing (i.e. steps S19 through S21) following the processing in step S11 which is performed when the system is in a state in which wireless communication between the
camera 10 and theserver 100 is not possible is the same as the processing of the steps S08 through S10 ofFIG. 2 explained in connection with the first embodiment, and accordingly explanation thereof is omitted. - The photography system according to the third embodiment has a structure corresponding to that of the photography system according to the first embodiment, but with the
temperature sensor 20 eliminated. During photography of a still image in a still image photographic mode, thefirst control unit 21 performs image processing with thefirst ASIC 14, while, during movie image photography in the movie image photographic mode, image processing is performed by thesecond ASIC 102 of theserver 100. Since in this manner, in this third embodiment, thefirst control unit 21 determines according to the photographic mode whether image processing should be performed by thefirst ASIC 14 or by thesecond ASIC 102, accordingly it is possible to simplify the structure and the control of the photography system. - Variations of the following types also fall within the scope of the present invention, and moreover one or more of the following variant embodiments can also be combined with one or a plurality of the embodiments described above.
- By contrast with the fact that in the first embodiment, for example, the live view image generated by the
first ASIC 14 is outputted to thedisplay unit 15 almost in real time, the live view image generated by thesecond ASIC 102 needs to be sent via wireless communication by thefirst communication unit 19 and thesecond communication unit 101, so that some delay inevitably occurs. In order to suppress this delay, it will be acceptable to arrange for thefirst control unit 21 to buffer the live view image outputted by thefirst ASIC 14 and the live view image received by thefirst communication unit 19 in a memory not shown in the figures, so that the display of the live view image is always delayed by a constant time interval (for example 0.5 seconds). Due to this, the live view image that is displayed upon thedisplay unit 15 continues to be shown smoothly, even if a delay occurs in the transmission of the live view image that is transmitted from theserver 100. - Furthermore, during changing over between the ASICs that are employed for generating the live view image, it would also be acceptable to arrange to provide an interval during which the
first control unit 21 operates both thefirst ASIC 14 and thesecond ASIC 102. By doing this, no temporary interruption of the live view image takes place when changing over is performed. This point will now be explained in more detail in the following. -
FIG. 4 is a time chart showing several changeovers between thefirst ASIC 14 and thesecond ASIC 102 along with changes of temperature of theimaging element 12. It should be understood that inFIG. 4 , in order to simplify the explanation, it is supposed that thefirst ASIC 14 and thesecond ASIC 102 do not share the image processing between them, as in steps S04 and S05 ofFIG. 2 . - Image processing by the
first ASIC 14 is started at the time point t1, so that live view display upon thedisplay unit 15 starts. Subsequent to the time point t1, thefirst ASIC 14 generates heat by repeatedly executing image processing, so that the temperature of theimaging element 12 rises. And thereafter, at the time point t2, the temperature of theimaging element 12 as detected by thetemperature sensor 20 becomes greater than the threshold value. Although thefirst control unit 21 starts transmission of the digital image signal outputted from the A/D converter 13 to theserver 100 at this time point, thefirst control unit 21 causes thefirst ASIC 14 to execute in parallel the image processing. And at the time point t3, at which point a time interval has elapsed that is sufficient for absorbing the delay accompanying wireless communication, thefirst control unit 21 stops image processing by thefirst ASIC 14. - Subsequent to the time point t3, since the
first ASIC 14 is not performing any processing, accordingly the amount of heat that it generates is extremely low, and therefore increase of the temperature of theimaging element 12 is prevented. As a result, at the time point t4, the temperature of theimaging element 12 as detected by thetemperature sensor 20 becomes less than or equal to the threshold value. Although, corresponding thereto, thefirst control unit 21 resumes image processing by thefirst ASIC 14, transmission of the digital image signal to theserver 100 is still performed in parallel therewith, in a similar manner to the case at the time point t2. And then at the time point t5, when a fixed time period has elapsed, thefirst control unit 21 stops the transmission of the digital image signal to thefirst control unit 21. By overlapping the operations of the two ASICs in this manner when changing over between them, it is possible to keep the influence of delay in communication to the minimum limit. - While, in
FIG. 1 , a photography system was shown in which thesingle camera 10 and thesingle server 100 were connected together by thenetwork 80, it would also be possible for a plurality of cameras to be connected to a single server, and it would also be possible for a plurality of servers and a plurality of cameras to be connected together.FIG. 5 shows an example in which a plurality of cameras (acamera 10, acamera 30, and a camera 50) are connected to asingle server 100. - In
FIG. 5 , each of thecamera 10, thecamera 30, and thecamera 50 creates different photographic image data by performing photographic processing. In more concrete terms, the details of the image processing that each of afirst ASIC 14 comprised in thecamera 10, athird ASIC 34 comprised in thecamera 30, and afifth ASIC 54 comprised in thecamera 50 can perform are different. Accordingly, even if the same analog image signals are outputted from their correspondingimaging elements 12, the image data generated by thefirst ASIC 14, the image data generated by thethird ASIC 34, and the image data generated by thefifth ASIC 54 will differ from one another, for example in hue and/or texture and so on. - The
server 100 shown inFIG. 5 comprises, in addition to asecond ASIC 102 that is capable of performing image processing equivalent to that performed by thefirst ASIC 14, afourth ASIC 112 that is capable of performing image processing equivalent to that performed by thethird ASIC 34 and asixth ASIC 122 that is capable of performing image processing equivalent to that performed by thefifth ASIC 54. In other words, for example, the image data that has been generated due to image processing by thefourth ASIC 112 is approximately the same as the image data that has been generated due to image processing by thethird ASIC 34. - With the photography system having the structure described above, along with its digital image signal, the control unit of each of the cameras transmits information related to the details of the image processing executed by its ASIC to the
server 10. This information may be, for example, the name of the camera type, and/or information specifying the specification of its ASIC (color, white balance, texture, and so on), and/or parameters or the like of the image processing executed by its ASIC. And, on the basis of this information related to the details of image processing that has been received, thesecond control unit 106 determines which ASIC is to be used for performing processing upon the digital image signal that have been received along with this information. For example, if a digital image signal has been received from thecamera 30, thesecond control unit 106 may cause processing thereof to be performed by thefourth ASIC 112. - While, in the first embodiment described above, the
temperature sensor 20 was provided in the neighborhood of theimaging element 12, and thefirst control unit 21 determined whether or not it was possible to transmit the digital image signal on the basis of the temperature of theimaging element 12 as detected by thistemperature sensor 20, it would also be acceptable to arrange to provide thetemperature sensor 20 in the neighborhood of thefirst ASIC 14, and to determine whether or not it is possible to transmit the digital image signal, not on the basis of the temperature of theimaging element 12, but rather on the basis of the temperature of thefirst ASIC 14. The same variation would be possible in the case of the second embodiment. Moreover, it would also be possible not to determine whether or not it is possible to transmit the digital image signal on the basis of the temperature detected by thetemperature sensor 20, but rather on the basis of the change over time of the temperature detected by the temperature sensor 20 (i.e. on the basis of the temperature gradient). Yet further, it would also be possible to provide temperature sensors in the neighborhoods of both theimaging element 12 and thefirst ASIC 14. - It would also be possible for the device that is provided exterior to the
camera 10 and that receives the digital image signal from thecamera 10 and performs image processing thereof to be some type of external apparatus other than aserver 100; for example, it could be a portable type electronic apparatus such as a personal computer or a so-called smart phone, or a tablet-type (slate-type) computer or the like. - In the embodiment described above, an example was explained which was an integrated lens type digital camera. However, the present invention is not limited to this type of embodiment. For example, it would also be possible to apply the present invention to a so-called single lens reflex type digital camera whose lens is interchangeable, or to a digital camera of the interchangeable lens type that has no quick return mirror (i.e. a mirror-less camera), or to a portable type electronic apparatus such as a tablet type computer or the like. It should be understood that in the case of a single lens reflex type digital camera it would also be possible to provide a live view button or switch that performs live view display, and in this case it could be set to movie image live view or to still image live view. It would also be possible to apply the first embodiment to this case as well.
- The present invention is not to be considered as being limited to the embodiments described above; provided that the particular characteristics of the present invention are preserved, other embodiments that are considered to fall within the range of the technical concept of the present invention are also included within the scope of the present invention.
- The contents of the disclosure of the following application, upon which priority is claimed, are hereby incorporated herein by reference: Japanese Patent Application 2013-39,128 (filed on Feb. 28, 2013).
- 1: photography system; 10, 30, 50: cameras; 11: optical system; 12: imaging element; 13: A/D converter; 14: first ASIC; 15: display unit; 16: recording medium; 17: operation unit; 18: first memory; 19: first communication unit; 20: temperature sensor; 21: first control unit; 80: network; 100: server; 101: second communication unit; 102: second ASIC; 104: second memory; 106: second control unit.
Claims (11)
1. An electronic apparatus comprising:
an image processing unit that performs image processing; and
a communication unit that is capable of communicating with a plurality of external apparatuses each of which includes a photography unit outputting first image data, wherein
the communication unit receives the first image data and information related to image processing performed on the first image data from one of the plurality of external apparatuses, and
the image processing unit performs image processing on the first image data received by the communication unit based on the information related to image processing to generate second image data.
2. The electronic apparatus according to claim 1 , wherein
the communication unit transmits the second image data to the one of the plurality of external apparatuses.
3. The electronic apparatus according to claim 1 , wherein
the information related to image processing is at least one of a type name of the one of the plurality of external apparatuses, a specification of the one of the plurality of external apparatuses, and a parameter of image processing performed in the one of the plurality of external apparatuses.
4. The electronic apparatus according to claim 1 , wherein
the image processing unit performs image processing on the first image data to generate the second image data so as to be able to be displayed in the one of the plurality of external apparatuses.
5. The electronic apparatus according to claim 1 , wherein
the communication unit receives apparatus information of the one of the plurality of external apparatuses and the first image data together from the one of the plurality of external apparatuses.
6. The electronic apparatus according to claim 1 , wherein
the information includes color information and a parameter related to white balance adjustment.
7. The electronic apparatus according to claim 1 , wherein
the first image data is image data outputted through movie image photography.
8. The electronic apparatus according to claim 1 , further comprising
a recording unit that records the second image data which has been processed by the image processing unit.
9. An image processing method comprising:
communicating with a plurality of external apparatuses each of which includes a photography unit outputting first image data;
receiving the first image data from one of the plurality of external apparatuses;
receiving information related to image processing performed on the first image data from one of the plurality of external apparatuses; and
performing image processing based on the first image data and the information related to image processing to generate second image data.
10. The image processing method according to claim 9 , further comprising
transmitting the second image data to the one of the plurality of external apparatuses.
11. The image processing method according to claim 9 , wherein
the information related to image processing is at least one of a type name of the one of the plurality of external apparatuses, a specification of the one of the plurality of external apparatuses, and a parameter of image processing performed in the one of the plurality of external apparatuses.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
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US16/427,506 US20190289242A1 (en) | 2013-02-28 | 2019-05-31 | Electronic apparatus and method for conditionally providing image processing by an external apparatus |
Applications Claiming Priority (7)
Application Number | Priority Date | Filing Date | Title |
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JP2013-039128 | 2013-02-28 | ||
JP2013039128 | 2013-02-28 | ||
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US10455180B2 (en) | 2019-10-22 |
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