Abstract: A collection unit (111) collects a plurality of sensor values at a plurality of measurement points from a plurality of sensors provided to the plurality of measurement points, and per measurement point, accumulates environmental information data including a sensor value, in an accumulation unit (180). An interpolation unit (112) finds a sensor value at a virtual point based on one sensor value or more obtained by one sensor or more. A management unit (113) accumulates environmental information data including the sensor value at the virtual point, in the accumulation unit.

Abstract: An image acquisition unit (211) acquires a photographed image obtained by photographing an air-conditioning indoor unit including a plurality of air outlets. An image collation unit (212) collates a template image wherein an air-conditioning indoor unit of a same type as the air-conditioning indoor unit is shown with the photographed image. An air outlet identification unit (213) determines an air outlet identifier of each air outlet in the photographed image based on a collation result, and on air outlet identification data indicating an air outlet identifier to be associated with each air outlet in the template image. An identification result display unit (214) displays the photographed image by superimposing the air outlet identifier on each air outlet in the photographed image.

Abstract: An acquisition unit (21) acquires a simulation period indicating an object period for which simulations of amounts of energy consumption in a building are to be done, a parallel number indicating the number of the simulations that are to be performed in parallel, and a holiday condition indicating nonoperating days of an air conditioning system installed in the building. A planning unit (22) splits the simulation period into the parallel number to generate split periods. The planning unit (22) splits the simulation period into the parallel number so that starting days of the split periods other than an initial split period may be the nonoperating days indicated by the holiday condition. A simulation unit (23) does the simulations of the amounts of energy consumption in the building in parallel, for the split periods.

Abstract: A controller controls a radiative air-conditioning equipment which cools or heats space separated from indoor, space by a radiation panel, with an air conditioner, so as to cool or heat the indoor space by a radiation effect of the radiation panel. A data collection unit collects indoor environment data and panel temperature data from an indoor environment measurement sensor and a radiation panel measurement sensor, respectively. A heat quantity determination unit acquires panel characteristics data and device characteristics data, and determines a time-series pattern of a heat quantity to be processed by the radiative air-conditioning equipment based on the acquired data and the data collected by the data collection unit. An operation instruction unit gives to the air conditioner an instruction for operating the air conditioner according to the time-series pattern determined by the heat quantity determination unit.

Abstract: A facility risk calculation unit calculates, from a result of calculation of a thermal environment, a risk index value (ri) indicating at least either of a degree of difference (a*g(?i?1, ?i)) indicating a difference between a calculated temperature (Ci) obtained by the calculation of the thermal environment with respect to a set temperature (Si) and a target value (Si) and a degree of change (b*g(?i?1, ?i)) indicating a value of a change of the calculated target value (Ci) with respect to time. A display processing unit causes a facility risk (R) obtained from the risk index value (ri) to be displayed on a display apparatus.

Abstract: A request acquisition unit (210) acquires a request regarding a subject environment which is an indoor environment to be adjusted. A control details decision unit (220) decides, based on the acquired request, details of adjustment by an adjustment device which is for adjusting the subject environment, and details of operation of a facility device which is a device of a different type from the adjustment device and affects the subject environment. A device control unit (230) controls the adjustment device according to the details of adjustment decided, and controls the facility device according to the details of operation decided.

Abstract: In an operation control device (10), a plan selection unit (15) determines, at a time point midway through a time zone where an operation of an air conditioner (54) is controlled along one control plan among a plurality of control plans, whether a weather change pattern corresponding to the one control plan deviates from an actual weather change pattern, based on weather data. If deviates, the plan selection unit (15) selects a weather change pattern that is different from the weather change pattern corresponding to the one control plan, from among a plurality of weather change patterns, in accordance with the weather data. During a rest of the time zone, the plan selection unit (15) controls the operation of the air conditioner (54) along a control plan corresponding to the different weather change pattern, among the plurality of control plans.

Abstract: A controller controls a radiative air-conditioning equipment which cools or heats space separated from indoor, space by a radiation panel, with an air conditioner, so as to cool or heat the indoor space by a radiation effect of the radiation panel. A data collection unit collects indoor environment data and panel temperature data from an indoor environment measurement sensor and a radiation panel measurement sensor, respectively. A heat quantity determination unit acquires panel characteristics data and device characteristics data, and determines a time-series pattern of a heat quantity to be processed by the radiative air-conditioning equipment based on the acquired data and the data collected by the data collection unit.

Abstract: A control method analysis unit acquires a correspondence relation between signs and model numbers from an apparatus table of an instrumentation diagram, and acquires signs and apparatus symbols, and connection relation among apparatuses, from a drawing of the instrumentation diagram. Subsequently, the control method analysis unit acquires an apparatus classification drawn on the diagram by searching an instrumentation apparatus classification database based on the model numbers, and decides a temperature control method employed by an instrumentation indicated in the instrumentation diagram, from the apparatus classification and the connection relation. The control method analysis unit then links the decided temperature control method to the instrumentation diagram accumulated in a case database. A search processing unit extracts a corresponding instrumentation diagram by searching the case database based on a temperature control method designated as a search condition.

Abstract: A collection unit (111) collects a plurality of sensor values at a plurality of measurement points from a plurality of sensors provided to the plurality of measurement points, and per measurement point, accumulates environmental information data including a sensor value, in an accumulation unit (180). An interpolation unit (112) finds a sensor value at a virtual point based on one sensor value or more obtained by one sensor or more. A management unit (113) accumulates environmental information data including the sensor value at the virtual point, in the accumulation unit.

Abstract: A facility management local server is provided with a proxy work management unit that is communicatively coupled to a proxy management center server. If an error code is output while maintenance work that results in a change in a set value stored in a set value storage unit is being performed in a building to be maintained, the proxy work management unit allows proxy maintenance work to be performed via remote control from a maintenance worker terminal device that is communicatively coupled to the center server. Further, the proxy work management unit can display, on display units provided in the building to be maintained, a proxy request screen including an error code input field and an input field for receiving an input of the content of the maintenance work that was being performed in the building to be maintained when the error code was output.

Abstract: Including a data acquisition unit (11) that periodically acquires various measured temperatures of a liquid pipe (4), a gas pipe (5), and an intake port from an air conditioner controller (20), an operating state determination unit (12) that determines an operating state of an indoor unit (2) on the basis of the acquired various measured temperatures, a blowing temperature estimation unit (13) that estimates a blowing temperature from the indoor unit on the basis of the acquired various measured temperatures and an estimation model set in accordance with the determined operating state, and a blowing temperature display unit (14) that displays an estimated value of the blowing temperature.

Abstract: A control method analysis unit acquires a correspondence relation between signs and model numbers from an apparatus table of an instrumentation diagram, and acquires signs and apparatus symbols, and connection relation among apparatuses, from a drawing of the instrumentation diagram. Subsequently, the control method analysis unit acquires an apparatus classification drawn on the diagram by searching an instrumentation apparatus classification database based on the model numbers, and decides a temperature control method employed by an instrumentation indicated in the instrumentation diagram, from the apparatus classification and the connection relation. The control method analysis unit then links the decided temperature control method to the instrumentation diagram accumulated in a case database. A search processing unit extracts a corresponding instrumentation diagram by searching the case database based on a temperature control method designated as a search condition.

Abstract: In an operation control device (10), a plan selection unit (15) determines, at a time point midway through a time zone where an operation of an air conditioner (54) is controlled along one control plan among a plurality of control plans, whether a weather change pattern corresponding to the one control plan deviates from an actual weather change pattern, based on weather data. If deviates, the plan selection unit (15) selects a weather change pattern that is different from the weather change pattern corresponding to the one control plan, from among a plurality of weather change patterns, in accordance with the weather data. During a rest of the time zone, the plan selection unit (15) controls the operation of the air conditioner (54) along a control plan corresponding to the different weather change pattern, among the plurality of control plans.

Abstract: A control apparatus (20) calculates a plurality of Pareto optimal solutions indicating states wherein power consumption consumed by an air conditioning system (10) including a plurality of air conditioners (40A, 40B) installed in spaces (50A, 50B) is low, and wherein comfort levels of users using the spaces (50A, 50B) respectively are high, and takes, as candidate values, set values of the air conditioning system (10) to become the states indicated respectively by the plurality of Pareto optimal solutions calculated. The control apparatus (20) makes a management device (30) control the air conditioning system (10) with a selection value selected from the candidate values calculated.

Abstract: Including a data acquisition unit (11) that periodically acquires various measured temperatures of a liquid pipe (4), a gas pipe (5), and an intake port from an air conditioner controller (20), an operating state determination unit (12) that determines an operating state of an indoor unit (2) on the basis of the acquired various measured temperatures, a blowing temperature estimation unit (13) that estimates a blowing temperature from the indoor unit on the basis of the acquired various measured temperatures and an estimation model set in accordance with the determined operating state, and a blowing temperature display unit (14) that displays an estimated value of the blowing temperature.

Abstract: There is provided a means to perform a source-level verification by a third-party organization in a shorter time, while preventing leakage of technology and know-how of an ISV (Independent Software Vendor). An AP (Application Program) verification system is composed of an AP development site and a verification organization connected via a network. An API-in-use (Application Program Interface-in-use) extracting functionality extracts information relating to the API (Application Program Interface) used in a source code. The encryption functionality encrypts the source code. The API-in-use set and the encrypted source code are transmitted to the verification organization by the AP transmitting functionality. The API-in-use validity checking functionality of the verification organization verifies the validity of the API being used. If the API being used is valid, the digital signature functionality provides a digital signature to the encrypted source code.

Abstract: There is provided a means to perform a source-level verification by a third-party organization in a shorter time, while preventing leakage of technology and know-how of an ISV. An AP verification system is composed of an AP development site and a verification organization connected via a network. An API-in-use extracting functionality extracts information relating to the API used in a source code. The encryption functionality encrypts the source code. The API-in-use set and the encrypted source code are transmitted to the verification organization by the AP transmitting functionality. The API-in-use validity checking functionality of the verification organization verifies the validity of the API being used. If the API being used is valid, the digital signature functionality provides a digital signature to the encrypted source code. The verified source code encrypted and bearing a digital signature is returned to the AP development site by the verified AP transmitting functionality.