JP2012080290A - Camera control system - Google Patents

Abstract

【Task】
When constructing an electric power system using a distributed power source such as solar power generation, even if the electric power supply is received from the commercial system of the electric power company, the power supply amount from the commercial system is suppressed as much as possible.
[Solution]
A camera control system that supplies power to a camera having a turning / heating function by connecting a power generation device that generates power using natural energy, a storage battery, and a commercial power source,
A power generation amount detecting means for detecting a power generation amount of the power generation device;
A storage amount detection means for detecting a storage amount of the storage battery;
A camera control system comprising: control means for controlling a turning function and / or a heater function of the camera based on the power generation amount and the storage amount.
[Selection] Figure 1

Description

  Embodiments described herein relate generally to a camera control system.

  There is a camera monitoring system for disaster prevention that operates by receiving power supply from a power generation device derived from natural energy such as sunlight.

  For example, by installing a storage battery in a solar power generation system, if the amount of power generation exceeds the amount used at the installation site, electricity is stored in the storage battery, and if the amount of power generation is lower, it is supplied from the storage battery, and the storage battery is completely discharged. After that, social experiments were conducted on a mechanism for supplying power from electric power companies.

JP 2008-167047 A

  Here, even when power is supplied from a commercial system of an electric power company, it is desired to suppress the power supply amount as much as possible.

  In view of the above circumstances, it is an object of the present invention to provide a camera control system and a camera control method that make efficient the independent supply of power to a load by a single system equipped with a power supply device derived from natural energy such as solar power generation. .

In order to achieve the above object, the camera control system
A camera control system that supplies power to a camera having a turning / heating function by connecting a power generation device that generates power using natural energy, a storage battery, and a commercial power source,
A power generation amount detecting means for detecting a power generation amount of the power generation device;
A storage amount detection means for detecting a storage amount of the storage battery;
Control means for controlling a turning function and / or a heater function of the camera based on the power generation amount and the power storage amount.

The figure which shows the structure of the camera control system which concerns on 1st Embodiment. Power supply operation pattern (1). Power supply operation pattern (2). Power supply operation pattern (3). Power supply operation pattern (4). Power supply operation pattern (5). Power supply operation pattern (6). 5 is a flowchart illustrating an example of the operation of the camera control system according to the first embodiment. 6 is a flowchart showing another example of the operation of the camera control system according to the first embodiment. The figure which shows the structure of the camera control system which concerns on 2nd Embodiment. 6 is a flowchart showing the operation of the camera control system according to the second embodiment. The figure which shows the structure of the camera control system which concerns on 3rd Embodiment. 9 is a flowchart showing the operation of a camera control system according to a third embodiment. The figure which shows the structure of the camera control system which concerns on 4th Embodiment. The figure which shows the structure of the camera control system which concerns on 5th Embodiment.

  The configuration of the embodiment of the present invention will be described below with reference to the drawings.

(First embodiment)
As shown in FIG. 1, the camera control system according to the present embodiment includes a remote monitoring device 10, a machine-side control device 20, a commercial power supply 40, a solar panel 51 that is a power generation device, and a camera 61. is there.

  The remote monitoring device 10 includes a camera control server 11, a switch 12, a decoder 13, and a monitor 14.

  The camera control server 11 is a server that manages the camera monitoring system. It has an arithmetic processing function for management, and performs processing necessary for system failure detection and other system operations. Main functions include video output of the camera 61, decoder switching, manual turning, preset turning, lens control, wiper control, defroster control, heater control, illumination control, and the like. Control of the camera 61 from the camera control server 11 is performed via the camera controller 21 after serial conversion is performed by the encoder 22 via the IP network.

  In addition, the camera control server 11 acquires various values such as the power generation amount, the power storage amount, and the power supply amount measured by the power monitoring device 24. From these values, an instruction for switching between the normal mode 13 and the energy saving mode (energy saving mode) 13 of the camera 61 is given by an electric signal (control signal) according to a predetermined pattern.

  Examples of the predetermined patterns include the following six as shown in FIGS.

(1) When the amount of power generated by the power generator is greater than the amount of load power consumed, and the storage battery is fully charged (FIG. 2)
Power is supplied (power supply) from the power generator to the load equipment.

(2) When the power generation amount of the power generation device is larger than the load power consumption and the storage battery is not fully charged (FIG. 3)
Power is supplied from the power generator to the load facility (electric power supply), and if there is surplus power, the storage battery is charged.

(3) When the power generation amount of the power generator is less than the load power consumption and the storage battery has capacity (FIG. 4)
Power is supplied from the power generator to the load power consumption (electricity supply), and the shortage is supplied from the storage battery.

(4) When the power generation amount of the power generator is less than the load power consumption and the storage battery has no capacity (FIG. 5)
Power is supplied from the power generator to the load power consumption (electricity supply), and the shortage is supplied from commercial power.

(5) When no power is generated by the power generator and the storage battery has a capacity (FIG. 6)
Electric power is supplied from the storage battery to the load power consumption. It can be said that it is an example of pattern (3).

(6) When no power is generated by the power generator and the storage battery has no capacity (Fig. 7)
Electric power is supplied from the commercial power source to the load equipment. It can be said that it is an example of pattern (4).

  In the case of pattern (1) as control according to the above pattern, the camera 61 is instructed in the normal mode. In the case of patterns (2), (3), and (5), the camera 61 is instructed in the energy saving mode 1. In the case of patterns (4) and (6), the camera 61 is instructed in the energy saving mode 2.

  The switch 12 relays the transmitted signal.

  The decoder 13 performs an analog conversion of image / video data and audio data sent from the camera 61 as IP, and performs a decoding process.

  The monitor 14 is a display screen that displays an image / video sent from the camera 61 decoded by the decoder 13. In the present embodiment, the medium is described as a medium for displaying images / videos, but other output functions, for example, an audio output unit that outputs audio may be used.

  The machine-side control device 20 includes a camera controller 21, an encoder 22, a switch 23, a power monitoring device 24, a power conditioner (PCS) 31, and a storage battery 32.

  When receiving a control signal for the camera 61 from the camera control server 14, the camera controller 21 transmits an instruction for zooming or turning of the camera unit 10. An instruction for switching between the normal mode and the energy saving modes 1 and 2 is also transmitted.

  The encoder 22 encodes the image / video information from the camera 61 by sampling and quantization. The encoded image / video data is sent to the remote monitoring device 10. In addition, the electrical signal from the camera server 11 is serially converted and transmitted to the camera 61.

  The switch 23 relays the transmitted signal.

  The power monitoring device 24 measures the amount of power generated by the solar panel 51, the amount of power stored in the storage battery 32, and the amount of power supplied from the commercial power source 40. For example, an ammeter, a voltmeter, or a galvanometer. The measured measurement value is sent to the camera control server 11.

  The power conditioner (PCS) 31 is an AC / DC converter having storage battery control and reverse power flow prevention control functions. The current is controlled in accordance with the voltage phase of the AC system including the commercial power supply and other distributed power supplies (solar panel 51 in this embodiment), and the power generation amount of each solar power supply 51 is maximized. Perform output control. In addition, with respect to the storage battery 32, supply-and-demand control including charge is implemented. Further, by controlling the supply and demand power from the solar panel 51 and the storage battery 32, grid interconnection control is performed to compensate for the short-term change in the amount of power generated from the solar panel 51.

  As a specific operation, when the power system is connected to the commercial power source 40 and when it is disconnected, the supply and demand power from the solar panel 21 and the storage battery 32 is controlled by different control algorithms. To do. When the power generation amount of the solar panel 51 exceeds the total value of the load power consumption and the charge amount to the storage battery 32 of the camera controller 21, encoder 22, camera 61, etc., which are load equipment, Adjustment is made so that there is no reverse power flow to the power supply 40.

  The storage battery 32 is a distributed power source that stores power and supplies power to each component such as the camera 61 that consumes power in cooperation with other power sources. Controlled by the power conditioner 31, the output frequency and the like are controlled so that the output required for the grid connection is obtained. A constant AC waveform is generated mainly by PWM (pulse width modulation) in a single system, and a reference waveform of the output voltage / current is given, and the disturbance of the output waveform from the solar panel 51 is flattened.

  The commercial power source 40 is a commercial power source that supplies power from an electric power company.

  The solar panel 51 is a distributed power source that converts solar energy into electrical energy. The converted power is controlled by the PCS 31 and supplies power to each load such as the camera 61 in cooperation with a commercial power supply or other distributed power supply.

  The camera 61 is a device that images a subject. A digital camera or an analog camera. For example, a PTZ camera (integrated pan / tilt / zoom lens) can be used to perform pan / tilt / zoom. In addition, a heater is provided to warm the camera when the temperature falls below a certain temperature to prevent freezing. Controls such as zooming and turning of the camera unit and ON / OFF of the heater are performed by the management server 11 via the camera controller 21 in the machine-side control device 20. An image captured by the camera 61 is sent to each unit in the machine-side control unit 20.

  Using these functions, the camera 61 has at least three modes of a normal mode, an energy saving mode 1, and an energy saving mode 2, and performs operation control in each mode when an instruction is given from the camera control server 11.

  The normal mode is a mode in which normal camera operation is performed without any limitation on control.

  The energy saving mode 1 is control for performing the turning control at a low speed. Normally, high-speed turning is performed during preset turning, but high-speed turning consumes a large amount of power, so control is performed so that turning is performed at low speed even during preset turning. In addition, for manual turning, turning is performed at low speed, and turning control is performed with low power consumption.

  The energy saving mode 2 is a mode in which the control of the heater is added to the control of the energy saving mode 1. In normal mode and energy saving mode 1, when the temperature falls below a certain temperature, the heater is always turned on to prevent the camera from freezing. In energy saving mode 2, the heater is turned on and off repeatedly to reduce consumption. Freezing prevention control is performed with electric power.

  Transition to these modes is performed based on a command sent from the camera control server 11.

  The energy saving mode is not limited to this, and any other mode that can be operated with energy saving as compared with the normal mode may be used. Further, in the present embodiment, the camera 61 is described as one unit, but a plurality of units may be provided.

  The control line 100 is a line for transmitting various control signals such as an IP network. In the present embodiment, all are described as being wired, but all may be wireless or partially wireless.

  The power line 200 is a cable or the like that performs power transmission.

  Next, the operation of this embodiment will be described with reference to FIGS.

  FIG. 8 shows a control flow by the control unit 101 when the power generation amount and the power storage amount of the solar panel 51 are divided into four patterns based on the relationship with the power consumption consumed by the load.

  The camera controller 21, the encoder 22, and the camera 61 are operated by receiving power from the solar panel 51, the storage battery 32, or the commercial power source 40, which is a distributed power source. To the device 10.

  In addition, the control unit 101 detects, from the power monitoring device 24, measured values of the amount of power generated by the solar panel 51, the amount of power stored in the storage battery 32, and the amount of power supplied from the commercial power supply 40. It is determined from the detected value whether the power generation amount of the solar panel 51 is equal to or greater than the load power consumption amount used by the camera 61 or the like (step S101).

  When the power generation amount of the solar panel 51 is equal to or greater than the load power consumption (step S101—YES), it is further determined whether or not the storage battery 32 is fully charged (step S102).

  If it is determined in step S102 that the battery is fully charged (step S102-YES), an instruction for the normal mode is sent to the camera 61 (step S103).

  If it is determined in step S102 that the battery is not fully charged (step S102—NO), an instruction for energy saving mode 1 is sent to the camera 61 (step S104).

  Even when the power generation amount of the solar panel 51 is less than the load power consumption amount (step S101—NO), it is further determined whether or not the storage battery 32 has a capacity (step S105).

  If it is determined in step S105 that there is capacity (YES in step S105), an instruction for energy saving mode 1 is sent to the camera 61 (step S106).

  If it is determined in step S105 that there is no capacity (NO in step S105), an instruction for energy saving mode 2 is sent to the camera 61 (step S107).

  Next, a case where the pattern is divided into six patterns as shown in FIG. 9 will be described.

  Similarly to the above, power is supplied from the solar panel 51, the storage battery 32 or the commercial power source 40, which is a distributed power source, and the camera controller 21, the encoder 22, and the camera 61 are operating. Video is sent to the remote monitoring device 10.

  In addition, the control unit 101 detects, from the power monitoring device 24, measured values of the amount of power generated by the solar panel 51, the amount of power stored in the storage battery 32, and the amount of power supplied from the commercial power supply 40. It is determined from the detected value whether the power generation amount of the solar panel 51 is equal to or greater than the load power consumption amount used by the camera 61 or the like (step S201).

  If the power generation amount of the solar panel 51 is equal to or greater than the load power consumption (step S201—YES), it is further determined whether or not the storage battery 32 is fully charged (step S202).

  If it is determined in step S102 that the battery is fully charged (step S202—YES), an instruction for the normal mode is sent to the camera 61 (step S203).

  If it is determined in step S102 that the battery is not fully charged (step S202—NO), an instruction for energy saving mode 1 is sent to the camera 61 (step S204).

  When the power generation amount of the solar panel 51 is less than the load power consumption amount (step S201—NO), it is further determined whether or not there is a power generation amount (step S205).

  If it is determined in step 205 that there is a power generation amount (step S205—YES), it is further determined whether the storage battery 32 has capacity (step S206).

  If it is determined in step S206 that there is capacity (YES in step S206), an instruction for energy saving mode 1 is sent to the camera 61 (step S207).

  If it is determined in step S206 that there is no capacity (NO in step S206), an instruction for energy saving mode 2 is sent to the camera 61 (step S208).

  If it is determined in step 205 that there is no power generation (step S205—NO), it is further determined whether or not there is a capacity of the storage battery 32 (step S209).

  If it is determined in step S209 that there is capacity (YES in step S209), an instruction for energy saving mode 1 is sent to the camera 61 (step S210).

  If it is determined in step S209 that there is no capacity (step S209—NO), an instruction for energy saving mode 2 is sent to the camera 61 (step S211).

  In this embodiment, the camera controller 21 and the encoder 22 are installed in the machine-side control device 20, but the camera 61 may have a camera control function and an encoding function instead.

  In the present embodiment, the full charge of the storage battery 32 is described. However, the full charge value may be 90% of the maximum amount that can be stored. Further, it is conceivable that the criterion for determining whether or not there is a storage capacity is 70% of the maximum amount that can be stored. Similarly, even if it is determined whether there is a power generation amount of the solar panel 51, a reference value other than the determination criteria described in the present embodiment may be used, such as assuming that there is no power generation amount if the power generation amount is less than a certain level. Good.

  In this way, by switching the power mode to the load between the normal mode and the energy-saving mode based on the power generation amount of the power source device derived from natural energy such as solar power generation, the camera that operates with constant power by improving the efficiency of independent supply A control system and a camera control method can be provided.

(Second Embodiment)
A second embodiment will be described with reference to FIGS. 10 and 11.

  The difference in configuration from the first embodiment is that the machine-side control device 20 includes measurement devices 25 and 26 as shown in FIG. 10, and a barometer 62 and an illuminance meter 63 installed around the camera 61. It is a point provided with. In addition, the camera control server 11 switches between the normal mode and the energy saving mode with the installation.

  The measuring device 25 sends the atmospheric pressure information around the camera 61 acquired by the barometer 62 to the camera control server 11 via the switch 24 and the switch 14.

  The measuring device 26 sends the illuminance information around the camera 61 acquired by the illuminometer 63 to the camera control server 11 via the switch 24 and the switch 14.

  The barometer 62 measures the atmospheric pressure around the camera 61.

  The illuminance meter 63 measures the illuminance around the camera 61.

  Further, the camera control server 11 determines whether or not a reduction in daily illuminance is expected by using one or both of the atmospheric pressure information and the illuminance information. The determination of whether or not the reduction in daily illuminance is expected is performed by performing pattern matching with past data. In addition, various methods can be used.

  The operation of this embodiment will be described with reference to FIG.

  Similarly to the above, power is supplied from the solar panel 51, the storage battery 32 or the commercial power source 40, which is a distributed power source, and the camera controller 21, the encoder 22, and the camera 61 are operating. Video is sent to the remote monitoring device 10.

  In addition, the control unit 101 detects, from the power monitoring device 24, measured values of the amount of power generated by the solar panel 51, the amount of power stored in the storage battery 32, and the amount of power supplied from the commercial power supply 40. It is determined from the detected value whether the power generation amount of the solar panel 51 is equal to or greater than the load power consumption amount used by the camera 61 or the like (step S301).

  When the power generation amount of the solar panel 51 is equal to or greater than the load power consumption (step S301-YES), it is further determined whether or not the storage battery 32 is fully charged (step S302).

  If it is determined in step S302 that the battery is fully charged (step S302—YES), it is determined whether or not the daily illuminance is likely to decrease (step S303).

  If it is determined in step 303 that the daily illuminance is likely to be reduced (step S303—YES), an instruction for energy saving mode 1 is sent to the camera 61 (step S304).

  If it is determined in step 303 that there is no expectation of reduction in daily illuminance (NO in step S303), an instruction for normal mode is sent to the camera 61 (step S305).

  If it is determined in step S302 that the battery is not fully charged (NO in step S302), it is determined whether or not the daily illuminance is likely to be reduced (step S304).

  If it is determined in step 304 that the daily illuminance is likely to be reduced (step S303—YES), an instruction for energy saving mode 2 is sent to the camera 61 (step S307).

  If it is determined in step 304 that there is no expectation of reduction in daily illuminance (step S303—NO), an instruction for energy saving mode 1 is sent to the camera 61 (step S308).

  When the power generation amount of the solar panel 51 is equal to or greater than the load power consumption (step S301-NO), it is further determined whether or not the storage battery 32 has a capacity (step S309).

  If it is determined in step S309 that there is capacity (YES in step S309), it is determined whether or not the daily illuminance is likely to be reduced (step S310).

  If it is determined in step 310 that the daily illuminance is likely to be reduced (step S310—YES), an instruction for energy saving mode 2 is sent to the camera 61 (step S311).

  If it is determined in step 310 that there is no expectation of reduction in daily illuminance (NO in step S310), an instruction for energy saving mode 1 is sent to the camera 61 (step S312).

  If it is determined in step S309 that there is no capacity (NO in step S302), an instruction for energy saving mode 2 is sent to the camera 61 (step S313).

  In the present embodiment, the case where the pattern is divided into four patterns has been described. However, the pattern may be divided into six patterns as in the first embodiment.

  In this way, the power supply to the load is switched between the normal mode and the energy saving mode based on the power generation amount of the power supply device derived from natural energy such as solar power generation and the likelihood judgment of reducing the daily illuminance, thereby improving the efficiency of independent supply. A camera control system and a camera control method that operate at constant power can be provided.

(Third embodiment)
A third embodiment will be described with reference to FIGS.

  The difference from the first embodiment is that the camera control server 11 in the remote monitoring device 10 has a sensitivity determination function 111 of the camera 61 as shown in FIG.

  The sensitivity determination function 11 acquires the state of the camera 61 at a fixed period and acquires camera sensitivity information. That is, when the camera 61 is shooting with a low sensitivity lower than a certain threshold, it is determined that there is a lot of sunlight, and when the camera 61 is shooting with a sensitivity higher than a certain threshold, the sunlight is low. To do.

  Based on the result of this determination, the normal mode and the energy saving mode are switched.

  The operation of the third embodiment will be described with reference to FIG.

  Similarly to the above, power is supplied from the solar panel 51, the storage battery 32 or the commercial power source 40, which is a distributed power source, and the camera controller 21, the encoder 22, and the camera 61 are operating. Video is sent to the remote monitoring device 10.

  In addition, the control unit 101 detects, from the power monitoring device 24, measured values of the amount of power generated by the solar panel 51, the amount of power stored in the storage battery 32, and the amount of power supplied from the commercial power supply 40. It is determined from the detected value whether the power generation amount of the solar panel 51 is equal to or greater than the load power consumption amount used by the camera 61 or the like (step S401).

  When the power generation amount of the solar panel 51 is equal to or greater than the load power consumption (step S401—YES), it is further determined whether or not the storage battery 32 is fully charged (step S402).

  If it is determined in step S302 that the battery is fully charged (step S402-YES), it is further determined whether the sensitivity is equal to or higher than a threshold value (step S403).

  If it is determined in step 403 that the sensitivity is less than the threshold (YES in step S403), an instruction for energy saving mode 1 is sent to the camera 61 (step S404).

  If it is determined in step 403 that the sensitivity is greater than or equal to the threshold (step S403—NO), an instruction for the normal mode is sent to the camera 61 (step S405).

  If it is determined in step S402 that the battery is not fully charged (step S402—NO), it is further determined whether or not the sensitivity is equal to or higher than a threshold value (step S404).

  If it is determined in step 404 that the sensitivity is less than the threshold (YES in step S403), an instruction for energy saving mode 2 is sent to the camera 61 (step S407).

  If it is determined in step 404 that the sensitivity is greater than or equal to the threshold (step S403—NO), an instruction for energy saving mode 1 is sent to the camera 61 (step S408).

  When the power generation amount of the solar panel 51 is equal to or greater than the load power consumption (step S401—NO), it is further determined whether or not the storage battery 32 has a capacity (step S409).

  If it is determined in step S409 that there is a capacity (YES in step S409), it is further determined whether the sensitivity is equal to or higher than a threshold value (step S410).

  If it is determined in step 410 that the sensitivity is less than the threshold value (step S410—YES), an instruction for energy saving mode 2 is sent to the camera 61 (step S411).

  If it is determined in step 410 that the sensitivity is greater than or equal to the threshold (step S410—NO), an instruction for energy saving mode 1 is sent to the camera 61 (step S412).

  If it is determined in step S409 that there is no capacity (step S402—NO), an instruction for energy saving mode 2 is sent to the camera 61 (step S413).

  In the present embodiment, the case where the pattern is divided into four patterns has been described. However, the pattern may be divided into six patterns as in the first embodiment. Further, instead of “more than threshold and less than threshold”, “higher than threshold, less than threshold” may be used.

  Further, in place of the sensitivity determination function 11, as an image determination function that analyzes the brightness, brightness, saturation, etc. of the image or video sent from the camera 61 and determines whether or not the predetermined threshold value is exceeded. Also good. Determination of the brightness of an image or video is performed by performing pattern matching with past data. In addition, various methods can be used.

  In this way, by switching the power mode to the load between the normal mode and the energy saving mode based on the power generation amount of the power supply device derived from natural energy such as solar power generation and the sensitivity of the camera, the self-sustained supply is made more efficient and the constant power A camera control system and a camera control method can be provided.

(Fourth embodiment)
The difference of this embodiment from the second embodiment is that a plurality of solar panels 51 are connected by a junction box 33 as shown in FIG.

  The junction box 33 has a breaker function for adjusting the voltage generated by each solar panel 51 so as not to become too high. The electric power generated by the solar panel 51 is transmitted to the PCS through the connection box 33 and controlled.

  Since the operation of the fourth embodiment is the same as that shown in FIGS. 8 and 9 of the first embodiment, a description thereof will be omitted.

(Fifth embodiment)
The difference of this embodiment from the second embodiment is that a solar panel 51, a wind power generator 52, a hydroelectric power generator 53, and a vibration power generator 54 are connected by a connection box 33 as shown in FIG. is there. In the present embodiment, these four power generation devices are described, but other power generation devices such as geothermal power generation may be used.

  Since the operation of the fifth embodiment is the same as that shown in FIGS. 8 and 9 of the first embodiment, a description thereof will be omitted.

  Note that the present invention is not limited to the above-described embodiment as it is, and can be embodied by modifying the constituent elements without departing from the scope of the invention in the implementation stage. In addition, various inventions can be formed by appropriately combining a plurality of components disclosed in the embodiment. For example, some components may be deleted from all the components shown in the embodiment. Furthermore, constituent elements over different embodiments may be appropriately combined.

DESCRIPTION OF SYMBOLS 10 ... Remote monitoring apparatus 11 ... Camera control server 13 ... Decoder 14 ... Monitor 14 ... Switch 20 ... Machine side control apparatus 20
21 ... Camera controller 22 ... Encoder 24 ... Power monitoring device 24 ... Switch 25 ... Measuring device 26 ... Measuring device 31 ... PCS
32 ... Storage battery 33 ... Junction box 51 ... Solar panel 52 ... Wind generator 53 ... Hydroelectric generator 54 ... Vibration generator 61 ... Camera 62 ... Barometer 63 ... Illuminometer 100 ... Control line 200 ... Power line

Claims (3)

A camera control system that supplies power to a camera having a turning / heating function by connecting a power generation device that generates power using natural energy, a storage battery, and a commercial power source,
A power generation amount detecting means for detecting a power generation amount of the power generation device;
A storage amount detection means for detecting a storage amount of the storage battery;
A camera control system comprising: control means for controlling a turning function and / or a heater function of the camera based on the power generation amount and the storage amount. Atmospheric pressure information detecting means for detecting atmospheric pressure information around the camera;
Illuminance information detecting means for detecting illuminance information around the camera;
The control means includes
The camera control system according to claim 1, wherein a turning function and / or a heater function of the camera is controlled based on the power generation amount, the power storage amount, and the atmospheric pressure information and / or illuminance information. The camera control system according to claim 1, wherein the control unit controls a turning function and / or a heater function of the camera based on the power generation amount, the storage amount, and sensitivity information of the camera.

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